149 Commits

Author SHA1 Message Date
Dobromir Popov
8e1bb1cfb5 Merge branch 'ralph/distributed-gguf-runtime' of https://git.d-popov.com/popov/neuron-tai into ralph/distributed-gguf-runtime 2026-07-30 00:13:46 +02:00
Dobromir Popov
0e2d530ed6 more stratch pads 2026-07-29 15:37:40 +02:00
Dobromir Popov
c28f565573 more code graph maps 2026-07-29 15:28:07 +02:00
Dobromir Popov
73625dbca4 graphify meta 2026-07-29 15:20:59 +02:00
Dobromir Popov
060e987152 opencode graphify 2026-07-29 15:11:17 +02:00
Dobromir Popov
254297660a add CLAUDE.md with full milestone map and task explanations 2026-07-23 10:17:55 +03:00
Dobromir Popov
966aa10854 distributed-gguf-runtime: add CMake skeleton, gRPC harness, split-GGUF provisioning, performance contracts
DGR-019  Lock alpha/beta performance contracts (evidence + contract framework)
DGR-020  Run controlled whole-model GGUF baseline (benchmark results & contracts)
DGR-024  Real generated-gRPC protocol harness (shard_runtime_server.py + tests)
DGR-026  split-GGUF provisioning outside /home (provision script + manifest + tests)
DGR-028  Numbered patch-stack apply & verify (llama_cpp_dependency.py + UPSTREAM_LOCK.json)
DGR-029  Native CMake skeleton + deterministic CPU lane (UPSTREAM_LOCK.json + cmake gating)

New modules:
  packages/node/meshnet_node/dgr_performance/  — performance contract framework
  packages/node/meshnet_node/split_gguf/        — split-GGUF manifest & provisioning
  scripts/provision_split_gguf.py               — artifact provisioning CLI
  tests/test_dgr_performance_contract.py        — contract validation tests
  tests/test_split_gguf_manifest.py             — manifest tests
  tests/test_split_gguf_provision.py            — provisioning tests
  tests/test_shard_runtime_harness.py           — gRPC harness tests
2026-07-23 09:55:00 +03:00
Dobromir Popov
47bad0b7e1 backlog updated 2026-07-21 21:56:08 +03:00
Dobromir Popov
aa148cc7aa fix(vscode): use dynamic interpreter path in launch.json for cross-machine debug
Configs hardcoded .venv-rocm/bin/python (this Linux box's ROCm venv), which
doesn't exist on the Windows dev machine. Switch to
${command:python.interpreterPath} so each machine resolves whatever
interpreter is selected in the VS Code Python extension locally.

Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
2026-07-21 14:09:45 +03:00
Dobromir Popov
505f37dd8d logs 2026-07-21 14:00:30 +03:00
Dobromir Popov
cd6b4d9d48 Merge DGR-024 (real generated-gRPC protocol harness) from ralph-terra-loop lane
# Conflicts:
#	.scratch/distributed-gguf-runtime/prd.json
2026-07-21 13:46:53 +03:00
Dobromir Popov
5177db25b0 feat: implement real generated-gRPC protocol harness (DGR-024)
Real ShardRuntimeServicer process bound to a real localhost socket, driven
by a generated ShardRuntimeStub over grpc.insecure_channel from a separately
spawned subprocess. Proves direct-hop and opaque-relay (exact captured
request bytes re-sent, no reinterpretation) produce byte-identical server
responses, cross-checked against an independent server-side wire capture.

Fails closed on the required negative paths: stale route epoch, expired
deadline, malformed/non-tiling fragments, checksum failure, exhausted
flow-control credit (with in-band top-up), duplicate idempotency steps
(acked, not re-applied), and cancel — both in-band CancelSignal (single
work item vs whole session) and the out-of-band unary Cancel RPC, including
a Cancel that races ahead of SessionOpen.

Supersedes the earlier in-memory fake-seam approach for this ticket, which
a policy audit rejected under the no-fake-data rule; that code is not
reintroduced. Evidence README rewritten to describe the actual files.

11 passed in tests/test_shard_runtime_harness.py.
2026-07-21 13:39:58 +03:00
Dobromir Popov
159284b3b5 Merge DGR-025 (certified-artifact-byte recipe identity) from ralph-fable-loop lane 2026-07-21 13:23:17 +03:00
Dobromir Popov
732ee9f91a Merge DGR-028 (numbered patch-stack apply/verify) from ralph-kimi-loop lane 2026-07-21 13:23:12 +03:00
Dobromir Popov
7da90ef475 feat: implement numbered patch-stack apply/verify enforcement (DGR-028)
Split the range-loader patch into single-concern patches 0002-0005 (loader,
filtered state report, boundary I/O endpoint guard, worker range-report
hook), add UPSTREAM-ASSUMPTIONS.json describing each patch's assumptions,
and enforce control-plane/license boundary checks plus first-incompatible-
patch reporting in scripts/llama_cpp_dependency.py apply/reverse/verify.

7 passed in tests/test_llama_cpp_dependency.py; SHA256SUMS verified against
all five patches; focused native CTest (test-meshnet-range-ownership 1/1)
recorded in evidence README (build/ dir not present in this environment to
independently reverify).
2026-07-21 13:22:55 +03:00
Dobromir Popov
03e97ca31a fix: bind recipe identity to certified artifact bytes (DGR-025)
Append +artifact.<sha256> to the llama.cpp runtime axis, computed from the
exact bytes read by attest_loaded_runtime, so a differently-built shared
object with copied lock values can no longer forge a certified runtime
identity. Node/tracker parsers require the suffix; new test proves a
byte-identical-lock but different-binary artifact produces a different
recipe fingerprint. Regenerates conformance vectors accordingly.

105 passed in tests/test_native_identity_emission.py,
tests/test_runtime_pin_identity.py, tests/test_runtime_recipe_identity.py.
2026-07-21 13:22:02 +03:00
Dobromir Popov
54d19f9a29 chore: replace fake protocol story with real harness 2026-07-19 00:22:03 +03:00
Dobromir Popov
377bc3475c chore: reconcile DGR-023 completion projection 2026-07-18 15:57:10 +03:00
Dobromir Popov
673830eac8 chore: reconcile DGR-023 completion projection 2026-07-18 15:56:59 +03:00
Dobromir Popov
902ecde363 [verified] feat: pin native protobuf and gRPC generation 2026-07-17 23:43:03 +03:00
Dobromir Popov
db59caa8e9 [verified] fix: enforce canonical native runtime pin 2026-07-17 23:20:03 +03:00
Dobromir Popov
ad66f7a4d8 feat: pin runtime identity to the exact llama.cpp patch stack (DGR-025)
Derive the recipe's runtime_version axis from the DGR-027 lock manifest
(exact upstream commit + ordered patch-stack byte digest) in new
meshnet_node.runtime_pin, failing closed on any lock/series/SHA256SUMS/
patch disagreement, and enforce pin discipline on runtime_version in both
the node and tracker identity implementations.

Also repair pre-existing backlog consistency: add missing DGR-022/DGR-027
completionNotes, regenerate the DGR-022/025/027 issue projections, and
relocate three pre-DGR legacy GLM issue files to issues/legacy/. Mark
DGR-025 passes=true with evidence at evidence/DGR-025/README.md.

Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-17 22:59:22 +03:00
Dobromir Popov
f83cf331c3 [verified] feat: harden llama.cpp provenance workspace 2026-07-17 16:24:46 +03:00
Dobromir Popov
ae51526e85 Merge remote-tracking branch 'origin/ralph/distributed-gguf-runtime' into ralph/distributed-gguf-runtime 2026-07-17 15:32:17 +03:00
Dobromir Popov
521a7b108a merge: close alternate DGR-001 maintenance history 2026-07-17 15:05:20 +03:00
Dobromir Popov
b7d40c5bcf fix: finish master branch integration compatibility 2026-07-17 14:35:05 +03:00
Dobromir Popov
8563d218c9 Merge branch 'ralph/distributed-gguf-runtime' of https://git.d-popov.com/popov/neuron-tai into ralph/distributed-gguf-runtime 2026-07-17 13:33:08 +02:00
Dobromir Popov
f0197bfa83 fix: reconcile merged runtime behavior 2026-07-17 14:29:09 +03:00
Dobromir Popov
6aced6a005 fix: reconcile legacy branch runtime with current GGUF 2026-07-17 14:21:02 +03:00
Dobromir Popov
66d9888a11 memory 2026-07-17 13:19:14 +02:00
Dobromir Popov
c758106a42 Merge branch 'archived_ralph/proxy-stream-cancellation' into merge/all-branches-into-master 2026-07-17 13:45:04 +03:00
Dobromir Popov
f0ddb69d33 Merge branch 'archived_ralph/dgr-001-performance-contract' into merge/all-branches-into-master
# Conflicts:
#	.claude/memory/MEMORY.md
#	.scratch/distributed-gguf-runtime/PRD.md
#	.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md
#	.scratch/distributed-gguf-runtime/README.md
#	.scratch/distributed-gguf-runtime/architecture.md
#	.scratch/distributed-gguf-runtime/evidence/DGR-017/README.md
#	.scratch/distributed-gguf-runtime/implementation-strategy.md
#	.scratch/distributed-gguf-runtime/issues/07-add-isolated-concurrent-local-hot-kv-state.md
#	.scratch/distributed-gguf-runtime/issues/13-harden-failure-cancellation-and-restart-semantics.md
#	.scratch/distributed-gguf-runtime/milestones.md
#	.scratch/distributed-gguf-runtime/prd.json
#	docs/issues/distributed-gguf-runtime/01-lock-the-safetensors-versus-gguf-performance-contract.md
#	docs/issues/distributed-gguf-runtime/02-adopt-the-versioned-grpc-shard-protocol.md
#	docs/issues/distributed-gguf-runtime/03-define-exact-artifact-and-runtime-recipe-identity.md
#	docs/issues/distributed-gguf-runtime/05-implement-dense-llama-range-aware-gguf-ownership.md
#	docs/issues/distributed-gguf-runtime/06-implement-architecture-defined-boundary-input-output.md
2026-07-17 13:44:52 +03:00
Dobromir Popov
9cb334cced Merge branch 'archived_ralph/deepseek-v4-flash-epic' into merge/all-branches-into-master 2026-07-17 13:44:12 +03:00
Dobromir Popov
ffe937678a Merge branch 'ralph/distributed-gguf-runtime' into merge/all-branches-into-master 2026-07-17 13:44:07 +03:00
Dobromir Popov
a35d86f343 chore: archive historical task programs 2026-07-17 12:41:46 +03:00
Dobromir Popov
9b257d9a1b feat: define shard lifecycle status contract 2026-07-17 11:58:50 +03:00
Dobromir Popov
3611b2cf9e Revert "fix: support headless Gitea credentials"
This reverts commit efd1cf4ef6.
2026-07-17 11:31:30 +03:00
Dobromir Popov
efd1cf4ef6 fix: support headless Gitea credentials 2026-07-17 10:47:15 +03:00
Dobromir Popov
ab466ce6b6 feat: add activation stream envelope 2026-07-17 02:36:24 +03:00
Dobromir Popov
989b55970b fix: reconcile Gitea Ralph status labels 2026-07-17 00:32:08 +03:00
Dobromir Popov
9e70b94417 feat: sync Ralph stories with Gitea issues 2026-07-16 23:37:03 +03:00
Dobromir Popov
9db036f91a feat: DGR-018 canonical Ralph metadata schema 2026-07-16 23:01:55 +03:00
Dobromir Popov
369b2072cc chore: clean superseded GGUF scaffolding 2026-07-16 22:32:37 +03:00
Dobromir Popov
81b1fa6074 docs: define implementation-ready distributed GGUF roadmap 2026-07-16 22:19:50 +03:00
Dobromir Popov
994546f78e Merge remote-tracking branch 'origin/master' into ralph/proxy-stream-cancellation 2026-07-16 18:06:54 +03:00
Dobromir Popov
6fd9d93e4b fix: flush direct SSE proxy frames before completion 2026-07-16 18:06:50 +03:00
Dobromir Popov
02b3709311 feat: checkpoint batching and release-gate stories 2026-07-16 17:24:56 +03:00
Dobromir Popov
737bade989 COLIBRI RESEARCH 2026-07-16 16:22:58 +02:00
Dobromir Popov
254627629b Merge commit '47b243cd98fd94da7918cacf5725373b099208e5' into ralph/distributed-gguf-runtime 2026-07-15 23:04:52 +02:00
Dobromir Popov
1fe31ef38d feat: checkpoint distributed gguf runtime stories 2026-07-15 23:42:58 +03:00
Dobromir Popov
47b243cd98 model loading, dash 2026-07-15 13:55:38 +02:00
Dobromir Popov
2852b1f80b loading more 2026-07-15 12:54:51 +02:00
Dobromir Popov
eaf00f6add test: record public relay smoke benchmark 2026-07-15 13:42:22 +03:00
Dobromir Popov
22f28bd69a fix model load/unload 2026-07-15 12:35:32 +02:00
Dobromir Popov
97e2784b37 node registration fixes 2026-07-15 10:34:41 +02:00
Dobromir Popov
c035bad5b7 feat: wire live benchmark CLI endpoints 2026-07-15 10:34:20 +03:00
Dobromir Popov
a508768e8a feat: add live endpoint benchmark runner 2026-07-14 22:46:11 +03:00
Dobromir Popov
e6f6782995 feat: add deterministic CPU/GPU benchmark runner slice 2026-07-14 21:39:13 +03:00
Dobromir Popov
ba7c656364 node metrics 2026-07-14 20:33:02 +02:00
Dobromir Popov
b661590ac7 log window bigger 2026-07-14 17:47:20 +02:00
Dobromir Popov
5b33bf8b99 feat: compare safetensors and gguf on cpu and gpu 2026-07-14 18:45:12 +03:00
Dobromir Popov
c7554ef7d8 feat: add DGR-001 performance contract 2026-07-14 18:13:54 +03:00
Dobromir Popov
21e6c86147 fix: let admin placement recover joined nodes 2026-07-14 16:37:42 +02:00
Dobromir Popov
def47f1a42 Merge branch 'master' of https://git.d-popov.com/popov/neuron-tai 2026-07-14 16:11:26 +02:00
Dobromir Popov
8cb00e951f feat: show admin node pool capacity 2026-07-14 16:11:18 +02:00
Dobromir Popov
7b3399760e chore: wrap up completed story metadata 2026-07-14 17:09:04 +03:00
Dobromir Popov
22467f145c merge: distributed performance baseline benchmark 2026-07-14 17:01:08 +03:00
Dobromir Popov
35af1e21de fix: make model placement controls observable 2026-07-14 16:00:37 +02:00
Dobromir Popov
905ea16ce0 feat: complete route session baseline benchmark 2026-07-14 16:55:52 +03:00
Dobromir Popov
348b003d6e fix: restore responsive dashboard panel grid 2026-07-14 15:55:24 +02:00
Dobromir Popov
1e64a5b2b9 new dash update 2026-07-14 15:29:11 +02:00
Dobromir Popov
f102be1098 docs: retarget gguf epic to DeepSeek-V4-Flash 2026-07-14 16:24:39 +03:00
Dobromir Popov
e2f3ae32b8 feat: let admins manage model placement 2026-07-14 15:16:23 +02:00
Dobromir Popov
29351d6217 chore: ignore local model cache 2026-07-14 14:05:37 +02:00
Dobromir Popov
cae7c2b171 chore: triage maintenance review and close completed stories 2026-07-14 14:33:09 +03:00
Dobromir Popov
1749f9b4ad chore: triage maintenance review and close completed stories 2026-07-14 14:33:09 +03:00
Dobromir Popov
5c9a2f6c97 dash style fix 2026-07-14 13:29:51 +02:00
Dobromir Popov
64f83d4392 feat: MAINT-002 - Update evidence READMEs for all completed stories 2026-07-14 14:23:27 +03:00
Dobromir Popov
6516a92c04 feat: MAINT-002 - Update evidence READMEs for all completed stories 2026-07-14 14:23:27 +03:00
Dobromir Popov
454a681a50 feat: MAINT-001 - Fix Ruff violations across all Python source 2026-07-14 14:17:23 +03:00
Dobromir Popov
4eeec7fa7f feat: MAINT-001 - Fix Ruff violations across all Python source 2026-07-14 14:17:23 +03:00
Dobromir Popov
a0f28b5631 chore: preserve DGR-018 preflight scripts (postponed) 2026-07-14 14:02:10 +03:00
Dobromir Popov
7925e5253d feat: implement DGR-006 tensor bundle boundary 2026-07-14 13:52:57 +03:00
Dobromir Popov
91c450840d chore: DGR-005 evidence README 2026-07-14 13:33:20 +03:00
Dobromir Popov
d6b808dcf9 chore: mark DGR-005 passes:true in PRD 2026-07-14 13:29:54 +03:00
Dobromir Popov
13d82f8032 dash, tests 2026-07-14 12:26:10 +02:00
Dobromir Popov
d1a1400db9 Move tracker hive to admin and expand nodes panel.
Give Nodes & coverage full width on overview with inference prices and live speed, and expose model pricing on /v1/models.

Co-authored-by: Cursor <cursoragent@cursor.com>
2026-07-14 12:19:25 +02:00
Dobromir Popov
31065c0e12 feat: distributed GGUF shard load integration test with TinyLlama 1.1B 2026-07-14 13:01:51 +03:00
Dobromir Popov
ec36290863 feat: emit native DGR-003 shard identity 2026-07-14 11:31:10 +03:00
Dobromir Popov
f844ae6567 feat: DGR-005B endpoint ownership and graph guard 2026-07-14 11:14:35 +03:00
Dobromir Popov
252d131e7d feat: DGR-005A dense Llama owned range loader 2026-07-14 11:01:28 +03:00
Dobromir Popov
3d8f93f4aa feat: DGR-005-003-CHAIN - DGR-005 + DGR-003-emission + anchor 2026-07-14 10:48:59 +03:00
Dobromir Popov
f9722e7b57 feat: DGR-004-CHAIN - Execute chained DGR-004/005/003-emission with anchor 2026-07-14 10:34:38 +03:00
Dobromir Popov
7b8e467c6b fix: harden DGR-003 identity trust boundary 2026-07-14 09:48:42 +03:00
Dobromir Popov
7364ed6731 fix: harden DGR-017 contract continuity 2026-07-14 01:10:33 +03:00
Dobromir Popov
ad2d17541c feat: DGR-003 - Define exact Artifact and runtime recipe identity 2026-07-14 01:10:07 +03:00
Dobromir Popov
e7c780a623 feat: DGR-017 - Lock the GLM-5.2 Max target and alpha contract 2026-07-14 00:19:16 +03:00
Dobromir Popov
5d87e81bc9 feat: harden node placement and partial model loading 2026-07-13 21:58:08 +02:00
Dobromir Popov
9580ed643e docs: harden GLM alpha resource and protocol gates 2026-07-13 22:48:26 +03:00
Dobromir Popov
5ebce15d7a docs: target GLM-5.2 Max for distributed alpha 2026-07-13 22:32:14 +03:00
Dobromir Popov
ef2a9e67e8 feat: add signed ROCm diagnostic lane 2026-07-13 21:24:43 +03:00
Dobromir Popov
a6bcc69288 sol mainnet payouts tasks 2026-07-13 18:51:40 +02:00
Dobromir Popov
b1c9deeb01 fix: cryptographically bind DGR-001 evidence 2026-07-13 19:38:14 +03:00
Dobromir Popov
c938d38031 more docs review 2026-07-13 18:37:07 +02:00
Dobromir Popov
95245be512 documentation revision 2026-07-13 18:14:21 +02:00
Dobromir Popov
9e67b829e3 fix: harden DGR-001 performance contract evidence 2026-07-13 19:10:24 +03:00
Dobromir Popov
180a7674e6 configure ralph 2026-07-13 17:56:00 +02:00
Dobromir Popov
e24db7854f feat: DGR-001 - Lock the safetensors-versus-GGUF performance contract 2026-07-13 17:55:55 +03:00
Dobromir Popov
59f2486bf2 feat: DGR-001 - Lock the safetensors-versus-GGUF performance contract 2026-07-13 17:49:09 +03:00
Dobromir Popov
d904c40f66 fix: harden DGR-002 protocol bounds 2026-07-13 17:30:54 +03:00
Dobromir Popov
30dcf953fe feat: DGR-002 - Adopt the versioned gRPC Shard protocol 2026-07-13 16:00:49 +03:00
Dobromir Popov
f420dc1092 matt's skills updatged with upstream 2026-07-13 14:23:13 +02:00
Dobromir Popov
efec84efef Merge remote-tracking branch 'origin/master' into temp/push-distributed-gguf-4cae4a6 2026-07-13 15:16:02 +03:00
Dobromir Popov
09af5c47f8 rename completed tasks, hook to claude memory changs 2026-07-13 14:14:37 +02:00
Dobromir Popov
4cae4a6c5c docs: define distributed GGUF runtime plan 2026-07-13 15:09:27 +03:00
Dobromir Popov
e8ef2fd222 Merge branch 'master' of https://git.d-popov.com/popov/neuron-tai 2026-07-13 09:43:12 +02:00
Dobromir Popov
caa55b74bf md nvicia 2026-07-13 09:43:09 +02:00
Dobromir Popov
b5fa7245df [verified] fix: preserve tracker precision eligibility 2026-07-13 10:27:45 +03:00
Dobromir Popov
377346c301 [verified] feat: complete Ralph task workstreams 2026-07-12 11:17:03 +03:00
Dobromir Popov
9a1b15c020 models on tracker 2026-07-12 02:44:12 +03:00
Dobromir Popov
95d79a0a16 quantizations 2026-07-12 01:33:51 +03:00
Dobromir Popov
f615b6befb fix tests 2026-07-11 22:47:12 +03:00
Dobromir Popov
7cf8d9bcf3 test descriptions 2026-07-11 22:25:30 +03:00
Dobromir Popov
7d259d7c9b test grouping 2026-07-11 22:11:21 +03:00
Dobromir Popov
c195b5ce78 fix dash test runner 2026-07-11 21:59:43 +03:00
Dobromir Popov
bd99c5177b dash test runner 2026-07-11 21:59:37 +03:00
Dobromir Popov
f99237b4e6 dashboard test runner . backend 2026-07-11 16:11:42 +03:00
Dobromir Popov
bb561a9665 tests on dash 2026-07-11 12:38:51 +03:00
Dobromir Popov
11bf460027 routing tests, launch.configs, redirect, stats and route statistics 2026-07-11 11:39:47 +03:00
Dobromir Popov
f54ea100fb issues, chat FPS; optimisations 2026-07-10 01:30:07 +03:00
Dobromir Popov
916f531e9d Merge branch 'master' of https://git.d-popov.com/popov/neuron-tai 2026-07-10 01:08:30 +03:00
Dobromir Popov
23dd0c3219 install jit on liunux fedora, TPS in chat 2026-07-10 01:08:26 +03:00
Dobromir Popov
33633240c8 Merge branch 'master' of https://git.d-popov.com/popov/neuron-tai 2026-07-10 00:03:48 +02:00
Dobromir Popov
d598896be9 more inference fixes 2026-07-09 23:44:58 +02:00
Dobromir Popov
0195ba08e3 Merge branch 'master' of https://git.d-popov.com/popov/neuron-tai 2026-07-09 23:47:38 +03:00
Dobromir Popov
dd18ac836e merge 2026-07-09 23:47:38 +03:00
Dobromir Popov
81057dd795 doctor docs 2026-07-09 23:41:11 +03:00
Dobromir Popov
e30272e83f dropp baes64 use binary 2026-07-09 22:40:43 +02:00
Dobromir Popov
3d264a500a inference fixes 2026-07-09 20:46:29 +02:00
Dobromir Popov
2b000ce9c3 favicon 2026-07-09 12:29:32 +02:00
Dobromir Popov
3abd4176d7 favicon 2026-07-09 12:16:12 +02:00
Dobromir Popov
1d3fb060ae relay working with qwen2.5;
relay anounced on node ready
2026-07-09 10:48:32 +02:00
Dobromir Popov
4c6e1ed8b6 different node IDs 2026-07-09 09:43:36 +02:00
Dobromir Popov
687e2d1769 urls 2026-07-09 09:30:50 +02:00
Dobromir Popov
b241aa1b32 ws internet deploy!!! 2026-07-09 09:21:56 +02:00
Dobromir Popov
65ad8289b3 Merge branch 'master' of https://git.d-popov.com/popov/neuron-tai 2026-07-09 08:48:11 +02:00
Dobromir Popov
def93b193b deployment to the INTETNET!!! 2026-07-09 08:48:09 +02:00
Dobromir Popov
c3fe38fe02 remove temporary kv e2e check script
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
2026-07-09 08:05:14 +02:00
Dobromir Popov
6ba8546c55 relay preparing for public internet 2026-07-09 08:01:22 +02:00
508 changed files with 164938 additions and 2721 deletions

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@@ -1,6 +1,6 @@
---
name: ask-matt
description: Ask which skill or flow fits your situation. A router over the user-invoked skills in this repo.
description: Ask which skill or flow fits your situation. A router over the skills in this repo.
disable-model-invocation: true
---
@@ -8,26 +8,28 @@ disable-model-invocation: true
You don't remember every skill, so ask.
A **flow** is a path through the skills. Most paths run along one **main flow**, and two **on-ramps** merge onto it. Everything else is standalone.
A **flow** is a path through the skills. Most paths run along one **main flow**, and two **on-ramps** merge onto it. Everything else is standalone, or a vocabulary layer that runs underneath.
## The main flow: idea → ship
The route most work travels. You have an idea and want it built.
1. **`/grill-with-docs`** — sharpen the idea by interview. Start here when you **have a codebase**: it's stateful, retaining what it learns in `CONTEXT.md` and ADRs. (No codebase? Use `/grill-me` — see Standalone.)
1. **`/grill-with-docs`** — sharpen the idea by interview. Start here when you **have a codebase**: it's stateful, retaining what it learns in `CONTEXT.md` and ADRs. (No codebase? Use `/grill-me` — see Standalone. Both run the same `/grilling` primitive; `grill-with-docs` is the one that leaves a paper trail.)
2. **Branch — can you settle every question in conversation?** If a question needs a runnable answer (state, business logic, a UI you have to see), detour through a prototype, bridged by **`/handoff`** in both directions (see Crossing sessions):
- **`/handoff`** out, then open a fresh session against that file,
- **`/prototype`** to answer the question with throwaway code,
- **`/handoff`** back what you learned, and reference it from the original idea thread.
3. **Branch — is this a multi-session build?**
- **Yes** → **`/to-prd`** (turn the thread into a PRD) → **`/to-issues`** (split the PRD into independently-grabbable issues). Because the issues are independent, **clear context between each one**: start a fresh session per issue and kick off **`/implement`** by passing it the PRD and the single issue to work on.
- **Yes** → **`/to-spec`** (turn the thread into a spec), then **`/to-tickets`** to split it into tracer-bullet tickets, each declaring its **blocking edges**. On a local tracker that's one file per ticket under `.scratch/<feature>/issues/`, worked blockers-first by hand; on a real tracker the edges become native blocking links, so any ticket whose blockers are done can be grabbed — kick off **`/implement`** per ticket, **clearing context between each one**.
- **No** → **`/implement`** right here, in the same context window.
Either way, **`/implement`** builds each issue by driving **`/tdd`** internally — one red-green slice at a time — then closes out by running **`/code-review`**, a two-axis review (Standards + Spec) of the diff, before committing. Reach for **`/tdd`** on its own when you just want to build a concrete behaviour test-first without a full spec, and **`/code-review`** on its own whenever you want to review a branch or PR against a fixed point.
### Context hygiene
Keep steps 13 in **one unbroken context window** — don't compact or clear until after `/to-issues` — so the grilling, PRD, and issues all build on the same thinking. Each `/implement` then starts fresh, working from the issue.
Keep steps 13 in **one unbroken context window** — don't compact or clear until after `/to-tickets` — so the grilling, spec, and tickets all build on the same thinking. Each `/implement` then starts fresh, working from the ticket.
The limit on this is the **[smart zone](https://www.aihero.dev/ai-coding-dictionary/smart-zone)**: the window (~120k tokens on state-of-the-art models) within which the model still reasons sharply. If a session approaches it before `/to-issues`, don't push on degraded — `/handoff` and continue in a fresh thread.
The limit on this is the **[smart zone](https://www.aihero.dev/ai-coding-dictionary/smart-zone)**: the window (~120k tokens on state-of-the-art models) within which the model still reasons sharply. If a session approaches it before `/to-tickets`, don't push on degraded — `/handoff` and continue in a fresh thread.
## On-ramps
@@ -35,13 +37,26 @@ A starting situation that generates work, then merges onto the main flow.
- **Bugs and requests piling up** → **`/triage`**. It moves issues through triage roles and produces agent-ready issues, which **`/implement`** later picks up.
Triage is only for issues **you didn't create** — bug reports, incoming feature requests, anything that arrives raw. Issues that `/to-issues` produced are already agent-ready, so **don't triage them**.
Triage is only for issues **you didn't create** — bug reports, incoming feature requests, anything that arrives raw. Tickets that `/to-tickets` produced are already agent-ready, so **don't triage them**.
- **Something's broken** → **`/diagnosing-bugs`**. For the hard ones: the bug that resists a first glance, the intermittent flake, the regression that crept in between two known-good states. It refuses to theorise until it has a **tight feedback loop** — one command that already goes red on *this* bug — then fixes with a regression test. Its post-mortem hands off to **`/improve-codebase-architecture`** when the real finding is that there's no good seam to lock the bug down.
- **A huge, foggy effort — a greenfield project or a huge feature build, too big for one session** → **`/wayfinder`**, the most cognitively demanding flow here. When the way from here to the destination isn't visible yet, it charts a **shared map** of **decision tickets** on the issue tracker and resolves them one at a time — producing **decisions, not deliverables** — until the fog is pushed back and the way is clear. Where **`/grill-with-docs`** sharpens an idea you can hold in one session, wayfinder is for the idea you can't — and it's slower and denser, so save it for exactly that, never a well-scoped feature.
When the map clears, **it hands off, it doesn't build**: merge onto the main flow at **`/to-spec`**, which collapses the map's linked decisions into a buildable plan, then `/to-tickets` and `/implement` as usual. Looping the map straight into `/implement` skips that collapse and throws the linked detail away — go straight to `/implement` only when the effort turned out genuinely small.
## Codebase health
Not feature work — upkeep.
- **`/improve-codebase-architecture`** — run whenever you have a spare moment to keep the codebase good for agents to operate in. It surfaces deepening opportunities; picking one _generates an idea_ you can take into the main flow at `/grill-with-docs`.
- **`/improve-codebase-architecture`** — run whenever you have a spare moment to keep the codebase good for agents to operate in. It surfaces **deepening opportunities**; picking one _generates an idea_ you can take into the main flow at `/grill-with-docs`. It's the survey that finds the candidates; **`/codebase-design`** (below) is the bench you design the chosen one on.
## Vocabulary underneath
Two model-invoked references that run *beneath* the other skills — each the single source of truth for its vocabulary. Reach for them directly when the **words**, not the process, are the problem; or let the skills above pull them in.
- **`/domain-modeling`** — sharpen the project's *domain* language: challenge a fuzzy term, resolve an overloaded word ("account" doing three jobs), record a hard-to-reverse decision as an ADR. It's the active discipline `/grill-with-docs` drives to keep `CONTEXT.md` a clean glossary.
- **`/codebase-design`** — the deep-module vocabulary (module, interface, depth, seam, adapter, leverage, locality) for designing a module's *shape*: a lot of behaviour behind a small interface at a clean seam. `/tdd` and `/improve-codebase-architecture` both speak it.
## Crossing sessions
@@ -53,6 +68,8 @@ Not feature work — upkeep.
Off the main flow entirely.
- **`/grill-me`** — the same relentless interview as `/grill-with-docs`, but for when you have **no codebase**. Stateless: it saves nothing locally, builds no `CONTEXT.md`. Reach for it to sharpen any plan or design that doesn't live in a repo.
- **`/prototype`** — a small, throwaway program that answers one design question: does this state model feel right, or what should this UI look like. Throwaway from day one — keep the answer, delete the code. It's the detour in step 2 of the main flow, but reach for it any time a design question is hard to settle on paper.
- **`/research`** — delegate reading legwork to a **background agent**: it investigates a question against **primary sources**, then leaves a cited Markdown file in the repo. Keep working while it reads. The file it produces is something to take *into* the main flow at `/grill-with-docs` — research feeds the thinking, it doesn't replace it.
- **`/teach`** — learn a concept over multiple sessions, using the current directory as a stateful workspace.
- **`/writing-great-skills`** — reference for writing and editing skills well.

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@@ -0,0 +1,5 @@
interface:
display_name: "Ask Matt"
short_description: "Find the right skill or workflow"
policy:
allow_implicit_invocation: false

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@@ -1,10 +1,12 @@
---
name: grilling
description: Interview the user relentlessly about a plan or design. Use when the user wants to stress-test a plan before building, or uses any 'grill' trigger phrases.
description: Grill the user relentlessly about a plan, decision, or idea. Use when the user wants to stress-test their thinking, or uses any 'grill' trigger phrases.
---
Interview me relentlessly about every aspect of this plan until we reach a shared understanding. Walk down each branch of the design tree, resolving dependencies between decisions one-by-one. For each question, provide your recommended answer.
Interview me relentlessly about every aspect of this until we reach a shared understanding. Walk down each branch of the decision tree, resolving dependencies between decisions one-by-one. For each question, provide your recommended answer.
Ask the questions one at a time, waiting for feedback on each question before continuing. Asking multiple questions at once is bewildering.
If a question can be answered by exploring the codebase, explore the codebase instead.
If a *fact* can be found by exploring the environment (filesystem, tools, etc.), look it up rather than asking me. The *decisions*, though, are mine — put each one to me and wait for my answer.
Do not act on it until I confirm we have reached a shared understanding.

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@@ -0,0 +1,3 @@
interface:
display_name: "Grilling"
short_description: "Stress-test thinking one question at a time"

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@@ -9,7 +9,7 @@ Write a handoff document summarising the current conversation so a fresh agent c
Include a "suggested skills" section in the document, which suggests skills that the agent should invoke.
Do not duplicate content already captured in other artifacts (PRDs, plans, ADRs, issues, commits, diffs). Reference them by path or URL instead.
Do not duplicate content already captured in other artifacts (specs, plans, ADRs, issues, commits, diffs). Reference them by path or URL instead.
Redact any sensitive information, such as API keys, passwords, or personally identifiable information.

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@@ -0,0 +1,5 @@
interface:
display_name: "Handoff"
short_description: "Compact a conversation into a handoff"
policy:
allow_implicit_invocation: false

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@@ -1,15 +1,15 @@
---
name: implement
description: "Implement a piece of work based on a PRD or set of issues."
description: "Implement a piece of work based on a spec or set of tickets."
disable-model-invocation: true
---
Implement the work described by the user in the PRD or issues.
Implement the work described by the user in the spec or tickets.
Use /tdd where possible, at pre-agreed seams.
Run typechecking regularly, single test files regularly, and the full test suite once at the end.
Once done, use /review to review the work.
Once done, use /code-review to review the work.
Commit your work to the current branch.

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@@ -0,0 +1,5 @@
interface:
display_name: "Implement"
short_description: "Build work from a spec or tickets"
policy:
allow_implicit_invocation: false

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@@ -17,6 +17,11 @@ This command is _informed_ by the project's domain model and built on a shared d
### 1. Explore
**Scope before you scan — YAGNI.** Deepening a module pays off by making future changes to it easier, so put extra weight on the parts of the codebase that have recently changed. Decide *where* to look before you look:
- If the user named a direction — a module, a subsystem, a pain point — take it, and skip the inference below.
- Otherwise, walk back a good stretch of the commit history (`git log --oneline`) to find the codebase's hot spots — the files and areas that keep coming up — and let those paths pull your attention first. If the changes are scattered with no clear hot spot, widen the net.
Read the project's domain glossary (`CONTEXT.md`) and any ADRs in the area you're touching first.
Then use the Agent tool with `subagent_type=Explore` to walk the codebase. Don't follow rigid heuristics — explore organically and note where you experience friction:
@@ -56,7 +61,7 @@ Do NOT propose interfaces yet. After the file is written, ask the user: "Which o
### 3. Grilling loop
Once the user picks a candidate, run the `/grilling` skill to walk the design tree with them — constraints, dependencies, the shape of the deepened module, what sits behind the seam, what tests survive.
Once the user picks a candidate, run the `/grilling` skill to walk the decision tree with them — constraints, dependencies, the shape of the deepened module, what sits behind the seam, what tests survive.
Side effects happen inline as decisions crystallize — run the `/domain-modeling` skill to keep the domain model current as you go:

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interface:
display_name: "Improve Codebase Architecture"
short_description: "Find and grill architecture improvements"
policy:
allow_implicit_invocation: false

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@@ -36,7 +36,7 @@ The right shape depends on the question:
Pick whichever shape best fits the question being asked, *not* whichever is easiest to wire to a TUI. Keep it pure: no I/O, no terminal code, no `console.log` for control flow. The TUI imports it and calls into it; nothing flows the other direction.
This is what makes the prototype useful past its own lifetime. When the question's been answered, the validated reducer / machine / function set can be lifted into the real module — the TUI shell gets deleted.
This is what makes the prototype useful past its own lifetime: when the question's been answered, the validated reducer / machine / function set can be lifted into the real module on its own.
### 4. Build the smallest TUI that exposes the state
@@ -66,9 +66,9 @@ If the host project has no task runner, just put the command at the top of the p
Give the user the run command. They'll drive it themselves; the interesting moments are when they say "wait, that shouldn't be possible" or "huh, I assumed X would be different" — those are the bugs in the _idea_, which is the whole point. If they want new actions added, add them. Prototypes evolve.
### 7. Capture the answer
### 7. Capture the answer and the prototype
When the prototype has done its job, the answer to the question is the only thing worth keeping. If the user is around, ask what it taught them. If not, leave a `NOTES.md` next to the prototype so the answer can be filled in (or filled in by you, if you've watched the session) before the prototype gets deleted.
Once the prototype has answered its question, capture the answer, then capture the prototype the way the [SKILL](SKILL.md) describes. The logic-specific mapping: the validated reducer / machine / function set lifts into the real module (the decision, absorbed); the TUI shell rides along to the throwaway branch that keeps the prototype as a primary source.
## Anti-patterns

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@@ -1,7 +1,6 @@
---
name: prototype
description: Build a throwaway prototype to flesh out a design — a runnable terminal app for state/business-logic questions, or several radically different UI variations toggleable from one route.
disable-model-invocation: true
description: Build a throwaway prototype to answer a design question. Use when the user wants to sanity-check whether a state model or logic feels right, or explore what a UI should look like.
---
# Prototype
@@ -22,10 +21,6 @@ The two branches produce very different artifacts — getting this wrong wastes
1. **Throwaway from day one, and clearly marked as such.** Locate the prototype code close to where it will actually be used (next to the module or page it's prototyping for) so context is obvious — but name it so a casual reader can see it's a prototype, not production. For throwaway UI routes, obey whatever routing convention the project already uses; don't invent a new top-level structure.
2. **One command to run.** Whatever the project's existing task runner supports — `pnpm <name>`, `python <path>`, `bun <path>`, etc. The user must be able to start it without thinking.
3. **No persistence by default.** State lives in memory. Persistence is the thing the prototype is _checking_, not something it should depend on. If the question explicitly involves a database, hit a scratch DB or a local file with a clear "PROTOTYPE — wipe me" name.
4. **Skip the polish.** No tests, no error handling beyond what makes the prototype _runnable_, no abstractions. The point is to learn something fast and then delete it.
4. **Skip the polish.** No tests, no error handling beyond what makes the prototype _runnable_, no abstractions. The point is to learn something fast.
5. **Surface the state.** After every action (logic) or on every variant switch (UI), print or render the full relevant state so the user can see what changed.
6. **Delete or absorb when done.** When the prototype has answered its question, either delete it or fold the validated decision into the real code — don't leave it rotting in the repo.
## When done
The _answer_ is the only thing worth keeping from a prototype. Capture it somewhere durable (commit message, ADR, issue, or a `NOTES.md` next to the prototype) along with the question it was answering. If the user is around, that capture is a quick conversation; if not, leave the placeholder so they (or you, on the next pass) can fill in the verdict before deleting the prototype.
6. **Capture it when done.** Fold any validated decision into the real code, then capture the prototype itself as a **primary source**: commit it to a throwaway branch, out of main, and leave a context pointer to that branch on the implementation issue. Capture the answer too — the verdict and the question it settled — in the issue or a commit. The main branch keeps only the validated decision.

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@@ -97,12 +97,12 @@ Surface the URL (and the `?variant=` keys). The user will flip through whenever
### 6. Capture the answer and clean up
Once a variant has won, write down which one and why (commit message, ADR, issue, or a `NOTES.md` next to the prototype if running AFK and the user hasn't responded yet). Then:
Once a variant has won, capture the answer — which variant and why — then capture the prototype the way the [SKILL](SKILL.md) describes. Fold the winner into the real code and move the rest onto the throwaway branch, not into main:
- **Sub-shape A** — delete the losing variants and the switcher; fold the winner into the existing page.
- **Sub-shape B** — promote the winning variant to a real route, delete the throwaway route and the switcher.
- **Sub-shape A** — fold the winner into the existing page; drop the losing variants and the switcher from main.
- **Sub-shape B** — promote the winning variant to a real route; drop the throwaway route and the switcher from main.
Don't leave variant components or the switcher lying around. They rot fast and confuse the next reader.
The full set of variants is the primary source, so it lands on the throwaway branch, not the bin — variant components and the switcher left in the main branch rot fast and confuse the next reader.
## Anti-patterns

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@@ -0,0 +1,3 @@
interface:
display_name: "Prototype"
short_description: "Prototype to answer a design question"

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@@ -26,16 +26,18 @@ Look at the current repo to understand its starting state. Read whatever exists;
- `docs/adr/` and any `src/*/docs/adr/` directories
- `docs/agents/` — does this skill's prior output already exist?
- `.scratch/` — sign that a local-markdown issue tracker convention is already in use
- Is the `triage` skill installed? (a `triage` skill folder alongside this one, or `triage` in your available skills.) This decides whether Section B runs at all.
- Monorepo signals — a `pnpm-workspace.yaml`, a `workspaces` field in `package.json`, or a populated `packages/*` with its own `src/`. Present only in a genuinely large multi-package repo; their absence means single-context, which is almost every repo.
### 2. Present findings and ask
Summarise what's present and what's missing. Then walk the user through the three decisions **one at a time** — present a section, get the user's answer, then move to the next. Don't dump all three at once.
Summarise what's present and what's missing. Then take the sections in order — one section, one answer, then the next.
Assume the user does not know what these terms mean. Each section starts with a short explainer (what it is, why these skills need it, what changes if they pick differently). Then show the choices and the default.
Lead each section with the recommended answer so the user can accept it in a word. Give a one-line explainer only when the choice genuinely branches; skip the section entirely when exploration already settled it (Section B when `triage` isn't installed, Section C when there's no monorepo).
**Section A — Issue tracker.**
> Explainer: The "issue tracker" is where issues live for this repo. Skills like `to-issues`, `triage`, `to-prd`, and `qa` read from and write to it — they need to know whether to call `gh issue create`, write a markdown file under `.scratch/`, or follow some other workflow you describe. Pick the place you actually track work for this repo.
> Explainer: The "issue tracker" is where issues live for this repo. Skills like `to-tickets`, `triage`, `to-spec`, and `qa` read from and write to it — they need to know whether to call `gh issue create`, write a markdown file under `.scratch/`, or follow some other workflow you describe. Pick the place you actually track work for this repo.
Default posture: these skills were designed for GitHub. If a `git remote` points at GitHub, propose that. If a `git remote` points at GitLab (`gitlab.com` or a self-hosted host), propose GitLab. Otherwise (or if the user prefers), offer:
@@ -44,41 +46,26 @@ Default posture: these skills were designed for GitHub. If a `git remote` points
- **Local markdown** — issues live as files under `.scratch/<feature>/` in this repo (good for solo projects or repos without a remote)
- **Other** (Jira, Linear, etc.) — ask the user to describe the workflow in one paragraph; the skill will record it as freeform prose
If — and only if — the user picked **GitHub** or **GitLab**, ask one follow-up:
Record the choice in `docs/agents/issue-tracker.md`. The GitHub and GitLab templates carry a "PRs as a request surface" flag, defaulted **off** — leave it off and don't raise it; a user who wants external PRs in the triage queue can flip the flag in the file later.
> Explainer: Open-source repos often receive feature requests as pull requests, not just issues — a PR is an issue with attached code. If you turn this on, `/triage` pulls *external* PRs into the same queue and runs them through the same labels and states as issues (collaborators' in-flight PRs are left alone). Leave it off if PRs aren't a request surface for you.
**Section B — Triage label vocabulary.** Skip this section entirely if the `triage` skill isn't installed (exploration told you) — an uninstalled skill needs no labels.
- **PRs as a request surface** — yes / no (default: no). Record the answer in `docs/agents/issue-tracker.md`. For local-markdown and other trackers, skip this question — there are no PRs.
If it is installed, ask exactly one question:
**Section B — Triage label vocabulary.**
> Do you want to keep the default triage labels? (recommended: **yes**)
> Explainer: When the `triage` skill processes an incoming issue, it moves it through a state machine — needs evaluation, waiting on reporter, ready for an AFK agent to pick up, ready for a human, or won't fix. To do that, it needs to apply labels (or the equivalent in your issue tracker) that match strings *you've actually configured*. If your repo already uses different label names (e.g. `bug:triage` instead of `needs-triage`), map them here so the skill applies the right ones instead of creating duplicates.
The defaults are the five canonical roles, each label string equal to its name: `needs-triage`, `needs-info`, `ready-for-agent`, `ready-for-human`, `wontfix`. On **yes**, write them as-is. Only if the user says no — usually because their tracker already uses other names (e.g. `bug:triage` for `needs-triage`) — collect the overrides so `triage` applies existing labels instead of creating duplicates.
The five canonical roles:
**Section C — Domain docs.** Default to **single-context** — one `CONTEXT.md` + `docs/adr/` at the repo root. This fits almost every repo; write it without asking.
- `needs-triage` — maintainer needs to evaluate
- `needs-info` — waiting on reporter
- `ready-for-agent` — fully specified, AFK-ready (an agent can pick it up with no human context)
- `ready-for-human` — needs human implementation
- `wontfix` — will not be actioned
Default: each role's string equals its name. Ask the user if they want to override any. If their issue tracker has no existing labels, the defaults are fine.
**Section C — Domain docs.**
> Explainer: Some skills (`improve-codebase-architecture`, `diagnosing-bugs`, `tdd`) read a `CONTEXT.md` file to learn the project's domain language, and `docs/adr/` for past architectural decisions. They need to know whether the repo has one global context or multiple (e.g. a monorepo with separate frontend/backend contexts) so they look in the right place.
Confirm the layout:
- **Single-context** — one `CONTEXT.md` + `docs/adr/` at the repo root. Most repos are this.
- **Multi-context** — `CONTEXT-MAP.md` at the root pointing to per-context `CONTEXT.md` files (typically a monorepo).
Offer **multi-context** — a root `CONTEXT-MAP.md` pointing to per-context `CONTEXT.md` files — only when exploration found monorepo signals. Then confirm which layout they want.
### 3. Confirm and edit
Show the user a draft of:
- The `## Agent skills` block to add to whichever of `CLAUDE.md` / `AGENTS.md` is being edited (see step 4 for selection rules)
- The contents of `docs/agents/issue-tracker.md`, `docs/agents/triage-labels.md`, `docs/agents/domain.md`
- The contents of `docs/agents/issue-tracker.md`, `docs/agents/domain.md`, and `docs/agents/triage-labels.md` (the last only when `triage` is installed)
Let them edit before writing.
@@ -101,7 +88,7 @@ The block:
### Issue tracker
[one-line summary of where issues are tracked, plus whether external PRs are a triage surface]. See `docs/agents/issue-tracker.md`.
[one-line summary of where issues are tracked]. See `docs/agents/issue-tracker.md`.
### Triage labels
@@ -112,12 +99,14 @@ The block:
[one-line summary of layout — "single-context" or "multi-context"]. See `docs/agents/domain.md`.
```
Then write the three docs files using the seed templates in this skill folder as a starting point:
Include the `### Triage labels` sub-block, and write `docs/agents/triage-labels.md`, only when `triage` is installed and Section B ran. When it isn't, both are omitted.
Then write the docs files using the seed templates in this skill folder as a starting point:
- [issue-tracker-github.md](./issue-tracker-github.md) — GitHub issue tracker
- [issue-tracker-gitlab.md](./issue-tracker-gitlab.md) — GitLab issue tracker
- [issue-tracker-local.md](./issue-tracker-local.md) — local-markdown issue tracker
- [triage-labels.md](./triage-labels.md) — label mapping
- [triage-labels.md](./triage-labels.md) — label mapping (only if `triage` is installed)
- [domain.md](./domain.md) — domain doc consumer rules + layout
For "other" issue trackers, write `docs/agents/issue-tracker.md` from scratch using the user's description.

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interface:
display_name: "Setup Matt Pocock Skills"
short_description: "Configure a repo for the skills"
policy:
allow_implicit_invocation: false

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@@ -32,3 +32,14 @@ Create a GitHub issue.
## When a skill says "fetch the relevant ticket"
Run `gh issue view <number> --comments`.
## Wayfinding operations
Used by `/wayfinder`. The **map** is a single issue with **child** issues as tickets.
- **Map**: a single issue labelled `wayfinder:map`, holding the Notes / Decisions-so-far / Fog body. `gh issue create --label wayfinder:map`.
- **Child ticket**: an issue linked to the map as a GitHub sub-issue (`gh api` on the sub-issues endpoint). Where sub-issues aren't enabled, add the child to a task list in the map body and put `Part of #<map>` at the top of the child body. Labels: `wayfinder:<type>` (`research`/`prototype`/`grilling`/`task`). Once claimed, the ticket is assigned to the driving dev.
- **Blocking**: GitHub's **native issue dependencies** — the canonical, UI-visible representation. Add an edge with `gh api --method POST repos/<owner>/<repo>/issues/<child>/dependencies/blocked_by -F issue_id=<blocker-db-id>`, where `<blocker-db-id>` is the blocker's numeric **database id** (`gh api repos/<owner>/<repo>/issues/<n> --jq .id`, _not_ the `#number` or `node_id`). GitHub reports `issue_dependencies_summary.blocked_by` (open blockers only — the live gate). Where dependencies aren't available, fall back to a `Blocked by: #<n>, #<n>` line at the top of the child body. A ticket is unblocked when every blocker is closed.
- **Frontier query**: list the map's open children (`gh issue list --state open`, scoped to the map's sub-issues / task list), drop any with an open blocker (`issue_dependencies_summary.blocked_by > 0`, or an open issue in the `Blocked by` line) or an assignee; first in map order wins.
- **Claim**: `gh issue edit <n> --add-assignee @me` — the session's first write.
- **Resolve**: `gh issue comment <n> --body "<answer>"`, then `gh issue close <n>`, then append a context pointer (gist + link) to the map's Decisions-so-far.

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@@ -33,3 +33,14 @@ Create a GitLab issue.
## When a skill says "fetch the relevant ticket"
Run `glab issue view <number> --comments`.
## Wayfinding operations
Used by `/wayfinder`. The **map** is a single issue with **child** issues as tickets.
- **Map**: a single issue labelled `wayfinder:map`, holding the Notes / Decisions-so-far / Fog body. `glab issue create --label wayfinder:map`. (On GitLab tiers with native epics, an epic may hold the map instead; a labelled issue works everywhere.)
- **Child ticket**: an issue carrying `Part of #<map>` at the top of its description and labels `wayfinder:<type>` (`research`/`prototype`/`grilling`/`task`). Once claimed, the ticket is assigned to the driving dev.
- **Blocking**: GitLab's **native blocking link** — the canonical, UI-visible representation. Add it with the `/blocked_by #<n>` quick action, posted as a note (`glab issue note <child> --message "/blocked_by #<blocker>"`). Native blocking links are a Premium/Ultimate feature; on the free tier (or where unavailable) fall back to a `Blocked by: #<n>, #<n>` line at the top of the description. A ticket is unblocked when every blocker is closed.
- **Frontier query**: `glab issue list -F json` scoped to the map's children, drop any with an open blocker — a native `blocked_by` link to an open issue (`glab api projects/:id/issues/:iid/links`), or an open issue in the `Blocked by` line — or an assignee; first in map order wins.
- **Claim**: `glab issue update <n> --assignee @me` — the session's first write.
- **Resolve**: `glab issue note <n> --message "<answer>"`, then `glab issue close <n>`, then append a context pointer (gist + link) to the map's Decisions-so-far.

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@@ -1,12 +1,12 @@
# Issue tracker: Local Markdown
Issues and PRDs for this repo live as markdown files in `.scratch/`.
Issues and specs (you may know a spec as a PRD) for this repo live as markdown files in `.scratch/`.
## Conventions
- One feature per directory: `.scratch/<feature-slug>/`
- The PRD is `.scratch/<feature-slug>/PRD.md`
- Implementation issues are `.scratch/<feature-slug>/issues/<NN>-<slug>.md`, numbered from `01`
- The spec is `.scratch/<feature-slug>/spec.md`
- Implementation issues are one file per ticket at `.scratch/<feature-slug>/issues/<NN>-<slug>.md`, numbered from `01` — never a single combined tickets file
- Triage state is recorded as a `Status:` line near the top of each issue file (see `triage-labels.md` for the role strings)
- Comments and conversation history append to the bottom of the file under a `## Comments` heading
@@ -17,3 +17,14 @@ Create a new file under `.scratch/<feature-slug>/` (creating the directory if ne
## When a skill says "fetch the relevant ticket"
Read the file at the referenced path. The user will normally pass the path or the issue number directly.
## Wayfinding operations
Used by `/wayfinder`. The **map** is a file with one **child** file per ticket.
- **Map**: `.scratch/<effort>/map.md` — the Notes / Decisions-so-far / Fog body.
- **Child ticket**: `.scratch/<effort>/issues/NN-<slug>.md`, numbered from `01`, with the question in the body. A `Type:` line records the ticket type (`research`/`prototype`/`grilling`/`task`); a `Status:` line records `claimed`/`resolved`.
- **Blocking**: a `Blocked by: NN, NN` line near the top. A ticket is unblocked when every file it lists is `resolved`.
- **Frontier**: scan `.scratch/<effort>/issues/` for files that are open, unblocked, and unclaimed; first by number wins.
- **Claim**: set `Status: claimed` and save before any work.
- **Resolve**: append the answer under an `## Answer` heading, set `Status: resolved`, then append a context pointer (gist + link) to the map's Decisions-so-far in `map.md`.

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@@ -0,0 +1,102 @@
---
name: setup-ts-deep-modules
description: Wire dependency-cruiser into a TypeScript repo so each package is a deep module — implementation hidden in subfolders, reachable only through its entry-point files. User-invoked.
disable-model-invocation: true
---
# Setup TS Deep Modules
Make every package in this repo a **deep module**: a lot of behaviour behind a small interface. A package's public surface is its **entry points** — the files at the package root — and everything in its subfolders is hidden. This skill installs [dependency-cruiser](https://github.com/sverweij/dependency-cruiser) and the rules that make the entry points the only way in, then proves the rules bite.
For the vocabulary (deep module, interface, seam, depth), run the `/codebase-design` skill — use its language throughout.
## The shape this enforces
```
src/packages/
<name>/
index.ts ← an entry point (public). Import this from outside.
client.ts ← another entry point. Packages may expose SEVERAL.
lib/ ← implementation: hidden from outside, free to import each other.
tests/ ← co-located tests + fixtures (a subfolder, so private).
```
The public surface is the package's **root files** — not one designated `index.ts`. By convention implementation lives in `lib/` and tests in `tests/`, giving every package the same two-folder shape. The rule itself is general, though: *anything* in *any* subfolder is private, so you never extend the config to add a folder.
Four rules, all `error`:
1. **Entry-point boundary** — code outside a package (app code or another package) may import only that package's entry points (its root files), never anything in its subfolders.
2. **Intra-package freedom** — a package's own files import each other freely.
3. **Tests through the entry points** — files under `<pkg>/tests/` may import any package's entry points and their own `tests/` fixtures, but never any package's subfolder internals (not even their own). Integration tests across packages are fine; deep imports are not.
4. **No cycles** — no dependency cycles.
**Entry points, not a barrel.** Because the public surface is *every* root file, a package can expose several small entry points (`index.ts`, `client.ts`, `server.ts`) instead of funnelling everything through one giant `index.ts`. Barrel files that re-export a whole subtree are discouraged — keep entry points small and hide implementation in subfolders.
Layering (which packages may depend on which) is a *different* concern and is left as a commented stub in the config for this repo to fill in.
## Steps
### 1. Detect the environment
- **Package manager** — `pnpm-lock.yaml` → pnpm, `yarn.lock` → yarn, `bun.lockb` → bun, else npm. Use it for every command below (`pnpm`/`yarn`/`npm run`/`bunx`).
- **Packages root** — if `src/` exists use `src/packages`, else `packages`. Confirm the choice with the user if the repo already has a different obvious convention.
- **Existing config** — check for a `.dependency-cruiser.*` file. If one exists, do **not** overwrite it: merge the four rules and the options in, and tell the user what you added.
**Done when:** package manager, packages root, and existing-config status are all known.
### 2. Install dependency-cruiser
Install `dependency-cruiser` as a devDependency with the detected package manager.
**Done when:** `dependency-cruiser` is in `devDependencies`.
### 3. Write the config
Copy [`dependency-cruiser.config.cjs`](./dependency-cruiser.config.cjs) to the repo root as `.dependency-cruiser.cjs`. Set `PACKAGES_ROOT` to the root detected in step 1. The rules are path-depth based and extension-agnostic, so nothing else needs adapting.
**Done when:** `.dependency-cruiser.cjs` exists with the correct `PACKAGES_ROOT`, and the four forbidden rules are present.
### 4. Wire it into the checks
- Add a `lint:boundaries` script: `depcruise <packages-root>` (or `depcruise src`).
- Fold it into the repo's umbrella check command — the one that already runs typecheck (e.g. a `check` / `ci` / `validate` script). Do **not** touch `tsconfig` or add path aliases.
- If there is no umbrella script, add `lint:boundaries` and tell the user to include it in CI.
**Done when:** `lint:boundaries` exists and runs as part of the same command as typecheck.
### 5. Scaffold the example package
Create a committed `<packages-root>/example/` as a copy-me template:
- `index.ts` — an entry point. Export one function that delegates to an internal file (so the package is visibly *deep*, not a pass-through).
- `lib/impl.ts` — an internal file in a **subfolder**, imported by `index.ts`, not reachable from outside.
- `tests/example.test.ts` — imports **only** `../index` (an entry point), and asserts against the public function.
Tell the user this is a starter template to copy or delete.
**Done when:** the example package exists, exposes its behaviour through a root entry point, and hides `impl` in a subfolder.
### 6. Prove the rules bite
This is the completion criterion for the whole skill — a config that doesn't fail on a violation is worthless.
1. Run `lint:boundaries`. It must **pass** on the clean example.
2. Temporarily add a deep import to `tests/example.test.ts` (e.g. `import { thing } from "../lib/impl"`). Run `lint:boundaries` again — it must **fail** with `tests-through-entrypoints`.
3. Revert the deep import. Run once more — it must **pass**.
**Done when:** you have observed a pass, then a fail on the deep import, then a pass again. If step 2 does not fail, the rules are not wired correctly — fix before finishing.
### 7. Document the convention
Write a `README.md` **in the packages folder** (`<packages-root>/README.md`) — next to the packages it governs — covering: the `src/packages/<name>/` layout (entry points at the root, `lib/` for implementation, `tests/` for tests), "import only through a package's entry points (its root files)", and how to run `lint:boundaries`. **Discourage barrel files** explicitly — expose several small entry points instead of re-exporting a whole subtree through one index. Keep it to the copy-me snippet plus the four rules in one paragraph each.
Then add a **context pointer** to it from the repo's agent-instructions file — `CLAUDE.md` if present, else `AGENTS.md` (create `AGENTS.md` if neither exists). One line is enough, e.g. `Packages are deep modules — see [src/packages/README.md](./src/packages/README.md) before adding or importing one.` This is what makes an agent discover the boundary rule instead of tripping over it.
**Done when:** `<packages-root>/README.md` exists and discourages barrels, and the repo's `CLAUDE.md`/`AGENTS.md` links to it.
## Notes
- The config's `$1` back-references (dependency-cruiser's group matching) are what let a package reach its own internals while outsiders can't — don't flatten them into separate per-package rules.
- Public vs private is decided by **depth**: a package's root files are entry points; anything in a subfolder is private. The conventional subfolders are `lib/` (implementation) and `tests/`, but the rule doesn't hardcode them — any subfolder is private, so a new folder never needs a config change. Adding an entry point is just adding a root file — no barrel.
- Packages are **flat**: one tier of immediate children under the root. A package's internals may nest as deep as you like; a package may not contain another package.
- Use `.cjs` (not `.js`) so the config's `module.exports` works even in `"type": "module"` repos.

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@@ -0,0 +1,5 @@
interface:
display_name: "Setup TS Deep Modules"
short_description: "Enforce deep TypeScript modules"
policy:
allow_implicit_invocation: false

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@@ -0,0 +1,95 @@
// @ts-check
// Deep-module enforcement for dependency-cruiser.
//
// Each package under the packages root is a DEEP MODULE: a lot of behaviour
// behind a small interface. A package's PUBLIC SURFACE is its ENTRY POINTS —
// the files at the package root. Implementation lives in SUBFOLDERS and is
// private — by convention `lib/` for implementation and `tests/` for tests,
// though any subfolder is private. A package may expose several small entry
// points (index.ts, client.ts, server.ts, …) — prefer that over one giant
// barrel index.
//
// The only thing you should ever need to edit here is PACKAGES_ROOT.
/** Where packages live. One immediate child dir per package (flat, no nesting). */
const PACKAGES_ROOT = "src/packages";
// --- derived patterns (no need to edit) -------------------------------------
const R = PACKAGES_ROOT;
/**
* A package's private internals: anything nested inside a package subfolder.
* The package's root files are its entry points and are NOT matched here —
* they stay importable from outside.
*/
const PACKAGE_INTERNALS = `^${R}/[^/]+/[^/]+/`;
/** @type {import('dependency-cruiser').IConfiguration} */
module.exports = {
forbidden: [
{
name: "entrypoint-boundary-from-app",
comment:
"App/root code may import a package's entry points (its root files), but nothing inside its subfolders.",
severity: "error",
from: { pathNot: `^${R}/` }, // importer is NOT inside any package
to: { path: PACKAGE_INTERNALS },
},
{
name: "entrypoint-boundary-across-packages",
comment:
"A package's own files import each other freely, but may reach OTHER packages only through their entry points — never their internals.",
severity: "error",
// importer is inside a package ($1), but is not a test file
from: { path: `^${R}/([^/]+)/`, pathNot: `^${R}/[^/]+/tests/` },
to: {
path: PACKAGE_INTERNALS,
pathNot: `^${R}/$1/`, // same package → intra-package freedom
},
},
{
name: "tests-through-entrypoints",
comment:
"A package's tests exercise it through its entry points like everyone else: they may import any package's entry points and their own tests/ fixtures, but never any package's internals — not even their own.",
severity: "error",
from: { path: `^${R}/([^/]+)/tests/` }, // a test file, in package $1
to: {
path: PACKAGE_INTERNALS,
pathNot: `^${R}/$1/tests/`, // own tests/ fixtures → allowed
},
},
{
name: "tests-folder-is-private",
comment:
"A package's tests/ folder is reachable only from tests — nothing else may import fixtures.",
severity: "error",
from: { pathNot: `^${R}/[^/]+/tests/` }, // importer is not itself a test
to: { path: `^${R}/[^/]+/tests/` },
},
{
name: "no-circular",
comment: "No dependency cycles. Scope to `^${R}/` if you want to allow cycles outside packages.",
severity: "error",
from: {},
to: { circular: true },
},
// --- Layering (optional, off by default) ----------------------------------
// Interface-hiding controls HOW you import (through the entry points).
// Layering controls WHICH packages may depend on which. Add your own rules
// here, e.g.:
//
// {
// name: "ui-may-not-depend-on-billing",
// severity: "error",
// from: { path: `^${R}/ui/` },
// to: { path: `^${R}/billing/` },
// },
],
options: {
doNotFollow: { path: "node_modules" },
tsConfig: { fileName: "tsconfig.json" },
enhancedResolveOptions: {
extensions: [".ts", ".tsx", ".js", ".jsx", ".json"],
},
},
};

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@@ -5,104 +5,32 @@ description: Test-driven development. Use when the user wants to build features
# Test-Driven Development
## Philosophy
TDD is the red → green loop. This skill is the reference that makes that loop produce tests worth keeping: what a good test is, where tests go, the anti-patterns, and the rules of the loop. Every section applies on every cycle — consult them before and during the loop, not after.
**Core principle**: Tests should verify behavior through public interfaces, not implementation details. Code can change entirely; tests shouldn't.
When exploring the codebase, read `CONTEXT.md` (if it exists) so test names and interface vocabulary match the project's domain language, and respect ADRs in the area you're touching.
**Good tests** are integration-style: they exercise real code paths through public APIs. They describe _what_ the system does, not _how_ it does it. A good test reads like a specification - "user can checkout with valid cart" tells you exactly what capability exists. These tests survive refactors because they don't care about internal structure.
## What a good test is
**Bad tests** are coupled to implementation. They mock internal collaborators, test private methods, or verify through external means (like querying a database directly instead of using the interface). The warning sign: your test breaks when you refactor, but behavior hasn't changed. If you rename an internal function and tests fail, those tests were testing implementation, not behavior.
Tests verify behavior through public interfaces, not implementation details. Code can change entirely; tests shouldn't. A good test reads like a specification — "user can checkout with valid cart" tells you exactly what capability exists — and survives refactors because it doesn't care about internal structure.
See [tests.md](tests.md) for examples and [mocking.md](mocking.md) for mocking guidelines.
## Anti-Pattern: Horizontal Slices
## Seams — where tests go
**DO NOT write all tests first, then all implementation.** This is "horizontal slicing" - treating RED as "write all tests" and GREEN as "write all code."
A **seam** is the public boundary you test at: the interface where you observe behavior without reaching inside. Tests live at seams, never against internals.
This produces **crap tests**:
**Test only at pre-agreed seams.** Before writing any test, write down the seams under test and confirm them with the user. No test is written at an unconfirmed seam. You can't test everything — agreeing the seams up front is how testing effort lands on the critical paths and complex logic instead of every edge case.
- Tests written in bulk test _imagined_ behavior, not _actual_ behavior
- You end up testing the _shape_ of things (data structures, function signatures) rather than user-facing behavior
- Tests become insensitive to real changes - they pass when behavior breaks, fail when behavior is fine
- You outrun your headlights, committing to test structure before understanding the implementation
Ask: "What's the public interface, and which seams should we test?"
**Correct approach**: Vertical slices via tracer bullets. One test → one implementation → repeat. Each test responds to what you learned from the previous cycle. Because you just wrote the code, you know exactly what behavior matters and how to verify it.
## Anti-patterns
```
WRONG (horizontal):
RED: test1, test2, test3, test4, test5
GREEN: impl1, impl2, impl3, impl4, impl5
- **Implementation-coupled** — mocks internal collaborators, tests private methods, or verifies through a side channel (querying the database instead of using the interface). The tell: the test breaks when you refactor but behavior hasn't changed.
- **Tautological** — the assertion recomputes the expected value the way the code does (`expect(add(a, b)).toBe(a + b)`, a snapshot derived by hand the same way, a constant asserted equal to itself), so it passes by construction and can never disagree with the code. Expected values must come from an independent source of truth — a known-good literal, a worked example, the spec.
- **Horizontal slicing** — writing all tests first, then all implementation. Bulk tests verify _imagined_ behavior: you test the _shape_ of things rather than user-facing behavior, the tests go insensitive to real changes, and you commit to test structure before understanding the implementation. Work in **vertical slices** instead — one test → one implementation → repeat, each test a **tracer bullet** that responds to what the last cycle taught you.
RIGHT (vertical):
RED→GREEN: test1→impl1
RED→GREEN: test2→impl2
RED→GREEN: test3→impl3
...
```
## Rules of the loop
## Workflow
### 1. Planning
When exploring the codebase, read `CONTEXT.md` (if it exists) so that test names and interface vocabulary match the project's domain language, and respect ADRs in the area you're touching.
Before writing any code:
- [ ] Confirm with user what interface changes are needed
- [ ] Confirm with user which behaviors to test (prioritize)
- [ ] Identify opportunities for deep modules (small interface, deep implementation) — run the `/codebase-design` skill for the vocabulary and the testability checks
- [ ] List the behaviors to test (not implementation steps)
- [ ] Get user approval on the plan
Ask: "What should the public interface look like? Which behaviors are most important to test?"
**You can't test everything.** Confirm with the user exactly which behaviors matter most. Focus testing effort on critical paths and complex logic, not every possible edge case.
### 2. Tracer Bullet
Write ONE test that confirms ONE thing about the system:
```
RED: Write test for first behavior → test fails
GREEN: Write minimal code to pass → test passes
```
This is your tracer bullet - proves the path works end-to-end.
### 3. Incremental Loop
For each remaining behavior:
```
RED: Write next test → fails
GREEN: Minimal code to pass → passes
```
Rules:
- One test at a time
- Only enough code to pass current test
- Don't anticipate future tests
- Keep tests focused on observable behavior
### 4. Refactor
After all tests pass, look for [refactor candidates](refactoring.md):
- [ ] Extract duplication
- [ ] Deepen modules (move complexity behind simple interfaces)
- [ ] Apply SOLID principles where natural
- [ ] Consider what new code reveals about existing code
- [ ] Run tests after each refactor step
**Never refactor while RED.** Get to GREEN first.
## Checklist Per Cycle
```
[ ] Test describes behavior, not implementation
[ ] Test uses public interface only
[ ] Test would survive internal refactor
[ ] Code is minimal for this test
[ ] No speculative features added
```
- **Red before green.** Write the failing test first, then only enough code to pass it. Don't anticipate future tests or add speculative features.
- **One slice at a time.** One seam, one test, one minimal implementation per cycle.
- **Refactoring is not part of the loop.** It belongs to the review stage (see the `code-review` skill), not the red → green implementation cycle.

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@@ -0,0 +1,3 @@
interface:
display_name: "TDD"
short_description: "Test-driven red-green-refactor"

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@@ -59,3 +59,19 @@ test("createUser makes user retrievable", async () => {
expect(retrieved.name).toBe("Alice");
});
```
**Tautological tests**: Expected value restates the implementation, so the test passes by construction.
```typescript
// BAD: Expected value is recomputed the way the code computes it
test("calculateTotal sums line items", () => {
const items = [{ price: 10 }, { price: 5 }];
const expected = items.reduce((sum, i) => sum + i.price, 0);
expect(calculateTotal(items)).toBe(expected);
});
// GOOD: Expected value is an independent, known literal
test("calculateTotal sums line items", () => {
expect(calculateTotal([{ price: 10 }, { price: 5 }])).toBe(15);
});
```

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@@ -0,0 +1,75 @@
---
name: to-spec
description: Turn the current conversation into a spec and publish it to the project issue tracker — no interview, just synthesis of what you've already discussed.
disable-model-invocation: true
---
This skill takes the current conversation context and codebase understanding and produces a spec (you may know this document as a PRD). Do NOT interview the user — just synthesize what you already know.
The issue tracker and triage label vocabulary should have been provided to you — run `/setup-matt-pocock-skills` if not.
## Process
1. Explore the repo to understand the current state of the codebase, if you haven't already. Use the project's domain glossary vocabulary throughout the spec, and respect any ADRs in the area you're touching.
2. Sketch out the seams at which you're going to test the feature. Existing seams should be preferred to new ones. Use the highest seam possible. If new seams are needed, propose them at the highest point you can. The fewer seams across the codebase, the better - the ideal number is one.
Check with the user that these seams match their expectations.
3. Write the spec using the template below, then publish it to the project issue tracker. Apply the `ready-for-agent` triage label - no need for additional triage.
<spec-template>
## Problem Statement
The problem that the user is facing, from the user's perspective.
## Solution
The solution to the problem, from the user's perspective.
## User Stories
A LONG, numbered list of user stories. Each user story should be in the format of:
1. As an <actor>, I want a <feature>, so that <benefit>
<user-story-example>
1. As a mobile bank customer, I want to see balance on my accounts, so that I can make better informed decisions about my spending
</user-story-example>
This list of user stories should be extremely extensive and cover all aspects of the feature.
## Implementation Decisions
A list of implementation decisions that were made. This can include:
- The modules that will be built/modified
- The interfaces of those modules that will be modified
- Technical clarifications from the developer
- Architectural decisions
- Schema changes
- API contracts
- Specific interactions
Do NOT include specific file paths or code snippets. They may end up being outdated very quickly.
Exception: if a prototype produced a snippet that encodes a decision more precisely than prose can (state machine, reducer, schema, type shape), inline it within the relevant decision and note briefly that it came from a prototype. Trim to the decision-rich parts — not a working demo, just the important bits.
## Testing Decisions
A list of testing decisions that were made. Include:
- A description of what makes a good test (only test external behavior, not implementation details)
- Which modules will be tested
- Prior art for the tests (i.e. similar types of tests in the codebase)
## Out of Scope
A description of the things that are out of scope for this spec.
## Further Notes
Any further notes about the feature.
</spec-template>

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@@ -0,0 +1,5 @@
interface:
display_name: "To Spec"
short_description: "Turn a conversation into a spec"
policy:
allow_implicit_invocation: false

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@@ -0,0 +1,107 @@
---
name: to-tickets
description: Break a plan, spec, or the current conversation into a set of tracer-bullet tickets, each declaring its blocking edges, published to the configured tracker — edges as text in one file per ticket locally, or native blocking links on a real tracker.
disable-model-invocation: true
---
# To Tickets
Break a plan, spec, or conversation into a set of **tickets** — tracer-bullet vertical slices, each declaring the tickets that **block** it.
The issue tracker and triage label vocabulary should have been provided to you — run `/setup-matt-pocock-skills` if not.
## Process
### 1. Gather context
Work from whatever is already in the conversation context. If the user passes a reference (a spec path, an issue number or URL) as an argument, fetch it and read its full body and comments.
### 2. Explore the codebase (optional)
If you have not already explored the codebase, do so to understand the current state of the code. Ticket titles and descriptions should use the project's domain glossary vocabulary, and respect ADRs in the area you're touching.
Look for opportunities to prefactor the code to make the implementation easier. "Make the change easy, then make the easy change."
### 3. Draft vertical slices
Break the work into **tracer bullet** tickets.
<vertical-slice-rules>
- Each slice cuts a narrow but COMPLETE path through every layer (schema, API, UI, tests) — vertical, NOT a horizontal slice of one layer
- A completed slice is demoable or verifiable on its own
- Each slice is sized to fit in a single fresh context window
- Any prefactoring should be done first
</vertical-slice-rules>
Give each ticket its **blocking edges** — the other tickets that must complete before it can start. A ticket with no blockers can start immediately.
**Wide refactors are the exception to vertical slicing.** A **wide refactor** is one mechanical change — rename a column, retype a shared symbol — whose **blast radius** fans across the whole codebase, so a single edit breaks thousands of call sites at once and no vertical slice can land green. Don't force it into a tracer bullet; sequence it as **expandcontract**. First expand: add the new form beside the old so nothing breaks. Then migrate the call sites over in batches sized by blast radius (per package, per directory), each batch its own ticket blocked by the expand, keeping CI green batch to batch because the old form still exists. Finally contract: delete the old form once no caller remains, in a ticket blocked by every migrate batch. When even the batches can't stay green alone, keep the sequence but let them share an integration branch that all block a final integrate-and-verify ticket — green is promised only there.
### 4. Quiz the user
Present the proposed breakdown as a numbered list. For each ticket, show:
- **Title**: short descriptive name
- **Blocked by**: which other tickets (if any) must complete first
- **What it delivers**: the end-to-end behaviour this ticket makes work
Ask the user:
- Does the granularity feel right? (too coarse / too fine)
- Are the blocking edges correct — does each ticket only depend on tickets that genuinely gate it?
- Should any tickets be merged or split further?
Iterate until the user approves the breakdown.
### 5. Publish the tickets to the configured tracker
Publish the approved tickets. **How** depends on the tracker `/setup-matt-pocock-skills` configured — the tickets are the same either way, only the shape of the blocking edges changes:
- **Local files** → write one file per ticket under `.scratch/<feature-slug>/issues/<NN>-<slug>.md`, numbered from `01` in dependency order (blockers first). Each file's "Blocked by" lists the numbers/titles it depends on. Use the per-ticket file template below — one ticket per file, never a single combined file.
- **A real issue tracker (GitHub, Linear, …)** → publish one issue per ticket in dependency order (blockers first) so each ticket's blocking edges can reference real identifiers. Use the platform's native blocking / sub-issue relationship where it has one; otherwise set each ticket's "Blocked by" to the blocking issues. Apply the `ready-for-agent` triage label unless instructed otherwise — the tickets are agent-grabbable by construction.
Work the **frontier**: any ticket whose blockers are all done. For a purely linear chain that means top to bottom.
Do NOT close or modify any parent issue.
<local-ticket-template>
# <NN> — <Ticket title>
**What to build:** the end-to-end behaviour this ticket makes work, from the user's perspective — not a layer-by-layer implementation list.
**Blocked by:** the numbers/titles of the tickets that gate this one, or "None — can start immediately".
**Status:** ready-for-agent
- [ ] Acceptance criterion 1
- [ ] Acceptance criterion 2
</local-ticket-template>
<issue-template>
## Parent
A reference to the parent issue on the tracker (if the source was an existing issue, otherwise omit this section).
## What to build
The end-to-end behaviour this ticket makes work, from the user's perspective — not layer-by-layer implementation.
## Acceptance criteria
- [ ] Criterion 1
- [ ] Criterion 2
## Blocked by
- A reference to each blocking ticket, or "None — can start immediately".
</issue-template>
In either form, avoid specific file paths or code snippets — they go stale fast. Exception: if a prototype produced a snippet that encodes a decision more precisely than prose can (state machine, reducer, schema, type shape), inline it and note briefly that it came from a prototype. Trim to the decision-rich parts — not a working demo, just the important bits.
Work the frontier one ticket at a time with `/implement`, clearing context between tickets.

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@@ -0,0 +1,5 @@
interface:
display_name: "To Tickets"
short_description: "Split a plan into tracer-bullet tickets"
policy:
allow_implicit_invocation: false

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@@ -1,9 +1,16 @@
---
name: wayfinder
description: Plan a huge chunk of work — more than one agent session can hold — as a shared map of investigation tickets on your issue tracker, and resolve them one at a time until the way to the goal is clear.
description: Plan a huge chunk of work — more than one agent session can hold — as a shared map of decision tickets on your issue tracker, and resolve them one at a time until the way to the destination is clear.
disable-model-invocation: true
---
A loose idea has arrived — too big for one agent session, and wrapped in fog: the route from here to a plan isn't visible yet. This skill charts it as a **shared map** on the repo's issue tracker, then works its tickets one at a time. The map is domain-agnostic — engineering work, course content, whatever fits the shape.
A loose idea has arrived — too big for one agent session, and wrapped in fog: the way from here to the **destination** isn't visible yet. Wayfinding is about finding that way, not charging at the destination. This skill charts the way as a **shared map** on the repo's issue tracker, then works its **decision tickets** — questions whose resolution is a decision, not slices of a build to execute — one at a time until the route is clear.
The destination varies per effort, and naming it is the first act of charting — it shapes every ticket. It might be a spec to hand off and iterate on, a decision to lock before planning starts, or a change made in place like a data-structure migration. The map is domain-agnostic — engineering work, course content, whatever fits the shape.
## Plan, don't do
Wayfinder is **planning** by default: each ticket resolves a decision, and the map is done when the way is clear — nothing left to decide before someone goes and does the thing. The pull to just do the work is usually the signal you've reached the edge of the map and it's time to hand off. An effort can override this in its **Notes** — carrying execution into the map itself — but absent that, produce decisions, not deliverables.
## Refer by name
@@ -15,13 +22,17 @@ The map is a single issue on this repo's issue tracker, labelled `wayfinder:map`
The map is an **index**, not a store. It lists the decisions made and points at the tickets that hold their detail; a decision lives in exactly one place — its ticket — so the map never restates it, only gists it and links.
**Where the map, its child tickets, blocking, and frontier queries physically live is tracker-specific.** Consult `docs/agents/issue-tracker.md` (the "Wayfinding operations" section) for how _this_ repo expresses them. If that doc is absent, default to the local-markdown tracker.
**Where the map, its child tickets, blocking, and frontier queries physically live is tracker-specific.** The issue tracker should have been provided to you — run `/setup-matt-pocock-skills` if not. Consult the tracker doc's "Wayfinding operations" section for how _this_ repo expresses them. If no tracker has been provided, default to the local-markdown tracker.
### The map body
The whole map at low resolution, loaded once per session. Open tickets are **not** listed — they are open child issues, found by query.
```markdown
## Destination
<what reaching the end of this map looks like — the spec, decision, or change this effort is finding its way to. One or two lines; every session orients to it before choosing a ticket.>
## Notes
<domain; skills every session should consult; standing preferences for this effort>
@@ -32,9 +43,13 @@ The whole map at low resolution, loaded once per session. Open tickets are **not
- [<closed ticket title>](link) — <one-line gist of the answer>
## Fog
## Not yet specified
<!-- see "Fog of war" for what belongs here -->
<!-- see "Fog of war": in-scope fog you can't ticket yet; graduates as the frontier advances -->
## Out of scope
<!-- see "Out of scope": work ruled beyond the destination; closed, never graduates -->
```
### Tickets
@@ -57,36 +72,48 @@ The answer isn't part of the body — it's recorded on resolution (see [Work thr
## Ticket Types
- **Research**: Reading documentation, third-party APIs, or local resources like knowledge bases. Creates a markdown summary as a linked asset. Use when knowledge outside the current working directory is required.
- **Prototype**: Raise the fidelity of the discussion by making a cheap, rough, concrete artifact to react to — an outline, a rough take, a stub, or UI/logic code via the /prototype skill. Links the prototype as an asset. Use when "how should it look" or "how should it behave" is the key question.
- **Grilling**: Conversation with the agent. Uses the /grilling and /domain-modeling skills. Asks one question at a time. The default case.
- **Task**: Literal manual work that must be done before the discussion can move forward — nothing to decide, prototype, or research. Moving data, signing up for a service, provisioning access. The agent automates it where it can; otherwise it hands the human a precise checklist. Resolved when the work is done; the answer records what was done and any resulting facts (credentials location, new URLs, row counts) later tickets depend on.
Every ticket is either **HITL** — human in the loop, worked *with* a human who speaks for themselves — or **AFK**, driven by the agent alone. A HITL ticket only resolves through that live exchange; the agent never stands in for the human's side of it (a grilling agent that answers its own questions has broken this).
- **Research** (AFK): Reading documentation, third-party APIs, or local resources like knowledge bases to surface a fact a decision waits on. Resolved by a `/research` **subagent**. Use when knowledge outside the current working directory is required.
- **Prototype** (HITL): Raise the fidelity of the discussion by making a cheap, rough, concrete artifact to react to — an outline, a rough take, a stub, or UI/logic code via the /prototype skill. Links the prototype as an asset. Use when "how should it look" or "how should it behave" is the key question.
- **Grilling** (HITL): Conversation via the /grilling and /domain-modeling skills, one question at a time. The default case.
- **Task** (HITL or AFK): Manual work that must happen before a *decision* can be made — nothing to decide, prototype, or research, but the discussion is blocked until it's done. Signing up for a service so its API can be judged, provisioning access, moving data so its shape can be seen. This is the one type that *does* rather than decides — and it earns its place by unblocking a decision, not by delivering the destination. The agent drives it alone where it can (AFK); otherwise it hands the human a precise checklist (HITL). Resolved when the work is done; the answer records what was done and any resulting facts (credentials location, new URLs, row counts) later tickets depend on.
## Fog of war
The map is _deliberately_ incomplete: don't chart what you can't yet see. Beyond the tickets lies fog — the dim view of decisions and investigations you can tell are coming but can't yet pin down, because they hang on questions still open. Resolving a ticket clears the fog ahead of it, graduating whatever's now specifiable into fresh tickets — one at a time, until the way to the goal is clear and no tickets remain.
The map is _deliberately_ incomplete: don't chart what you can't yet see. Beyond the live tickets lies the **fog of war** — the dim view of decisions and investigations you can tell are coming but can't yet pin down, because they hang on questions still open. Resolving a ticket clears the fog ahead of it, graduating whatever's now specifiable into fresh tickets — one at a time, until the way to the destination is clear and no tickets remain.
The map's **Fog** section is where that dim view is written down: the suspected question, the area to revisit later, the risk you're deferring. Write as loosely or as fully as the view allows; it doubles as a signpost for collaborators reading where the effort is headed.
The map's **Not yet specified** section is where that dim view is written down: the suspected question, the area to revisit later. It's the undiscovered frontier _toward_ the destination — everything here is in scope, just not sharp enough to ticket. Write as loosely or as fully as the view allows; it doubles as a signpost for collaborators reading where the effort is headed.
**Fog or ticket?** The test is whether you can state the question precisely now — _not_ whether you can answer it now.
- **Ticket when** the question is already sharp — even if it's blocked and you can't act on it yet.
- **Fog when** you can't yet phrase it that sharply. Don't pre-slice fog into ticket-sized pieces: it's coarser than a ticket, and one patch may graduate into several tickets, or none, once the frontier reaches it.
- **Not yet specified when** you can't yet phrase it that sharply. Don't pre-slice the fog into ticket-sized pieces: it's coarser than a ticket, and one patch may graduate into several tickets, or none, once the frontier reaches it.
Fog excludes only what's already decided (that's Decisions so far) and what's already a ticket.
**Not yet specified** excludes what's already decided (Decisions so far), what's already a live ticket, and what's out of scope (the next section).
## Out of scope
Fog only ever gathers _toward_ the destination. The destination fixes the scope, so work beyond it is **out of scope** — it isn't fog, and it doesn't belong in **Not yet specified**. It gets its own **Out of scope** section on the map: work you've consciously ruled out of _this_ effort. Scope, not sharpness, lands it here.
Out-of-scope work never graduates — the frontier stops at the destination — so it returns only if the destination is redrawn, and then as a fresh effort, not a resumption.
Ruling something out of scope is a scoping act, not a step on the route. When a ticket that already exists turns out to sit past the destination — mis-scoped in while charting, or exposed by a resolution — **close it** (a closed ticket is unambiguously off the frontier) and leave one line in the **Out of scope** section: the gist plus why it's out of scope, linking the closed ticket. It stays out of **Decisions so far**, which records the route actually walked — a scope boundary isn't a step on it.
## Invocation
Two modes. Either way, **never resolve more than one ticket per session.**
Two modes. Either way, **never resolve more than one ticket per session** — with the exception of research tickets.
### Chart the map
User invokes with a loose idea.
1. Run a `/grilling` and `/domain-modeling` session to surface the open decisions.
2. **Create the map** (label `wayfinder:map`): Notes filled in, Decisions-so-far empty, Fog sketched.
3. **Create the tickets you can specify now** as child issues of the map — then wire blocking edges in a **second pass** (issues need ids before they can reference each other). Wiring sorts them into the frontier and the blocked; everything you can't yet specify stays in the Fog.
4. Stop — charting the map is one session's work; do not also resolve tickets.
1. **Name the destination.** Run a `/grilling` and `/domain-modeling` session to pin down what this map is finding its way to — the spec, decision, or change. The destination fixes the scope, so it's settled first.
2. **Map the frontier.** Grill again, **breadth-first** this time: fan out across the whole space rather than deep on any one thread, surfacing the open decisions and the first steps takeable now. **If this surfaces no fog** — the way to the destination is already clear, the whole journey small enough for one session — you don't need a map. Stop and ask the user how they'd like to proceed.
3. **Create the map** (label `wayfinder:map`): Destination and Notes filled in, Decisions-so-far empty, the fog sketched into **Not yet specified**.
4. **Create the tickets you can specify now** as child issues of the map — then wire blocking edges in a **second pass** (issues need ids before they can reference each other). Wiring sorts them into the frontier and the blocked; everything you can't yet specify stays in the fog — the **Not yet specified** section.
5. **Fire the research subagents.** For each `research` ticket you just created, spin up a `/research` subagent to resolve it in parallel, capturing its findings on a throwaway `research/<name>` branch with a context pointer from the ticket.
6. Stop — charting is one session's work; it hand-resolves nothing.
### Work through the map
@@ -96,6 +123,6 @@ User invokes with a map (URL or number). A ticket is **optional** — without on
2. Choose the ticket. If the user named one, use it. Otherwise take the first frontier ticket in order. **Claim it**: assign it to yourself before any work.
3. Resolve it — **zoom as needed**: fetch the full body of any related or closed ticket on demand; invoke the skills the `## Notes` block names. If in doubt, use `/grilling` and `/domain-modeling`.
4. Record the resolution: post the answer as a **resolution comment**, **close** the issue, and **append a context pointer** to the map's Decisions-so-far.
5. Add newly-surfaced tickets (create-then-wire); graduate any fog the answer has made specifiable, clearing each graduated patch from the Fog so it lives only as its new ticket. If the decision invalidates other parts of the map, update or delete those tickets.
5. Add newly-surfaced tickets (create-then-wire); graduate any fog the answer has made specifiable, clearing each graduated patch from **Not yet specified** so it lives only as its new ticket. If the answer reveals a ticket — this one or another — sits beyond the destination, **rule it out of scope** rather than resolving it on the route. If the decision invalidates other parts of the map, update or delete those tickets.
The user may run unblocked tickets in parallel, so expect other sessions to be editing the tracker concurrently.

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@@ -0,0 +1,5 @@
interface:
display_name: "Wayfinder"
short_description: "Map a large effort as decision tickets"
policy:
allow_implicit_invocation: false

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@@ -158,6 +158,12 @@ _Failure mode._ Ending the current step before it is genuinely done, because the
_Avoid_: premature closure, the rush, rushing, shortcutting
### Negation
_Failure mode._ Steering by prohibition — telling the agent what _not_ to do — which drags the forbidden behaviour into context and makes it _more_ available, not less. _Don't think of an elephant_, and the elephant is all there is; _never write verbose comments_, and verbosity is the pattern the agent has just read. The negation is a weak modifier the strongly-activated concept overruns, so the ban half-reads as an instruction to do the thing. Its **leading word** is the _elephant_: whatever a prohibition names into the frame. Cure: prompt the **positive** — describe the target behaviour ("write one-line comments") so the banned one is never spoken. A prohibition earns its place only as a hard guardrail on a behaviour you cannot phrase positively; even then, pair it with the positive target so attention lands on what to do.
_Avoid_: ironic rebound, don't-prompting, the pink elephant
## Pruning
Keeping a skill lean — each remedy paired with the failure it cures.

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@@ -80,3 +80,4 @@ Use these to diagnose issues the user may be having with the skill.
- **Sediment** — stale layers that settle because adding feels safe and removing feels risky. The default fate of any skill without a pruning discipline.
- **Sprawl** — a skill simply too long, even when every line is live and unique. Hurts readability and maintainability and wastes tokens. The cure is the ladder: disclose **reference** behind pointers, and split by **branch** or sequence so each path carries only what it needs.
- **No-op** — a line the model already obeys by default, so you pay load to say nothing. The test: does it change behaviour versus the default? A weak leading word (_be thorough_ when the agent is already thorough-ish) is a no-op; the fix is a stronger word (_relentless_), not a different technique.
- **Negation** — steering by prohibition backfires: _don't think of an elephant_ names the elephant and makes it more available, not less. Prompt the **positive** — state the target behaviour so the banned one is never spoken; keep a prohibition only as a hard guardrail you can't phrase positively, and even then pair it with what to do instead.

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@@ -0,0 +1,5 @@
interface:
display_name: "Writing Great Skills"
short_description: "Principles for predictable skills"
policy:
allow_implicit_invocation: false

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@@ -2,6 +2,9 @@
- [Product selling points](product-selling-points.md) — key differentiators and landing page angles for neuron-tai
- [User profile](user-profile.md) — who Dobromir is and how to work with him
- [Project status](project-status.md) — 35/35 stories done; alpha hardening next
- **Alpha hardening** — `.scratch/alpha-hardening/` (22 issues, ADRs 00160019, [README](../.scratch/alpha-hardening/README.md), [handoff](../.scratch/alpha-hardening/handoff.md))
- [Project status](project-status.md) — US-001…US-035 done; US-036…US-050 in docs/prd.json; alpha hardening + scratch features next
- **Alpha hardening** — `.scratch/alpha-hardening/` (22 issues, ADRs 00160019, [README](../../.scratch/alpha-hardening/README.md), [handoff](../../.scratch/alpha-hardening/handoff.md))
- [Alpha hardening navigation](alpha-hardening-navigation.md) — locked fraud/auth decisions, Bucket-1 order, handoff pointers
- **Node capability admission** — `.scratch/node-capability-admission/` (P0 plan; [ADR-0023](../../docs/adr/0023-model-agnostic-node-capability-admission.md), [ADR-0026](../../docs/adr/0026-node-assignment-ownership-and-managed-placement.md))
- **Distributed relay performance** — relay `/rpc` requester sockets are persistent per Route Session and Activation Seam as of 2026-07-10; `request_id` remains unique per activation while `X-Meshnet-Session` remains stable for KV state. Next low-risk priorities: persistent direct/loopback HTTP, seam byte/latency telemetry, then trace-driven zstd tuning.
- **Distributed GGUF direction** — benchmark-gated native runtime: compare controlled Transformers/safetensors and whole-model llama.cpp lanes before expensive work; ship only for measured speed or model-fit advantage. Public parallelism is contiguous Shards in an Inference Route; concurrency comes from per-node continuous batching across isolated Route Sessions, while tensor/expert collectives stay inside optional trusted composite providers. Native data plane uses versioned Protobuf over long-lived gRPC/HTTP2 seam streams, with existing relay carrying the same opaque frames when needed. llama.cpp/GGML remains the substrate behind a project-owned standalone worker and small pinned fork; vLLM is an optional complete managed provider and concept donor, not a fork. Nakshatra, `prima.cpp`, `llama-gguf`, LiGGUF and historical GPUStack are source/test donors only. Active plan: [README](../../.scratch/distributed-gguf-runtime/README.md), [architecture](../../.scratch/distributed-gguf-runtime/architecture.md), [PRD](../../.scratch/distributed-gguf-runtime/PRD.md), [Ralph backlog](../../.scratch/distributed-gguf-runtime/prd.json). ADR: [0024](../../docs/adr/0024-distributed-gguf-runtime.md). Research: [landscape](../../docs/research/distributed-gguf-landscape.md), [GitHub follow-up](../../docs/research/distributed-gguf-github-followup.md), [vLLM](../../docs/research/vllm-distributed-gguf-assessment.md).

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@@ -20,13 +20,13 @@ Active workstream (started 2026-07-04): alpha hardening of the money/trust path.
**Launch-readiness grilling (2026-07-06):** Locked launch plan — devnet dev/test run now, then **real mainnet SOL/USDT** (not devnet, not a new public token) for the first cohort: friends (API clients) + hired VPS/VPC hosts (our own test infra, not third-party volunteers — stake-free, risk-free if something breaks, not a long-term topology). Pricing: clients are the only party spending real money; nodes only accumulate off-chain credit and get paid in batches (30min dev / 24h later) — a failed distribution leaves funds parked, not lost, so mainnet-vs-devnet mixups are lower-risk than initially assumed. TAI token: do NOT issue/list now — ADR-0002 already locks listing behind $50k volume + 25 nodes/15 wallets plus an unresolved securities-review gate; only a dormant mainnet mint (cheap, ~few $ SOL) for name/branding reservation is in scope, bundled with treasury-key work, not before it. Treasury custody: bare keypair file (current runbook 02) is not acceptable for real funds — plan is **free native SPL multisig** (`spl-token create-multisig`, no protocol fee unlike Squads' 0.5 SOL), 2-of-3 signers, at least one cold/offline, others one-per-hired-VPS-provider to avoid correlated compromise (not yet built — ops task, no issue filed). Stake/slash asymmetry (registry/slash is a local Python adapter per ADR-0007, not on-chain) accepted for now since hired hosts are our own infra and friends aren't node operators — revisit before opening to real third-party node operators. A mainnet-vs-devnet boot guardrail was proposed and explicitly declined by the owner given the safe-by-default money flow above.
**Two new issues from this session, both `ready-for-agent`:**
- **21 — Honest-noise calibration corpus** (`.scratch/alpha-hardening/issues/21-honest-noise-calibration-corpus.md`) rescoped from "prod gate" to a **hard alpha-release blocker**. Confirmed by code read: `verify_activation_proofs()` (`packages/validator/meshnet_validator/audit.py:94-127`) returns bool only, no raw divergence value; fleet-dispatch exists but wrong shape (`server.py:2998-3104`, pinned routes + latency, not full-fleet + TOPLOC divergence); storage wrong shape (`registry_events` has no divergence/hardware columns). Three-part build: (1) surface raw TOPLOC distance from audit.py, (2) extend dispatch to hit every registered node with fixed prompt/seed, (3) new SQLite table keyed by node+GPU+dtype. Small-fleet exception granted (N = actual hired-VPS fleet size). Hired VPS hosts stay stake-free until this closes.
- **23 — Dynamic HF-benchmarked pricing** (`.scratch/alpha-hardening/issues/23-dynamic-hf-pricing.md`), high priority but not a release blocker. Pricing today is 100% static (`DEFAULT_PRICE_PER_1K_TOKENS = 0.02`, `billing.py:21`; `model_presets.json` has no per-model price). Target: 80% of cheapest comparable provider on `https://huggingface.co/inference/models` (per-provider-per-model marketplace, `?search=` query param works, no confirmed JSON API — plain scrape attempted first, escalate to headless browser only if the table isn't in raw HTML). Human-verified `hf_aliases` + `hf_verified_match_note` (params/quantization) per model, not auto-discovered matching. Reuses the `_settlement_loop` daemon-thread pattern for a daily refresh; falls back silently to the static default on any failure.
**Two new issues from this session:**
- **21 — Honest-noise calibration corpus** `Status: ready-for-human` (engineering done 2026-07-06; blocked on human fleet calibration run before mainnet launch).
- **23 — Dynamic HF-benchmarked pricing** `Status: done` (see `23-dynamic-hf-pricing_completed.md`).
Both are already migrated into `.scratch/alpha-hardening/prd.json` (AH-021 updated, AH-023 added) and the README index — ready for Ralph to pick up unattended.
**Ralph note:** `scripts/ralph_progress.py` tracks `docs/prd.json` (35/35 done) and does NOT see `.scratch/alpha-hardening/issues/`. No ralph loop is running and no `.ralph-tui/` state exists. `.scratch/alpha-hardening/prd.json` now has 23 stories (AH-001…AH-023); point Ralph at that file for the alpha-hardening branch. Do NOT use `ralph auto --parallel` on server.py-touching issues — 21 and 23 both touch `server.py`/`billing.py`/`audit.py`; if run in the same Ralph pass, run them serially, not in parallel (merge-conflict risk, same lesson as 03/04 previously).
**Ralph note:** `scripts/ralph_progress.py` tracks `docs/prd.json` (US-001…US-047; base 35/35 done, friends-test arc 3647 open/in-progress). Alpha hardening uses `.scratch/alpha-hardening/prd.json` (AH-001…AH-023). Point Ralph at the prd.json for the branch you're running.
**Why:** three audits agreed the alpha blockers are unauthenticated gossip (anyone can inject billing events), the free-credit faucet, and ephemeral bans.
**How to apply:** work test-first per issue acceptance criteria; use `.venv`; `cryptography` belongs in node deps (wallet.py imports it — causes many of the 24 "failures" in a fresh env). See [[project-status]] and [[autonomous-work-style]].

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@@ -0,0 +1,29 @@
# DGR ROCm and llama.cpp setup
As of 2026-07-13:
- Project ROCm runtime: `/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv-rocm`
- ROCm/TheRock build: `7.13.0a20260513`, target `gfx1151`
- `rocm-sdk-devel` is installed. Its expanded SDK lives under the venv at
`site-packages/_rocm_sdk_devel`.
- The wheel's redundant packaged payload was relocated to
`/home/popov/.local/share/rocm-sdk/7.13.0a20260513/rocm_sdk_devel` and symlinked
back into the venv because installing both packaged and expanded forms filled
the mounted drive. Do not reinstall it blindly; the wheel expands beyond
20 GB.
- HIP llama.cpp source: `/run/media/popov/d/DEV/llamacpp/llama.cpp`, commit
`e920c523e3b8a0163fe498af5bf90df35ff51d25` (version 9991).
- HIP build: `/run/media/popov/d/DEV/llamacpp/llama.cpp/build-hip`
- HIP `llama-server` SHA-256:
`b6bb4da687dbde86e243ba006cef05919b7b97255cd7e2371e1d451220aca139`
- Verified device: `ROCm0: Radeon 8060S Graphics`, `gfx1151`.
- Model artifacts remain under `/run/media/popov/DATA/llm`; none were put under
`/home`.
DGR-001's immutable contract remains CPU-only. GPU evidence uses the distinct
signed `gpu-diagnostic` profile because llama-server process VRAM is not yet
measurable by the benchmark driver. The profile must capture measured
llama-server startup evidence for `ROCm0` and the actual offloaded/total layer
count; configured `device` and `n_gpu_layers` values alone are not evidence.
The accepted signer fingerprint is anchored in
`.scratch/distributed-gguf-runtime/trusted-evidence-signers.json`.

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@@ -6,7 +6,18 @@ metadata:
type: project
---
# Project Status (2026-07-02)
# Project Status (2026-07-13)
## Selected-node model placement (2026-07-14)
- Admin Model placement now opens a node selector for load and release; the control-plane accepts optional `node_id` and targets only that registry assignment. Multi-model serving remains supported through `ADD_SHARD` and `max_loaded_shards`.
- Total node pool resource values are rendered from `/v1/network/map`'s `node.capacity` contract. Route selection remains assignment/capability/throughput/queue based; capacity is used for placement and falls back to tracker defaults only if a node truly omits it.
## Distributed inference performance (2026-07-14)
`DIP-001` is done in `.scratch/distributed-inference-performance/`: the deterministic two-node Route Session stub benchmark covers direct/relay plus cached/stateless prefill and decode. Its JSON and concise summary explicitly attribute model execution, activation encode/decode, compression, connection setup, relay queueing, local HTTP forwarding, and end-to-end seam latency. `PYTHONPATH=packages/node pytest -q tests/test_route_session_benchmark.py` passed (7); the fixture assertion checks output-token identity and connection attempts.
> Doc reconciliation 2026-07-13: `docs/prd.json` tracks US-001…US-050 (048 memory budget, 049 mainnet pilot, 050 Qwen demand placement). ADRs 00250026 added (TAI phase B/C, assignment ownership).
All 35 user stories in docs/prd.json are done (35/35), including the reward-system arc US-030…US-035 completed 2026-07-02:
@@ -29,6 +40,14 @@ Implementation complete for alpha-scoped blockers in `.scratch/alpha-hardening/`
Historical handoff note: `/mnt/c/Users/popov/Downloads/neuron-tai-alpha-handoff-2026-07-04.md` is useful for navigation and original audit context, but it predates the completed `.scratch/alpha-hardening/` planning artifacts. Treat its "missing ADR/issues/README" statements as stale; prefer `.scratch/alpha-hardening/README.md` and `.scratch/alpha-hardening/handoff.md` for current task order.
## Node capability admission P0 (2026-07-09)
Planning is ready at `.scratch/node-capability-admission/` with five sequential Ralph stories and ADR-0023. The design is model-agnostic: a Node must validate its selected Model Artifact/shard with a bounded real forward before Tracker routing; Qwen3.6 is only an optional development fixture. P0 adds a versioned local recipe-manifest/report contract, `meshnet-node doctor`, fail-closed startup admission, and tracker route gating. It intentionally excludes dynamic recipe/dependency installation and the future signed Node updater.
## Gitea DGR sync (2026-07-17)
Gitea is ahead of the local Markdown backlog with open DGR-022..DGR-071. The first executable P0 dependency frontier is DGR-022 (Shard lifecycle and structured status RPCs), DGR-023 (reproducible protobuf generation), DGR-025 (artifact/runtime recipe identity), and DGR-027 (llama.cpp provenance manifest). DGR-021, the named-tensor stream envelope prerequisite for DGR-022/023/025, is closed. DGR-022 is the next dependency-ordered issue and blocks DGR-024, DGR-033, and DGR-037.
## Windows CUDA node (working as of 2026-07-01)
- miniforge3 base env, torch 2.7.1+cu118, torchvision 0.22.x+cu118
- RTX 4060 Laptop GPU, 8 GB VRAM, benchmark index ~11,200

15
.codex/hooks.json Normal file
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@@ -0,0 +1,15 @@
{
"hooks": {
"PostToolUse": [
{
"matcher": "Write|Edit",
"hooks": [
{
"type": "command",
"command": "bash -c 'SRC=\"/mnt/d/DEV/workspace/REPOS/git.d-popov.com/neuron-tai/.claude/memory\" && DST=\"/home/dev/.claude/projects/-mnt-d-DEV-workspace-REPOS-git-d-popov-com-neuron-tai/memory\" && mkdir -p \"$DST\" && rsync -a \"$SRC/\" \"$DST/\" 2>/dev/null; true'"
}
]
}
]
}
}

4
.gitignore vendored
View File

@@ -10,7 +10,8 @@ dist/
.venv/
# Ralph local runtime state
.ralph-tui/
.ralph-tui/*
!.ralph-tui/config.toml
.env
@@ -19,6 +20,7 @@ dist/
!.env.testnet
.rocm-local/*
.pytest-tmp/*
.cache/
# Local tracker/node sqlite databases (never commit runtime state)
*.sqlite

5
.opencode/opencode.json Normal file
View File

@@ -0,0 +1,5 @@
{
"plugin": [
".opencode/plugins/graphify.js"
]
}

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@@ -0,0 +1,30 @@
// graphify OpenCode plugin
// Injects a knowledge graph reminder before bash tool calls when the graph exists.
//
// IMPORTANT: keep the reminder string free of backticks and $(...) constructs.
// The hook prepends `echo "<reminder>" && <cmd>` to the user's bash command;
// backticks inside the double-quoted echo trigger bash command substitution,
// which both corrupts tool output and silently executes the very graphify
// command we are only suggesting. Plain words render fine in opencode's TUI.
import { existsSync } from "fs";
import { join } from "path";
export const GraphifyPlugin = async ({ directory }) => {
let reminded = false;
return {
"tool.execute.before": async (input, output) => {
if (reminded) return;
if (!existsSync(join(directory, "graphify-out", "graph.json"))) return;
if (input.tool === "bash") {
// ';' not '&&' — Windows PowerShell 5.1 rejects '&&' as a statement
// separator, breaking the first bash command of the session (#1646).
output.args.command =
'echo "[graphify] knowledge graph at graphify-out/. For focused questions, run graphify query with your question (scoped subgraph, usually much smaller than GRAPH_REPORT.md) instead of grepping raw files. Read GRAPH_REPORT.md only for broad architecture context." ; ' +
output.args.command;
reminded = true;
}
},
};
};

View File

@@ -0,0 +1 @@
0.9.29

View File

@@ -0,0 +1,694 @@
---
name: graphify
description: "Use for any question about a codebase, its architecture, file relationships, or project content — especially when graphify-out/ exists, where the question should be treated as a graphify query first. Turns any input (code, docs, papers, images, videos) into a persistent knowledge graph with god nodes, community detection, and query/path/explain tools."
---
# /graphify
Turn any folder of files into a navigable knowledge graph with community detection, an honest audit trail, and three outputs: interactive HTML, GraphRAG-ready JSON, and a plain-language GRAPH_REPORT.md.
## Usage
```
/graphify # full pipeline on current directory (HTML viz; add --obsidian for a vault)
/graphify <path> # full pipeline on specific path
/graphify https://github.com/<owner>/<repo> # clone repo then run full pipeline on it
/graphify https://github.com/<owner>/<repo> --branch <branch> # clone a specific branch
/graphify <url1> <url2> ... # clone multiple repos, build each, merge into one cross-repo graph
/graphify <path> --mode deep # thorough extraction, richer INFERRED edges
/graphify <path> --update # incremental - re-extract only new/changed files
/graphify <path> --directed # build directed graph (preserves edge direction: source→target)
/graphify <path> --whisper-model medium # use a larger Whisper model for better transcription accuracy
/graphify <path> --cluster-only # rerun clustering on existing graph
/graphify <path> --no-viz # skip visualization, just report + JSON
/graphify <path> --html # (HTML is generated by default - this flag is a no-op)
/graphify <path> --svg # also export graph.svg (embeds in Notion, GitHub)
/graphify <path> --graphml # export graph.graphml (Gephi, yEd)
/graphify <path> --neo4j # generate graphify-out/cypher.txt for Neo4j
/graphify <path> --neo4j-push bolt://localhost:7687 # push directly to Neo4j
/graphify <path> --falkordb # generate graphify-out/cypher.txt for FalkorDB
/graphify <path> --falkordb-push falkordb://localhost:6379 # push directly to FalkorDB
/graphify <path> --mcp # start MCP stdio server for agent access
/graphify <path> --watch # watch folder, auto-rebuild on code changes (no LLM needed)
/graphify <path> --wiki # build agent-crawlable wiki (index.md + one article per community)
/graphify <path> --obsidian --obsidian-dir ~/vaults/my-project # write vault to custom path (e.g. existing vault)
/graphify add <url> # fetch URL, save to ./raw, update graph
/graphify add <url> --author "Name" # tag who wrote it
/graphify add <url> --contributor "Name" # tag who added it to the corpus
/graphify query "<question>" # BFS traversal - broad context
/graphify query "<question>" --dfs # DFS - trace a specific path
/graphify query "<question>" --budget 1500 # cap answer at N tokens
/graphify path "AuthModule" "Database" # shortest path between two concepts
/graphify explain "SwinTransformer" # plain-language explanation of a node
```
## What graphify is for
Drop any folder of code, docs, papers, images, or video into graphify and get a queryable knowledge graph. Persistent across sessions, honest audit trail (EXTRACTED/INFERRED/AMBIGUOUS), community detection surfaces cross-document connections you wouldn't think to ask about.
## What You Must Do When Invoked
If the user invoked `/graphify --help` or `/graphify -h` (with no other arguments), print the contents of the `## Usage` section above verbatim and stop. Do not run any commands, do not detect files, do not default the path to `.`. Just print the Usage block and return.
**Fast path — existing graph:** Before doing anything else, check whether `graphify-out/graph.json` exists. The expected location is `graphify-out/graph.json` relative to the **current working directory** (i.e. the project root where you are running commands). If it exists AND the user's request is a natural-language question about the codebase (e.g. "How does X work?", "What calls Y?", "Trace the data flow through Z") and NOT an explicit rebuild command (`--update`, `--cluster-only`, or a bare path/URL that implies fresh extraction): **skip Steps 15 entirely and jump straight to `## For /graphify query`.** Run `graphify query "<question>"` immediately. Do not run detect. Do not check corpus size. Do not ask the user to narrow. The graph is already built — use it.
If no path was given, use `.` (current directory). Do not ask the user for a path.
If the path argument starts with `https://github.com/` or `http://github.com/`, treat it as a GitHub URL - run Step 0 before anything else, then continue with the resolved local path.
Follow these steps in order. Do not skip steps.
### Step 0 - GitHub repos and multi-path merge (only if a URL or several paths)
Only when the path is one or more `https://github.com/...` URLs, or several local subfolders to merge. See `references/github-and-merge.md` for the clone, cross-repo merge, and monorepo flow, then continue with the resolved local path. A plain local path skips this step.
### Step 1 - Ensure graphify is installed
```bash
# Detect the correct Python interpreter (handles uv tool, pipx, venv, system installs)
PYTHON=""
GRAPHIFY_BIN=$(which graphify 2>/dev/null)
# 1. uv tool installs — most reliable on modern Mac/Linux
if [ -z "$PYTHON" ] && command -v uv >/dev/null 2>&1; then
_UV_PY=$(uv tool run --from graphifyy python -c "import sys; print(sys.executable)" 2>/dev/null)
if [ -n "$_UV_PY" ]; then PYTHON="$_UV_PY"; fi
fi
# 2. Read shebang from graphify binary (pipx and direct pip installs)
if [ -z "$PYTHON" ] && [ -n "$GRAPHIFY_BIN" ]; then
_SHEBANG=$(head -1 "$GRAPHIFY_BIN" | tr -d '#!')
case "$_SHEBANG" in
*[!a-zA-Z0-9/_.@-]*) ;;
*) "$_SHEBANG" -c "import graphify" 2>/dev/null && PYTHON="$_SHEBANG" ;;
esac
fi
# 3. Fall back to python3
if [ -z "$PYTHON" ]; then PYTHON="python3"; fi
if ! "$PYTHON" -c "import graphify" 2>/dev/null; then
if command -v uv >/dev/null 2>&1; then
uv tool install --upgrade graphifyy -q 2>&1 | tail -3
_UV_PY=$(uv tool run --from graphifyy python -c "import sys; print(sys.executable)" 2>/dev/null)
if [ -n "$_UV_PY" ]; then PYTHON="$_UV_PY"; fi
else
"$PYTHON" -m pip install graphifyy -q 2>/dev/null \
|| "$PYTHON" -m pip install graphifyy -q --break-system-packages 2>&1 | tail -3
fi
fi
# Write interpreter path for all subsequent steps (persists across invocations)
mkdir -p graphify-out
"$PYTHON" -c "import sys; open('graphify-out/.graphify_python', 'w', encoding='utf-8').write(sys.executable)"
# Save scan root so `graphify update` (no args) knows where to look next time
echo "$(cd INPUT_PATH && pwd)" > graphify-out/.graphify_root
```
If the import succeeds, print nothing and move straight to Step 2.
**In every subsequent bash block, replace `python3` with `$(cat graphify-out/.graphify_python)` to use the correct interpreter.**
### Step 2 - Detect files
```bash
$(cat graphify-out/.graphify_python) -c "
import json
from graphify.detect import detect
from pathlib import Path
result = detect(Path('INPUT_PATH'))
print(json.dumps(result, ensure_ascii=False))
" > graphify-out/.graphify_detect.json
```
Replace INPUT_PATH with the actual path the user provided. Do NOT cat or print the JSON - read it silently and present a clean summary instead:
```
Corpus: X files · ~Y words
code: N files (.py .ts .go ...)
docs: N files (.md .txt ...)
papers: N files (.pdf ...)
images: N files
video: N files (.mp4 .mp3 ...)
```
Omit any category with 0 files from the summary.
Then act on it:
- If `total_files` is 0: stop with "No supported files found in [path]."
- If `skipped_sensitive` is non-empty: report the count and list the skipped file names, so a wrongly-flagged source or doc is visible and can be renamed or moved (#2106).
- If `total_words` > 2,000,000 OR `total_files` > 500: show the warning. Then compute the top 5 first-level subdirectories by file count:
- Read `scan_root` from the detect JSON (always an absolute path to the resolved INPUT_PATH).
- Concatenate all file lists across all types (`code`, `document`, `paper`, `image`, `video`).
- Filter out any path that starts with `scan_root + "/graphify-out/"` to exclude converted sidecars.
- For each file, strip the `scan_root` prefix and take the first path component. Files directly in `scan_root` with no subdirectory count as `(root)`.
- If all files are in `(root)` with no subdirectories, do not ask to narrow — no subfolders exist. Instead suggest `--no-cluster` to skip the expensive clustering step and proceed.
- Otherwise rank by count, show the top 5 with file counts, then ask which subfolder to run on. Wait for the user's answer before proceeding.
- Otherwise: proceed directly to Step 2.5 if video files were detected, or Step 3 if not.
### Step 2.5 - Video and audio (only if video files detected)
Skip this step entirely if `detect` returned zero `video` files. When the corpus has video or audio, see `references/transcribe.md` to transcribe them to text first, then treat the transcripts as doc files in Step 3.
### Step 3 - Extract entities and relationships
**Before starting:** note whether `--mode deep` was given. You must pass `DEEP_MODE=true` to every subagent in Step B2 if it was. Track this from the original invocation - do not lose it.
This step has two parts: **structural extraction** (deterministic, free) and **semantic extraction** (LLM, costs tokens).
> **graphify needs no API key. Never ask the user for one, and never block on one.** Code is extracted structurally (AST) with no LLM and no key at all — a code-only corpus (the common `/graphify .` on a repo) skips semantic extraction entirely, so it needs nothing here: go straight to Part A and skip Part B. Semantic extraction (only for docs, papers, and images) uses Gemini **only if** `GEMINI_API_KEY`/`GOOGLE_API_KEY` is already set; otherwise the host agent itself is the LLM. graphify does **not** read `ANTHROPIC_API_KEY`, `OPENAI_API_KEY`, or any other provider key. If you catch yourself about to prompt for, wait on, or stop because of a missing API key, that is a misread of this skill — proceed without one.
**Before semantic extraction:** check whether `GEMINI_API_KEY` or `GOOGLE_API_KEY` is set. If neither is set, print this one-liner to the user:
> Tip: set `GEMINI_API_KEY` or `GOOGLE_API_KEY` to use Gemini for semantic extraction (`pip install 'graphifyy[gemini]'`).
Print it once, then continue — do not wait for the user to supply a key. If `GEMINI_API_KEY` or `GOOGLE_API_KEY` IS set, use `graphify.llm.extract_corpus_parallel(files, backend="gemini")` for semantic extraction instead of dispatching subagents. The default Gemini model is `gemini-3-flash-preview`; set `GRAPHIFY_GEMINI_MODEL` or pass `--model` in headless CLI flows to override it.
> **No other API keys are read.** When `GEMINI_API_KEY`/`GOOGLE_API_KEY` are unset, semantic extraction falls to the host agent itself — the running session is the LLM. On a host that dispatches subagents (e.g. Claude Code), dispatch them as written in Part B. On a host that runs the CLI directly in a terminal and cannot dispatch subagents, do not stall: a code-only corpus has no semantic work, so write the empty semantic file (Part B "Fast path") and continue to Part C; for a corpus with docs/papers/images, either set a Gemini key or extract those inline yourself, but in no case prompt for `ANTHROPIC_API_KEY` — that prompt is a misread of this skill.
**Run Part A (AST) and Part B (semantic) in parallel. Dispatch all semantic subagents AND start AST extraction in the same message. Both can run simultaneously since they operate on different file types. Merge results in Part C as before.**
Note: Parallelizing AST + semantic saves 5-15s on large corpora. AST is deterministic and fast; start it while subagents are processing docs/papers.
#### Part A - Structural extraction for code files
For any code files detected, run AST extraction in parallel with Part B subagents:
```bash
$(cat graphify-out/.graphify_python) -c "
import sys, json
from graphify.extract import collect_files, extract
from pathlib import Path
import json
code_files = []
detect = json.loads(Path('graphify-out/.graphify_detect.json').read_text(encoding=\"utf-8\"))
for f in detect.get('files', {}).get('code', []):
code_files.extend(collect_files(Path(f)) if Path(f).is_dir() else [Path(f)])
if code_files:
result = extract(code_files, cache_root=Path('INPUT_PATH'))
Path('graphify-out/.graphify_ast.json').write_text(json.dumps(result, indent=2, ensure_ascii=False), encoding=\"utf-8\")
print(f'AST: {len(result[\"nodes\"])} nodes, {len(result[\"edges\"])} edges')
else:
Path('graphify-out/.graphify_ast.json').write_text(json.dumps({'nodes':[],'edges':[],'input_tokens':0,'output_tokens':0}, ensure_ascii=False), encoding=\"utf-8\")
print('No code files - skipping AST extraction')
"
```
#### Part B - Semantic extraction (parallel subagents)
**Fast path:** If detection found zero docs, papers, and images (code-only corpus), skip Part B entirely and go straight to Part C. AST handles code - there is nothing for semantic subagents to do. **First write an empty semantic file** so Part C's merge has its input (it reads `.graphify_semantic.json` unconditionally; without this a code-only run hits `FileNotFoundError`):
```bash
$(cat graphify-out/.graphify_python) -c "
import json
from pathlib import Path
Path('graphify-out/.graphify_semantic.json').write_text(json.dumps({'nodes':[],'edges':[],'hyperedges':[],'input_tokens':0,'output_tokens':0}), encoding='utf-8')
"
```
**MANDATORY: You MUST use the Agent tool here. Reading files yourself one-by-one is forbidden - it is 5-10x slower. If you do not use the Agent tool you are doing this wrong.**
Before dispatching subagents, print a timing estimate:
- Load `total_words` and file counts from `graphify-out/.graphify_detect.json`
- Estimate agents needed: `ceil(uncached_non_code_files / 22)` (chunk size is 20-25)
- Estimate time: ~45s per agent batch (they run in parallel, so total ≈ 45s × ceil(agents/parallel_limit))
- Print: "Semantic extraction: ~N files → X agents, estimated ~Ys"
**Step B0 - Check extraction cache first**
Before dispatching any subagents, check which files already have cached extraction results:
SPEC_PATH below is the **absolute** path of the `references/extraction-spec.md` that ships beside this SKILL.md — the same file Step B2 loads and hands to every subagent. It is the extraction prompt, so cache entries are attributed to it: when a graphify upgrade changes the prompt, entries produced by the old one are re-extracted instead of replayed, and unchanged prompts keep their entries (#1939). Substitute the real path in both Step B0 and Step B3 — pass the same one to each, and do not drop the argument.
```bash
$(cat graphify-out/.graphify_python) -c "
import json
from graphify.cache import check_semantic_cache
from pathlib import Path
detect = json.loads(Path('graphify-out/.graphify_detect.json').read_text(encoding=\"utf-8\"))
# Only content files go to semantic extraction. Code is already covered structurally
# by the AST pass (Part A); flattening every category here makes subagents re-read
# every source file (#1392). Video is transcribed to a document in Step 2.5 first.
all_files = [f for cat in ('document', 'paper', 'image') for f in detect['files'].get(cat, [])]
cached_nodes, cached_edges, cached_hyperedges, uncached = check_semantic_cache(all_files, root='INPUT_PATH', prompt_file='SPEC_PATH')
# Always (re)write the cache file: write hits, else DELETE any leftover from a prior
# run so Part C never merges a stale .graphify_cached.json (#1392).
if cached_nodes or cached_edges or cached_hyperedges:
Path('graphify-out/.graphify_cached.json').write_text(json.dumps({'nodes': cached_nodes, 'edges': cached_edges, 'hyperedges': cached_hyperedges}, ensure_ascii=False), encoding=\"utf-8\")
else:
Path('graphify-out/.graphify_cached.json').unlink(missing_ok=True)
Path('graphify-out/.graphify_uncached.txt').write_text('\n'.join(uncached), encoding=\"utf-8\")
print(f'Cache: {len(all_files)-len(uncached)} files hit, {len(uncached)} files need extraction')
"
```
Only dispatch subagents for files listed in `graphify-out/.graphify_uncached.txt`. If all files are cached, skip to Part C directly.
**Step B1 - Split into chunks**
Load files from `graphify-out/.graphify_uncached.txt`. Split into chunks of 20-25 files each. Each image gets its own chunk (vision needs separate context). When splitting, group files from the same directory together so related artifacts land in the same chunk and cross-file relationships are more likely to be extracted.
**Step B2 - Dispatch ALL subagents in a single message (OpenCode)**
> **OpenCode platform:** Uses `@mention` dispatch instead of the Agent tool. All mentions in a single message run in parallel.
Dispatch one `@mention` per chunk — ALL in the same response:
```
@agent Chunk CHUNK_NUM of TOTAL_CHUNKS: [extraction prompt with FILE_LIST, CHUNK_NUM, TOTAL_CHUNKS, DEEP_MODE substituted]
@agent Chunk 2 of TOTAL_CHUNKS: [next chunk]
```
Wait for all agents to return. Parse each response as JSON. Accumulate nodes/edges/hyperedges across all results and write to `graphify-out/.graphify_semantic_new.json`. If the `@agent` path cannot write chunk files, fall back to the serial path that writes each `graphify-out/.graphify_chunk_NN.json` before merge.
Subagent prompt template:
See `references/extraction-spec.md` for the exact subagent prompt (JSON schema, node-ID rules, confidence rubric, hyperedge, and vision rules). Load it only here, only when at least one chunk holds a doc, paper, or image; a pure-code corpus has skipped Part B and never reads it. Pass each agent that prompt verbatim with FILE_LIST, CHUNK_NUM, TOTAL_CHUNKS, and DEEP_MODE substituted.
**Step B3 - Collect, cache, and merge**
Wait for all subagents. For each result:
- Check that `graphify-out/.graphify_chunk_NN.json` exists on disk — this is the success signal
- If the file exists and contains valid JSON with `nodes` and `edges`, include it and save to cache
- If the file is missing, the subagent was likely dispatched as read-only (Explore type) — print a warning: "chunk N missing from disk — subagent may have been read-only. Re-run with general-purpose agent." Do not silently skip.
- If a subagent failed or returned invalid JSON, print a warning and skip that chunk - do not abort
If more than half the chunks failed or are missing, stop and tell the user to re-run and ensure `subagent_type="general-purpose"` is used.
Merge all chunk files into `.graphify_semantic_new.json`. **After each Agent call completes, read the real token counts from the Agent tool result's `usage` field and write them back into the chunk JSON before merging** — the chunk JSON itself always has placeholder zeros. Then run:
```bash
$(cat graphify-out/.graphify_python) -c "
import json, glob
from pathlib import Path
chunks = sorted(glob.glob('graphify-out/.graphify_chunk_*.json'))
all_nodes, all_edges, all_hyperedges = [], [], []
total_in, total_out = 0, 0
for c in chunks:
d = json.loads(Path(c).read_text(encoding=\"utf-8\"))
all_nodes += d.get('nodes', [])
all_edges += d.get('edges', [])
all_hyperedges += d.get('hyperedges', [])
total_in += d.get('input_tokens', 0)
total_out += d.get('output_tokens', 0)
Path('graphify-out/.graphify_semantic_new.json').write_text(json.dumps({
'nodes': all_nodes, 'edges': all_edges, 'hyperedges': all_hyperedges,
'input_tokens': total_in, 'output_tokens': total_out,
}, indent=2, ensure_ascii=False), encoding=\"utf-8\")
print(f'Merged {len(chunks)} chunks: {total_in:,} in / {total_out:,} out tokens')
"
```
Save new results to cache. Pass the same SPEC_PATH as Step B0 — it stamps each entry with the prompt that produced it, and a write under a different prompt than the read lands where the next run won't look (#1939):
```bash
$(cat graphify-out/.graphify_python) -c "
import json
from graphify.cache import save_semantic_cache
from pathlib import Path
new = json.loads(Path('graphify-out/.graphify_semantic_new.json').read_text(encoding=\"utf-8\")) if Path('graphify-out/.graphify_semantic_new.json').exists() else {'nodes':[],'edges':[],'hyperedges':[]}
uncached = [line for line in Path('graphify-out/.graphify_uncached.txt').read_text(encoding=\"utf-8\").splitlines() if line]
saved = save_semantic_cache(new.get('nodes', []), new.get('edges', []), new.get('hyperedges', []), root='INPUT_PATH', allowed_source_files=uncached, prompt_file='SPEC_PATH')
print(f'Cached {saved} files')
"
```
Merge cached + new results into `graphify-out/.graphify_semantic.json`:
```bash
$(cat graphify-out/.graphify_python) -c "
import json
from pathlib import Path
cached = json.loads(Path('graphify-out/.graphify_cached.json').read_text(encoding=\"utf-8\")) if Path('graphify-out/.graphify_cached.json').exists() else {'nodes':[],'edges':[],'hyperedges':[]}
new = json.loads(Path('graphify-out/.graphify_semantic_new.json').read_text(encoding=\"utf-8\")) if Path('graphify-out/.graphify_semantic_new.json').exists() else {'nodes':[],'edges':[],'hyperedges':[]}
all_nodes = cached['nodes'] + new.get('nodes', [])
all_edges = cached['edges'] + new.get('edges', [])
all_hyperedges = cached.get('hyperedges', []) + new.get('hyperedges', [])
seen = set()
deduped = []
for n in all_nodes:
if n['id'] not in seen:
seen.add(n['id'])
deduped.append(n)
merged = {
'nodes': deduped,
'edges': all_edges,
'hyperedges': all_hyperedges,
'input_tokens': new.get('input_tokens', 0),
'output_tokens': new.get('output_tokens', 0),
}
Path('graphify-out/.graphify_semantic.json').write_text(json.dumps(merged, indent=2, ensure_ascii=False), encoding=\"utf-8\")
print(f'Extraction complete - {len(deduped)} nodes, {len(all_edges)} edges ({len(cached[\"nodes\"])} from cache, {len(new.get(\"nodes\",[]))} new)')
"
```
Clean up temp files: `rm -f graphify-out/.graphify_cached.json graphify-out/.graphify_uncached.txt graphify-out/.graphify_semantic_new.json`
#### Part C - Merge AST + semantic into final extraction
```bash
$(cat graphify-out/.graphify_python) -c "
import sys, json
from pathlib import Path
ast = json.loads(Path('graphify-out/.graphify_ast.json').read_text(encoding=\"utf-8\"))
sem = json.loads(Path('graphify-out/.graphify_semantic.json').read_text(encoding=\"utf-8\"))
# Merge: AST nodes first, semantic nodes deduplicated by id
seen = {n['id'] for n in ast['nodes']}
merged_nodes = list(ast['nodes'])
for n in sem['nodes']:
if n['id'] not in seen:
merged_nodes.append(n)
seen.add(n['id'])
merged_edges = ast['edges'] + sem['edges']
merged_hyperedges = sem.get('hyperedges', [])
merged = {
'nodes': merged_nodes,
'edges': merged_edges,
'hyperedges': merged_hyperedges,
'input_tokens': sem.get('input_tokens', 0),
'output_tokens': sem.get('output_tokens', 0),
}
Path('graphify-out/.graphify_extract.json').write_text(json.dumps(merged, indent=2, ensure_ascii=False), encoding=\"utf-8\")
total = len(merged_nodes)
edges = len(merged_edges)
print(f'Merged: {total} nodes, {edges} edges ({len(ast[\"nodes\"])} AST + {len(sem[\"nodes\"])} semantic)')
"
```
### Step 4 - Build graph, cluster, analyze, generate outputs
**Before starting:** the code blocks below pass `directed=IS_DIRECTED` to `build_from_json()`. Replace `IS_DIRECTED` with `True` if `--directed` was given (builds a `DiGraph` preserving edge direction source→target), otherwise `False` (the default undirected `Graph`). Substitute it the same way you substitute `INPUT_PATH` — do not leave the literal `IS_DIRECTED` in the code.
```bash
mkdir -p graphify-out
$(cat graphify-out/.graphify_python) -c "
import sys, json
from graphify.build import build_from_json
from graphify.cluster import cluster, score_all
from graphify.analyze import god_nodes, surprising_connections, suggest_questions
from graphify.report import generate
from graphify.export import to_json
from pathlib import Path
extraction = json.loads(Path('graphify-out/.graphify_extract.json').read_text(encoding=\"utf-8\"))
detection = json.loads(Path('graphify-out/.graphify_detect.json').read_text(encoding=\"utf-8\"))
# root= mirrors the --update runbook (#1361): relativize source_file to the same
# base so the full build and incremental --update never drift apart on re-extract.
G = build_from_json(extraction, root='INPUT_PATH', directed=IS_DIRECTED)
# Guard BEFORE any write: an empty extraction must not clobber a good graph.json /
# GRAPH_REPORT.md / analysis sidecar. Check immediately after build (#1392).
if G.number_of_nodes() == 0:
print('ERROR: Graph is empty - extraction produced no nodes.')
print('Possible causes: all files were skipped, binary-only corpus, or extraction failed.')
raise SystemExit(1)
communities = cluster(G)
cohesion = score_all(G, communities)
tokens = {'input': extraction.get('input_tokens', 0), 'output': extraction.get('output_tokens', 0)}
gods = god_nodes(G)
surprises = surprising_connections(G, communities)
labels = {cid: 'Community ' + str(cid) for cid in communities}
# Placeholder questions - regenerated with real labels in Step 5
questions = suggest_questions(G, communities, labels)
# Export FIRST and honor the #479 shrink-guard: to_json returns False (writing
# nothing) when the new graph is smaller than the existing graph.json. Only write
# GRAPH_REPORT.md + the analysis sidecar when the graph was actually written, so
# they never describe a graph that graph.json doesn't contain (#1392).
wrote = to_json(G, communities, 'graphify-out/graph.json')
if not wrote:
print('ERROR: refused to shrink graphify-out/graph.json (existing graph has more nodes; #479).')
print('If this shrink is intentional (you deleted files), re-run a full build with --force.')
raise SystemExit(1)
report = generate(G, communities, cohesion, labels, gods, surprises, detection, tokens, 'INPUT_PATH', suggested_questions=questions)
Path('graphify-out/GRAPH_REPORT.md').write_text(report, encoding=\"utf-8\")
analysis = {
'communities': {str(k): v for k, v in communities.items()},
'cohesion': {str(k): v for k, v in cohesion.items()},
'gods': gods,
'surprises': surprises,
'questions': questions,
}
Path('graphify-out/.graphify_analysis.json').write_text(json.dumps(analysis, indent=2, ensure_ascii=False), encoding=\"utf-8\")
print(f'Graph: {G.number_of_nodes()} nodes, {G.number_of_edges()} edges, {len(communities)} communities')
"
```
If this step prints `ERROR: Graph is empty`, stop and tell the user what happened - do not proceed to labeling or visualization.
Replace INPUT_PATH with the actual path.
### Step 4.5 - Graph health check (read-only integrity gate)
A non-destructive diagnostic on the extraction, before labeling. It surfaces edge collapse, dangling/missing endpoints, and self-loops — the silent-corruption modes of incremental updates and AST/LLM id mismatches. Read-only; never aborts.
```bash
$(cat graphify-out/.graphify_python) -c "
import json
from pathlib import Path
from graphify.diagnostics import diagnose_extraction, format_diagnostic_report
extraction = json.loads(Path('graphify-out/.graphify_extract.json').read_text(encoding=\"utf-8\"))
summary = diagnose_extraction(extraction, directed=IS_DIRECTED, root='INPUT_PATH')
print(format_diagnostic_report(summary))
flags = [f'{summary[k]} {label}' for k, label in (
('dangling_endpoint_edges', 'dangling-endpoint edges'),
('missing_endpoint_edges', 'missing-endpoint edges'),
('self_loop_edges', 'self-loop edges'),
('directed_same_endpoint_collapsed_edges', 'collapsed (directed) edges'),
('undirected_same_endpoint_collapsed_edges', 'collapsed (undirected) edges'),
) if summary.get(k, 0)]
print('GRAPH HEALTH WARNING: ' + '; '.join(flags) + ' - graph may be incomplete/corrupt.' if flags else 'Graph health: OK (no dangling/missing/collapsed edges).')
"
```
Substitute `IS_DIRECTED` and `INPUT_PATH` as in Step 4. If a `GRAPH HEALTH WARNING` prints, surface it in the final summary (do not abort — the graph is still usable, but the integrity issue must be visible, per the Honesty Rules).
### Step 5 - Label communities
Read `graphify-out/.graphify_analysis.json`. For each community key, look at its node labels and write a 2-5 word plain-language name (e.g. "Attention Mechanism", "Training Pipeline", "Data Loading").
Then regenerate the report and save the labels for the visualizer:
```bash
$(cat graphify-out/.graphify_python) -c "
import sys, json
from graphify.build import build_from_json
from graphify.cluster import score_all
from graphify.analyze import god_nodes, surprising_connections, suggest_questions
from graphify.report import generate
from pathlib import Path
extraction = json.loads(Path('graphify-out/.graphify_extract.json').read_text(encoding=\"utf-8\"))
detection = json.loads(Path('graphify-out/.graphify_detect.json').read_text(encoding=\"utf-8\"))
analysis = json.loads(Path('graphify-out/.graphify_analysis.json').read_text(encoding=\"utf-8\"))
# root= as in Step 4 / the --update runbook (#1361) — same base for node-key parity.
G = build_from_json(extraction, root='INPUT_PATH', directed=IS_DIRECTED)
communities = {int(k): v for k, v in analysis['communities'].items()}
cohesion = {int(k): v for k, v in analysis['cohesion'].items()}
tokens = {'input': extraction.get('input_tokens', 0), 'output': extraction.get('output_tokens', 0)}
# LABELS - replace these with the names you chose above
labels = LABELS_DICT
# Regenerate questions with real community labels (labels affect question phrasing)
questions = suggest_questions(G, communities, labels)
report = generate(G, communities, cohesion, labels, analysis['gods'], analysis['surprises'], detection, tokens, 'INPUT_PATH', suggested_questions=questions)
Path('graphify-out/GRAPH_REPORT.md').write_text(report, encoding=\"utf-8\")
Path('graphify-out/.graphify_labels.json').write_text(json.dumps({str(k): v for k, v in labels.items()}, ensure_ascii=False), encoding=\"utf-8\")
print('Report updated with community labels')
"
```
Replace `LABELS_DICT` with the actual dict you constructed (e.g. `{0: "Attention Mechanism", 1: "Training Pipeline"}`).
Replace INPUT_PATH with the actual path.
### Step 6 - Generate Obsidian vault (opt-in) + HTML
**Generate HTML always** (unless `--no-viz`). **Obsidian vault only if `--obsidian` was explicitly given** — skip it otherwise, it generates one file per node.
If `--obsidian` was given:
- If `--obsidian-dir <path>` was also given, pass it via `--dir`. Otherwise defaults to `graphify-out/obsidian`.
```bash
graphify export obsidian
# or with custom dir: graphify export obsidian --dir ~/vaults/my-project
```
Generate the HTML graph (always, unless `--no-viz`):
```bash
graphify export html # auto-aggregates to community view if graph > 5000 nodes
# or: graphify export html --no-viz
```
### Steps 6b-8 - Wiki, Neo4j, FalkorDB, SVG, GraphML, MCP, benchmark (only on their flags)
These run only when their flag is present (`--wiki`, `--neo4j`/`--neo4j-push`, `--falkordb`/`--falkordb-push`, `--svg`, `--graphml`, `--mcp`) or, for the token-reduction benchmark, when `total_words` exceeds 5,000. A default run with no export flags skips all of them. See `references/exports.md` for each one. Run any `--wiki` export before Step 9 cleanup so `.graphify_labels.json` is still available.
---
### Step 9 - Save manifest, update cost tracker, clean up, and report
```bash
$(cat graphify-out/.graphify_python) -c "
import json
from pathlib import Path
from datetime import datetime, timezone
from graphify.detect import save_manifest
# Save manifest for --update
detect = json.loads(Path('graphify-out/.graphify_detect.json').read_text(encoding=\"utf-8\"))
extract = json.loads(Path('graphify-out/.graphify_extract.json').read_text(encoding=\"utf-8\"))
# In --update mode, 'all_files' carries the full corpus; 'files' is the changed
# subset. Full-rebuild mode populates only 'files', so the fallback handles that.
# root= relativizes the manifest keys to the scan root (same base as the build),
# so the on-disk manifest is portable across clones/machines and a later --update
# matches cached files instead of missing every one (#1417).
#
# Only stamp semantic files (docs/papers/images) that ACTUALLY produced output:
# a detected file whose chunk failed or was omitted must stay unstamped so the
# next --update re-queues it, otherwise it is marked done and its content is lost
# forever (#2015). This mirrors the library extract path exactly
# (cli._stamped_manifest_files + clear_semantic + scan_corpus); do not stamp the
# raw corpus. Code files are always stamped (AST is deterministic); only semantic
# types are gated on output.
from graphify.cli import _stamped_manifest_files
_corpus = detect.get('all_files') or detect['files']
_manifest_files = _stamped_manifest_files(_corpus, extract, Path('INPUT_PATH'))
# Files dispatched this run (the changed subset) but NOT stamped above still carry
# a stale semantic_hash from a prior run; clear it so detect_incremental re-queues
# them instead of reading them as unchanged (#1948).
_sem_types = ('document', 'paper', 'image')
_dispatched = {f for t, fl in detect['files'].items() if t in _sem_types for f in fl}
_stamped = {f for fl in _manifest_files.values() for f in fl}
_cleared = _dispatched - _stamped
# scan_corpus = the RAW full corpus (not the stamp-filtered subset) so in-root
# files newly excluded since last run are dropped rather than masquerading as
# deletions; untouched files' prior rows are still preserved (#1908).
_scan = {f for fl in _corpus.values() for f in fl}
save_manifest(_manifest_files, root='INPUT_PATH', scan_corpus=_scan, clear_semantic=_cleared or None)
# Update cumulative cost tracker
input_tok = extract.get('input_tokens', 0)
output_tok = extract.get('output_tokens', 0)
cost_path = Path('graphify-out/cost.json')
if cost_path.exists():
cost = json.loads(cost_path.read_text(encoding=\"utf-8\"))
else:
cost = {'runs': [], 'total_input_tokens': 0, 'total_output_tokens': 0}
cost['runs'].append({
'date': datetime.now(timezone.utc).isoformat(),
'input_tokens': input_tok,
'output_tokens': output_tok,
'files': detect.get('total_files', 0),
})
cost['total_input_tokens'] += input_tok
cost['total_output_tokens'] += output_tok
cost_path.write_text(json.dumps(cost, indent=2, ensure_ascii=False), encoding=\"utf-8\")
print(f'This run: {input_tok:,} input tokens, {output_tok:,} output tokens')
print(f'All time: {cost[\"total_input_tokens\"]:,} input, {cost[\"total_output_tokens\"]:,} output ({len(cost[\"runs\"])} runs)')
"
rm -f graphify-out/.graphify_detect.json graphify-out/.graphify_extract.json graphify-out/.graphify_ast.json graphify-out/.graphify_semantic.json graphify-out/.graphify_analysis.json
find graphify-out -maxdepth 1 -name '.graphify_chunk_*.json' -delete 2>/dev/null
rm -f graphify-out/.needs_update 2>/dev/null || true
```
Replace INPUT_PATH with the actual path (same value used in Steps 4-5) so the manifest is relativized to the scan root.
Tell the user (omit the obsidian line unless --obsidian was given):
```
Graph complete. Outputs in PATH_TO_DIR/graphify-out/
graph.html - interactive graph, open in browser
GRAPH_REPORT.md - audit report
graph.json - raw graph data
obsidian/ - Obsidian vault (only if --obsidian was given)
```
If graphify saved you time, consider supporting it: https://github.com/sponsors/safishamsi
Replace PATH_TO_DIR with the actual absolute path of the directory that was processed.
Then paste these sections from GRAPH_REPORT.md directly into the chat:
- God Nodes
- Surprising Connections
- Suggested Questions
Do NOT paste the full report - just those three sections. Keep it concise.
Then immediately offer to explore. Pick the single most interesting suggested question from the report - the one that crosses the most community boundaries or has the most surprising bridge node - and ask:
> "The most interesting question this graph can answer: **[question]**. Want me to trace it?"
If the user says yes, run `/graphify query "[question]"` on the graph and walk them through the answer using the graph structure - which nodes connect, which community boundaries get crossed, what the path reveals. Keep going as long as they want to explore. Each answer should end with a natural follow-up ("this connects to X - want to go deeper?") so the session feels like navigation, not a one-shot report.
The graph is the map. Your job after the pipeline is to be the guide.
---
## Interpreter guard for subcommands
Before running any subcommand below (`--update`, `--cluster-only`, `query`, `path`, `explain`, `add`), check that `.graphify_python` exists. If it's missing (e.g. user deleted `graphify-out/`), re-resolve the interpreter first:
```bash
if [ ! -f graphify-out/.graphify_python ]; then
GRAPHIFY_BIN=$(which graphify 2>/dev/null)
if [ -n "$GRAPHIFY_BIN" ]; then
PYTHON=$(head -1 "$GRAPHIFY_BIN" | tr -d '#!')
case "$PYTHON" in *[!a-zA-Z0-9/_.@-]*) PYTHON="python3" ;; esac
else
PYTHON="python3"
fi
mkdir -p graphify-out
"$PYTHON" -c "import sys; open('graphify-out/.graphify_python', 'w', encoding='utf-8').write(sys.executable)"
fi
```
## For --update and --cluster-only
Both are non-default subcommands. `--update` re-extracts only new or changed files; `--cluster-only` reruns clustering on the existing graph. See `references/update.md` for both flows.
---
## For /graphify query
When `graphify-out/graph.json` already exists and the user asks a question about the corpus, answer from the graph rather than rebuilding it:
```bash
graphify query "<question>"
```
Before traversal, expand the question against the graph's own vocabulary so a wording mismatch does not collapse the answer to noise. If the `graphify query` CLI is unavailable, fall back to an inline NetworkX traversal of `graphify-out/graph.json`. Answer using only what the graph output contains, and quote `source_location` when citing a specific fact. For that vocab-expansion step, the BFS/DFS traversal modes, the `--budget` cap, the NetworkX fallback, `save-result` feedback, and the `/graphify path` and `/graphify explain` flows, see `references/query.md`.
---
## For /graphify add and --watch
Neither is part of the default build. When the user runs `/graphify add <url>` to fetch a URL into the corpus, or passes `--watch` to auto-rebuild on file changes, see `references/add-watch.md`.
---
## For the commit hook and native CLAUDE.md integration
When the user asks to install the post-commit auto-rebuild hook or wire graphify into a project's CLAUDE.md, see `references/hooks.md`.
---
## Honesty Rules
- Never invent an edge. If unsure, use AMBIGUOUS.
- Never skip the corpus check warning.
- Always show token cost in the report.
- Never hide cohesion scores behind symbols - show the raw number.
- Never run HTML viz on a graph with more than 5,000 nodes without warning the user.

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@@ -0,0 +1,56 @@
# graphify reference: add a URL and watch a folder
Load this when the user ran `/graphify add <url>` or passed `--watch`. Neither is part of the default build.
## For /graphify add
Fetch a URL and add it to the corpus, then update the graph.
```bash
$(cat graphify-out/.graphify_python) -c "
import sys
from graphify.ingest import ingest
from pathlib import Path
try:
out = ingest('URL', Path('./raw'), author='AUTHOR', contributor='CONTRIBUTOR')
print(f'Saved to {out}')
except ValueError as e:
print(f'error: {e}', file=sys.stderr)
sys.exit(1)
except RuntimeError as e:
print(f'error: {e}', file=sys.stderr)
sys.exit(1)
"
```
Replace `URL` with the actual URL, `AUTHOR` with the user's name if provided, `CONTRIBUTOR` likewise. If the command exits with an error, tell the user what went wrong - do not silently continue. After a successful save, automatically run the `--update` pipeline on `./raw` to merge the new file into the existing graph.
Supported URL types (auto-detected):
- YouTube / any video URL → audio downloaded via yt-dlp, transcribed to `.txt` on next run (requires `pip install 'graphifyy[video]'`)
- Twitter/X → fetched via oEmbed, saved as `.md` with tweet text and author
- arXiv → abstract + metadata saved as `.md`
- PDF → downloaded as `.pdf`
- Images (.png/.jpg/.webp) → downloaded, Claude vision extracts on next run
- Any webpage → converted to markdown via html2text
---
## For --watch
Start a background watcher that monitors a folder and auto-updates the graph when files change.
```bash
$(cat graphify-out/.graphify_python) -m graphify.watch INPUT_PATH --debounce 3
```
Replace INPUT_PATH with the folder to watch. Behavior depends on what changed:
- **Code files only (.py, .ts, .go, etc.):** re-runs AST extraction + rebuild + cluster immediately, no LLM needed. `graph.json` and `GRAPH_REPORT.md` are updated automatically.
- **Docs, papers, or images:** writes a `graphify-out/needs_update` flag and prints a notification to run `/graphify --update` (LLM semantic re-extraction required).
Debounce (default 3s): waits until file activity stops before triggering, so a wave of parallel agent writes doesn't trigger a rebuild per file.
Press Ctrl+C to stop.
For agentic workflows: run `--watch` in a background terminal. Code changes from agent waves are picked up automatically between waves. If agents are also writing docs or notes, you'll need a manual `/graphify --update` after those waves.

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@@ -0,0 +1,87 @@
# graphify reference: extra exports and benchmark
Load this when the user passed one of the export flags (`--wiki`, `--neo4j`, `--neo4j-push`, `--falkordb`, `--falkordb-push`, `--svg`, `--graphml`, `--mcp`), or when the corpus is large enough for the token-reduction benchmark. Each step runs only for its own flag.
### Step 6b - Wiki (only if --wiki flag)
**Only run this step if `--wiki` was explicitly given in the original command.**
Run this before Step 9 (cleanup) so `.graphify_labels.json` is still available.
```bash
graphify export wiki
```
### Step 7 - Neo4j export (only if --neo4j or --neo4j-push flag)
**If `--neo4j`** - generate a Cypher file for manual import:
```bash
graphify export neo4j
```
**If `--neo4j-push <uri>`** - push directly to a running Neo4j instance. Ask the user for credentials if not provided:
```bash
graphify export neo4j --push bolt://localhost:7687 --user neo4j --password PASSWORD
```
Default URI is `bolt://localhost:7687`, default user is `neo4j`. Uses MERGE - safe to re-run without creating duplicates.
### Step 7a - FalkorDB export (only if --falkordb or --falkordb-push flag)
**If `--falkordb`** - generate a Cypher file. The statements are OpenCypher, but FalkorDB's `GRAPH.QUERY` runs one statement at a time (no bulk script import like Neo4j's `cypher-shell`), so prefer `--falkordb-push` to load a graph. Use this only when you want the portable `cypher.txt` artifact:
```bash
graphify export falkordb
```
**If `--falkordb-push <uri>`** - push directly to a running FalkorDB instance. Credentials are optional; ask the user only if the instance requires auth:
```bash
graphify export falkordb --push falkordb://localhost:6379
```
Default URI is `falkordb://localhost:6379` (the scheme is informational - `redis://` or a bare `host:port` work too), auth is optional, and the target graph defaults to `graphify`. Uses MERGE - safe to re-run without creating duplicates.
### Step 7b - SVG export (only if --svg flag)
```bash
graphify export svg
```
### Step 7c - GraphML export (only if --graphml flag)
```bash
graphify export graphml
```
### Step 7d - MCP server (only if --mcp flag)
```bash
$(cat graphify-out/.graphify_python) -m graphify.serve graphify-out/graph.json
```
This starts a stdio MCP server that exposes tools: `query_graph`, `get_node`, `get_neighbors`, `get_community`, `god_nodes`, `graph_stats`, `shortest_path`. Add to Claude Desktop or any MCP-compatible agent orchestrator so other agents can query the graph live.
To configure in Claude Desktop, add to `claude_desktop_config.json`. Claude Desktop can't run `$(...)`, and under `uv tool install` the system `python3` can't import graphify — so set `command` to the **absolute interpreter path** printed by `cat graphify-out/.graphify_python`:
```json
{
"mcpServers": {
"graphify": {
"command": "<absolute path from: cat graphify-out/.graphify_python>",
"args": ["-m", "graphify.serve", "/absolute/path/to/graphify-out/graph.json"]
}
}
}
```
### Step 8 - Token reduction benchmark (only if total_words > 5000)
If `total_words` from `graphify-out/.graphify_detect.json` is greater than 5,000, run:
```bash
graphify benchmark
```
Print the output directly in chat. If `total_words <= 5000`, skip silently - the graph value is structural clarity, not token compression, for small corpora.

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# graphify reference: extraction subagent prompt
Load this in Step 3 Part B when the corpus has at least one doc, paper, or image chunk. A pure-code corpus skips Part B and never reads this file. Each semantic subagent receives the prompt below verbatim (substitute FILE_LIST, CHUNK_NUM, TOTAL_CHUNKS, DEEP_MODE, and CHUNK_PATH).
```
You are a graphify extraction subagent. Read the files listed and extract a knowledge graph fragment.
Output ONLY valid JSON matching the schema below - no explanation, no markdown fences, no preamble.
Files (chunk CHUNK_NUM of TOTAL_CHUNKS):
FILE_LIST
Rules:
- EXTRACTED: relationship explicit in source (import, call, citation, "see §3.2")
- INFERRED: reasonable inference (shared data structure, implied dependency)
- AMBIGUOUS: uncertain - flag for review, do not omit
Code files: focus on semantic edges AST cannot find (call relationships, shared data, arch patterns).
Do not re-extract imports - AST already has those.
Doc/paper files: extract named concepts, entities, citations. For rationale (WHY decisions were made, trade-offs, design intent): store as a `rationale` attribute on the relevant concept node — do NOT create a separate rationale node or fragment node. Only create a node for something that is itself a named entity or concept. Use `file_type:"rationale"` for concept-like nodes (ideas, principles, mechanisms, design patterns). `file_type` MUST be one of exactly these six values: `code`, `document`, `paper`, `image`, `rationale`, `concept`. Any other value is invalid and will be rejected.
Code files: when adding `calls` edges, source MUST be the caller (the function/class doing the calling), target MUST be the callee. Never reverse this direction. `calls` edges MUST stay within one language: a Python function cannot `calls` a JS/TS/Go/Rust/Java symbol and vice versa — cross-language call edges are phantom artifacts, never emit them.
Image files: use vision to understand what the image IS - do not just OCR.
UI screenshot: layout patterns, design decisions, key elements, purpose.
Chart: metric, trend/insight, data source.
Tweet/post: claim as node, author, concepts mentioned.
Diagram: components and connections.
Research figure: what it demonstrates, method, result.
Handwritten/whiteboard: ideas and arrows, mark uncertain readings AMBIGUOUS.
DEEP_MODE (if --mode deep was given): be aggressive with INFERRED edges - indirect deps,
shared assumptions, latent couplings. Mark uncertain ones AMBIGUOUS instead of omitting.
Semantic similarity: if two concepts in this chunk solve the same problem or represent the same idea without any structural link (no import, no call, no citation), add a `semantically_similar_to` edge marked INFERRED with a confidence_score reflecting how similar they are (0.6-0.95). Examples:
- Two functions that both validate user input but never call each other
- A class in code and a concept in a paper that describe the same algorithm
- Two error types that handle the same failure mode differently
Only add these when the similarity is genuinely non-obvious and cross-cutting. Do not add them for trivially similar things.
Hyperedges: if 3 or more nodes clearly participate together in a shared concept, flow, or pattern that is not captured by pairwise edges alone, add a hyperedge to a top-level `hyperedges` array. Examples:
- All classes that implement a common protocol or interface
- All functions in an authentication flow (even if they don't all call each other)
- All concepts from a paper section that form one coherent idea
Use sparingly — only when the group relationship adds information beyond the pairwise edges. Maximum 3 hyperedges per chunk.
If a file has YAML frontmatter (--- ... ---), copy source_url, captured_at, author,
contributor onto every node from that file.
confidence_score is REQUIRED on every edge - never omit it, never use 0.5 as a default:
- EXTRACTED edges: confidence_score = 1.0 always
- INFERRED edges: pick exactly ONE value from this set — never 0.5:
0.95 direct structural evidence (shared data structure, named cross-file reference).
0.85 strong inference (clear functional alignment, no direct symbol link).
0.75 reasonable inference (shared problem domain + similar shape, requires interpretation).
0.65 weak inference (thematically related, no shape evidence).
0.55 speculative but plausible (surface-level co-occurrence only).
Models follow discrete rubrics better than continuous ranges; the bimodal
distribution observed in production (>50% at 0.5, >40% at 0.85+) shows the
range guidance is being collapsed to a binary. If no value above fits, mark
the edge AMBIGUOUS rather than picking 0.4 or below.
- AMBIGUOUS edges: 0.1-0.3
Node ID format: lowercase, only `[a-z0-9_]`, no dots or slashes. Format: `{stem}_{entity}` where stem is the **full repo-relative path with the extension dropped**, every path segment kept and joined with `_` (each segment lowercased with non-alphanumeric chars replaced by `_`), and entity is the symbol name similarly normalized. Use every directory level, not just the immediate parent — this keeps same-named files in different directories distinct. Examples: `src/auth/session.py` + `ValidateToken` → `src_auth_session_validatetoken`; `lib/utils/helpers.py` + `parse_url` → `lib_utils_helpers_parse_url`; `tests/test_foo.py` + `_helper` → `tests_test_foo_helper`; `docs/v1/api/README.md` + `getUser` → `docs_v1_api_readme_getuser`. Top-level files (no parent dir, e.g. `setup.py`) use just the filename stem: `setup_my_func`. This must match the ID the AST extractor generates — using just the filename (e.g., `session_validatetoken`) or only the immediate parent (e.g., `auth_session_validatetoken`) will create orphan ghost-duplicate nodes. If you are re-extracting a project built under the old immediate-parent format, the user should run `graphify extract --force` to rebuild cleanly. CRITICAL: never append chunk numbers, sequence numbers, or any suffix to an ID (no `_c1`, `_c2`, `_chunk2`, etc.). IDs must be deterministic from the label alone — the same entity must always produce the same ID regardless of which chunk processes it.
Generate the extraction JSON matching this schema exactly:
{"nodes":[{"id":"auth_session_validatetoken","label":"Human Readable Name","file_type":"code|document|paper|image|rationale|concept","source_file":"<FILE_LIST path verbatim>","source_location":null,"source_url":null,"captured_at":null,"author":null,"contributor":null}],"edges":[{"source":"node_id","target":"node_id","relation":"calls|implements|references|cites|conceptually_related_to|shares_data_with|semantically_similar_to|rationale_for","confidence":"EXTRACTED|INFERRED|AMBIGUOUS","confidence_score":1.0,"source_file":"<FILE_LIST path verbatim>","source_location":null,"weight":1.0}],"hyperedges":[{"id":"snake_case_id","label":"Human Readable Label","nodes":["node_id1","node_id2","node_id3"],"relation":"participate_in|implement|form","confidence":"EXTRACTED|INFERRED","confidence_score":0.75,"source_file":"<FILE_LIST path verbatim>"}],"input_tokens":0,"output_tokens":0}
source_file RULE (every node, edge, and hyperedge): set source_file to the path of the originating file EXACTLY as it appears in FILE_LIST — verbatim and absolute. Do NOT shorten to a basename, do NOT re-relativize, do NOT strip any directory prefix, and do NOT change separators (the engine canonicalizes separators and relativizes against the build root downstream). Copy the FILE_LIST entry character-for-character. This keeps the full build and incremental --update on the same base, so build_merge's replace-on-re-extract matches the existing node instead of accumulating a duplicate.
Then write the JSON to disk using the Write tool at this exact absolute path (no relative paths — Write resolves relative paths against an undefined cwd and the file will be silently lost):
CHUNK_PATH
```

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# graphify reference: GitHub clone and cross-repo merge
Load this when the user passed one or more `https://github.com/...` URLs, or named several local subfolders to merge into one graph.
### Step 0 - Clone GitHub repo(s) (only if a GitHub URL was given)
**Single repo:**
```bash
LOCAL_PATH=$(graphify clone <github-url> [--branch <branch>])
# Use LOCAL_PATH as the target for all subsequent steps
```
**Multiple repos (cross-repo graph):**
```bash
# Clone each repo, run the full pipeline on each, then merge
graphify clone <url1> # → ~/.graphify/repos/<owner1>/<repo1>
graphify clone <url2> # → ~/.graphify/repos/<owner2>/<repo2>
# Run /graphify on each local path to produce their graph.json files
# Then merge:
graphify merge-graphs \
~/.graphify/repos/<owner1>/<repo1>/graphify-out/graph.json \
~/.graphify/repos/<owner2>/<repo2>/graphify-out/graph.json \
--out graphify-out/cross-repo-graph.json
```
Graphify clones into `~/.graphify/repos/<owner>/<repo>` and reuses existing clones on repeat runs. Each node in the merged graph carries a `repo` attribute so you can filter by origin.
**Multiple local subfolders (monorepo or multi-service layout):**
The skill pipeline writes all intermediate and final outputs to `graphify-out/` in the current working directory. Running the skill on each subfolder separately will clobber the same output dir. Instead, use the CLI directly for each subfolder — it places `graphify-out/` *inside* the scanned path:
```bash
graphify extract ./core/ # → ./core/graphify-out/graph.json
graphify extract ./service/ # → ./service/graphify-out/graph.json
graphify extract ./platform/ # → ./platform/graphify-out/graph.json
# Add --backend gemini|kimi|openai|deepseek|claude-cli depending on which API key you have set
# Then merge at the project root:
graphify merge-graphs \
./core/graphify-out/graph.json \
./service/graphify-out/graph.json \
./platform/graphify-out/graph.json \
--out graphify-out/graph.json
```
Once `graphify-out/graph.json` exists, the fast path above takes over: any codebase question runs `graphify query` directly on the merged graph — no re-extraction, no size gate.

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# graphify reference: commit hook and native CLAUDE.md integration
Load this when the user asked to install the post-commit hook or wire graphify into a project's CLAUDE.md.
## For git commit hook
Install a post-commit hook that auto-rebuilds the graph after every commit. No background process needed - triggers once per commit, works with any editor.
```bash
graphify hook install # install
graphify hook uninstall # remove
graphify hook status # check
```
After every `git commit`, the hook detects which code files changed (via `git diff HEAD~1`), re-runs AST extraction on those files, and rebuilds `graph.json` and `GRAPH_REPORT.md`. Doc/image changes are ignored by the hook - run `/graphify --update` manually for those.
If a post-commit hook already exists, graphify appends to it rather than replacing it.
---
## For native CLAUDE.md integration
Run once per project to make graphify always-on in Claude Code sessions:
```bash
graphify claude install
```
This writes a `## graphify` section to the local `CLAUDE.md` that instructs Claude to check the graph before answering codebase questions and rebuild it after code changes. No manual `/graphify` needed in future sessions.
```bash
graphify claude uninstall # remove the section
```

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# graphify reference: query, path, explain
Load this when the user asks a question against an existing graph, or runs `/graphify path` or `/graphify explain`. The core's query stub points here for the full traversal flow. These flows use the `graphify query` CLI when it is available and fall back to an inline NetworkX traversal otherwise.
Two traversal modes - choose based on the question:
| Mode | Flag | Best for |
|------|------|----------|
| BFS (default) | _(none)_ | "What is X connected to?" - broad context, nearest neighbors first |
| DFS | `--dfs` | "How does X reach Y?" - trace a specific chain or dependency path |
First check the graph exists:
```bash
$(cat graphify-out/.graphify_python) -c "
from pathlib import Path
if not Path('graphify-out/graph.json').exists():
print('ERROR: No graph found. Run /graphify <path> first to build the graph.')
raise SystemExit(1)
"
```
If it fails, stop and tell the user to run `/graphify <path>` first.
### Step 0 — Constrained query expansion (REQUIRED before traversal)
graphify's `query` CLI matches nodes via case-folded substring + IDF — there is **no stemming, no synonyms, no cross-language match** inside the binary, and the inline fallback below matches the same way. If the user's question uses different language or different domain vocabulary than the graph's labels (user says "обработчик" / graph says "handler"; user says "authentication" / graph says "Guardian"), the literal matcher returns 0 hits and the answer collapses to noise.
Fix this **without inventing tokens** by expanding the query against the actual graph vocabulary first:
1. Extract the token vocabulary from node labels:
```bash
$(cat graphify-out/.graphify_python) -c "
import json, re
from pathlib import Path
data = json.loads(Path('graphify-out/graph.json').read_text(encoding='utf-8'))
vocab = set()
for n in data['nodes']:
for c in re.findall(r'[^\W\d_]+', n.get('label','') or '', re.UNICODE):
parts = re.findall(r'[A-Z]+(?=[A-Z][a-z])|[A-Z]?[a-z]+|[A-Z]+', c) or [c]
for p in parts:
t = p.lower()
if 3 <= len(t) <= 30:
vocab.add(t)
Path('graphify-out/.vocab.txt').write_text('\n'.join(sorted(vocab)), encoding='utf-8')
print(f'vocab: {len(vocab)} tokens')
"
```
2. Read `graphify-out/.vocab.txt`. Then for the user's question, select **up to 12 tokens from this exact list** that semantically match the query intent. Hard constraints:
- You MUST pick only tokens present in the vocabulary file. Do NOT invent tokens.
- If a query concept has no plausible token in the vocab, skip it — do not substitute a near-synonym from training memory.
- If **no** vocab tokens match the query at all, output an empty list and tell the user the corpus has no relevant vocabulary for this question. Do not fabricate a search.
- Translate cross-language: Russian "аутентификация" → look for `auth`, `credential`, `token`, `security` IFF present in vocab.
- Morphology: "handlers" maps to `handler` IFF present; "todos" maps to `todo` IFF present.
3. Print the selection explicitly to the user before running the query, so the expansion is auditable:
```
Query expanded to (from graph vocab, N tokens): [token1, token2, ...]
```
If the list is empty, say so plainly and stop — do not proceed to traversal.
### Step 1 — Traversal
Build the **expanded query string** by joining the selected tokens with spaces. Use this string as `QUESTION` below — NOT the original user question. (The original question is preserved only for `save-result` at the end.)
Prefer the CLI when it is installed:
```bash
graphify query "QUESTION"
# or: graphify query "QUESTION" --dfs --budget 3000
```
If the CLI is unavailable, load `graphify-out/graph.json` and run the traversal inline:
1. Find the 1-3 nodes whose label best matches the expanded tokens.
2. Run the appropriate traversal from each starting node.
3. Read the subgraph - node labels, edge relations, confidence tags, source locations.
4. Answer using **only** what the graph contains. Quote `source_location` when citing a specific fact.
5. If the graph lacks enough information, say so - do not hallucinate edges.
```bash
$(cat graphify-out/.graphify_python) -c "
import sys, json
from networkx.readwrite import json_graph
import networkx as nx
from pathlib import Path
data = json.loads(Path('graphify-out/graph.json').read_text(encoding='utf-8'))
G = json_graph.node_link_graph(data, edges='links')
question = 'QUESTION'
mode = 'MODE' # 'bfs' or 'dfs'
terms = [t.lower() for t in question.split() if len(t) >= 3] # match the vocab threshold; keeps api/jwt/ios (#1392)
# Find best-matching start nodes
scored = []
for nid, ndata in G.nodes(data=True):
label = ndata.get('label', '').lower()
score = sum(1 for t in terms if t in label)
if score > 0:
scored.append((score, nid))
scored.sort(reverse=True)
start_nodes = [nid for _, nid in scored[:3]]
if not start_nodes:
print('No matching nodes found for query terms:', terms)
sys.exit(0)
subgraph_nodes = set()
subgraph_edges = []
if mode == 'dfs':
# DFS: follow one path as deep as possible before backtracking.
# Depth-limited to 6 to avoid traversing the whole graph.
visited = set()
stack = [(n, 0) for n in reversed(start_nodes)]
while stack:
node, depth = stack.pop()
if node in visited or depth > 6:
continue
visited.add(node)
subgraph_nodes.add(node)
for neighbor in G.neighbors(node):
if neighbor not in visited:
stack.append((neighbor, depth + 1))
subgraph_edges.append((node, neighbor))
else:
# BFS: explore all neighbors layer by layer up to depth 3.
frontier = set(start_nodes)
subgraph_nodes = set(start_nodes)
for _ in range(3):
next_frontier = set()
for n in frontier:
for neighbor in G.neighbors(n):
if neighbor not in subgraph_nodes:
next_frontier.add(neighbor)
subgraph_edges.append((n, neighbor))
subgraph_nodes.update(next_frontier)
frontier = next_frontier
# Token-budget aware output: rank by relevance, cut at budget (~4 chars/token)
token_budget = BUDGET # default 2000
char_budget = token_budget * 4
# Score each node by term overlap for ranked output
def relevance(nid):
label = G.nodes[nid].get('label', '').lower()
return sum(1 for t in terms if t in label)
ranked_nodes = sorted(subgraph_nodes, key=relevance, reverse=True)
lines = [f'Traversal: {mode.upper()} | Start: {[G.nodes[n].get(\"label\",n) for n in start_nodes]} | {len(subgraph_nodes)} nodes']
for nid in ranked_nodes:
d = G.nodes[nid]
lines.append(f' NODE {d.get(\"label\", nid)} [src={d.get(\"source_file\",\"\")} loc={d.get(\"source_location\",\"\")}]')
for u, v in subgraph_edges:
if u in subgraph_nodes and v in subgraph_nodes:
_raw = G[u][v]; d = next(iter(_raw.values()), {}) if isinstance(G, nx.MultiGraph) else _raw
lines.append(f' EDGE {G.nodes[u].get(\"label\",u)} --{d.get(\"relation\",\"\")} [{d.get(\"confidence\",\"\")}]--> {G.nodes[v].get(\"label\",v)}')
output = '\n'.join(lines)
if len(output) > char_budget:
output = output[:char_budget] + f'\n... (truncated at ~{token_budget} token budget - use --budget N for more)'
print(output)
"
```
Replace `QUESTION` with the **expanded** query string, `MODE` with `bfs` or `dfs`, and `BUDGET` with the token budget (default `2000`, or whatever `--budget N` specifies). Then answer based on the subgraph output above, using only what the graph contains.
After writing the answer, save it back into the graph so it improves future queries. Include the expanded tokens inside the `--answer` text (e.g. `"Expanded from original query via vocab: [tokens]. Then traversed..."`) so the next `--update` extracts the expansion history as a graph node:
```bash
$(cat graphify-out/.graphify_python) -m graphify save-result --question "ORIGINAL_QUESTION" --answer "ANSWER" --type query --nodes NODE1 NODE2
```
Replace `ORIGINAL_QUESTION` with the user's verbatim question, `ANSWER` with your full answer text (containing the expanded-token trace), `NODE1 NODE2` with the list of node labels you cited. This closes the feedback loop: the next `--update` will extract this Q&A as a node in the graph.
**Work memory (self-improving loop).** Add an `--outcome` so future sessions learn from this one — append `--outcome useful|dead_end|corrected` to the `save-result` command (and `--correction "the right answer"` when correcting):
- `useful` — the cited nodes answered the question well (they become *preferred sources*).
- `dead_end` — the question/path led nowhere; don't re-derive it next time.
- `corrected` — the saved answer was wrong; `--correction` records what was right.
At the **start** of graph work, refresh and read the lessons: run `graphify reflect --if-stale` (cheap, deterministic, no LLM; `--if-stale` makes it a no-op when `LESSONS.md` is already newer than every input, e.g. when the git hook just refreshed it), then read `graphify-out/reflections/LESSONS.md`. It lists **preferred sources** (start there), **known dead ends** (skip them), and prior **corrections**. Running `reflect` yourself keeps the lessons current even without the git hook installed; if the post-commit hook *is* installed, `--if-stale` means your session-start run costs almost nothing.
---
## For /graphify path
Find the shortest path between two named concepts in the graph. Prefer the CLI when installed:
```bash
graphify path "NODE_A" "NODE_B"
```
If the CLI is unavailable, run it inline:
```bash
$(cat graphify-out/.graphify_python) -c "
import json, sys
import networkx as nx
from networkx.readwrite import json_graph
from pathlib import Path
data = json.loads(Path('graphify-out/graph.json').read_text(encoding='utf-8'))
G = json_graph.node_link_graph(data, edges='links')
a_term = 'NODE_A'
b_term = 'NODE_B'
def find_node(term):
term = term.lower()
scored = sorted(
[(sum(1 for w in term.split() if w in G.nodes[n].get('label','').lower()), n)
for n in G.nodes()],
reverse=True
)
return scored[0][1] if scored and scored[0][0] > 0 else None
src = find_node(a_term)
tgt = find_node(b_term)
if not src or not tgt:
print(f'Could not find nodes matching: {a_term!r} or {b_term!r}')
sys.exit(0)
try:
path = nx.shortest_path(G, src, tgt)
print(f'Shortest path ({len(path)-1} hops):')
for i, nid in enumerate(path):
label = G.nodes[nid].get('label', nid)
if i < len(path) - 1:
_raw = G[nid][path[i+1]]; edge = next(iter(_raw.values()), {}) if isinstance(G, nx.MultiGraph) else _raw
rel = edge.get('relation', '')
conf = edge.get('confidence', '')
print(f' {label} --{rel}--> [{conf}]')
else:
print(f' {label}')
except nx.NetworkXNoPath:
print(f'No path found between {a_term!r} and {b_term!r}')
except nx.NodeNotFound as e:
print(f'Node not found: {e}')
"
```
Replace `NODE_A` and `NODE_B` with the actual concept names from the user. Then explain the path in plain language - what each hop means, why it's significant.
After writing the explanation, save it back:
```bash
$(cat graphify-out/.graphify_python) -m graphify save-result --question "Path from NODE_A to NODE_B" --answer "ANSWER" --type path_query --nodes NODE_A NODE_B
```
---
## For /graphify explain
Give a plain-language explanation of a single node - everything connected to it. Prefer the CLI when installed:
```bash
graphify explain "NODE_NAME"
```
If the CLI is unavailable, run it inline:
```bash
$(cat graphify-out/.graphify_python) -c "
import json, sys
import networkx as nx
from networkx.readwrite import json_graph
from pathlib import Path
data = json.loads(Path('graphify-out/graph.json').read_text(encoding='utf-8'))
G = json_graph.node_link_graph(data, edges='links')
term = 'NODE_NAME'
term_lower = term.lower()
# Find best matching node
scored = sorted(
[(sum(1 for w in term_lower.split() if w in G.nodes[n].get('label','').lower()), n)
for n in G.nodes()],
reverse=True
)
if not scored or scored[0][0] == 0:
print(f'No node matching {term!r}')
sys.exit(0)
nid = scored[0][1]
data_n = G.nodes[nid]
print(f'NODE: {data_n.get(\"label\", nid)}')
print(f' source: {data_n.get(\"source_file\",\"unknown\")}')
print(f' type: {data_n.get(\"file_type\",\"unknown\")}')
print(f' degree: {G.degree(nid)}')
print()
print('CONNECTIONS:')
for neighbor in G.neighbors(nid):
_raw = G[nid][neighbor]; edge = next(iter(_raw.values()), {}) if isinstance(G, nx.MultiGraph) else _raw
nlabel = G.nodes[neighbor].get('label', neighbor)
rel = edge.get('relation', '')
conf = edge.get('confidence', '')
src_file = G.nodes[neighbor].get('source_file', '')
print(f' --{rel}--> {nlabel} [{conf}] ({src_file})')
"
```
Replace `NODE_NAME` with the concept the user asked about. Then write a 3-5 sentence explanation of what this node is, what it connects to, and why those connections are significant. Use the source locations as citations.
After writing the explanation, save it back:
```bash
$(cat graphify-out/.graphify_python) -m graphify save-result --question "Explain NODE_NAME" --answer "ANSWER" --type explain --nodes NODE_NAME
```

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# graphify reference: transcribe video and audio
Load this only when `detect` reported one or more `video` files. A corpus with no video never reads this.
### Step 2.5 - Transcribe video / audio files (only if video files detected)
Skip this step entirely if `detect` returned zero `video` files.
Video and audio files cannot be read directly. Transcribe them to text first, then treat the transcripts as doc files in Step 3.
**Strategy:** Read the god nodes from `graphify-out/.graphify_detect.json` (or the analysis file if it exists from a previous run). You are already a language model — write a one-sentence domain hint yourself from those labels. Then pass it to Whisper as the initial prompt. No separate API call needed.
**However**, if the corpus has *only* video files and no other docs/code, use the generic fallback prompt: `"Use proper punctuation and paragraph breaks."`
**Step 1 - Write the Whisper prompt yourself.**
Read the top god node labels from detect output or analysis, then compose a short domain hint sentence, for example:
- Labels: `transformer, attention, encoder, decoder``"Machine learning research on transformer architectures and attention mechanisms. Use proper punctuation and paragraph breaks."`
- Labels: `kubernetes, deployment, pod, helm``"DevOps discussion about Kubernetes deployments and Helm charts. Use proper punctuation and paragraph breaks."`
**Export** it as `GRAPHIFY_WHISPER_PROMPT` (the exact name the transcriber reads — and it must be `export`ed so the child Python process sees it) for the next command.
**Step 2 - Transcribe:**
```bash
export GRAPHIFY_WHISPER_MODEL=base # or whatever --whisper-model the user passed (must be exported)
export GRAPHIFY_WHISPER_PROMPT="<the one-sentence domain hint you composed in Step 1>"
$(cat graphify-out/.graphify_python) -c "
import json, os, sys
from pathlib import Path
from graphify.transcribe import transcribe_all
detect = json.loads(Path('graphify-out/.graphify_detect.json').read_text(encoding=\"utf-8\"))
video_files = detect.get('files', {}).get('video', [])
prompt = os.environ.get('GRAPHIFY_WHISPER_PROMPT', 'Use proper punctuation and paragraph breaks.')
transcript_paths = transcribe_all(video_files, initial_prompt=prompt)
# Write the JSON from Python (NOT a shell '>' redirect): transcribe_all/Whisper
# print progress to stdout, which would otherwise corrupt the JSON file (#1392).
Path('graphify-out/.graphify_transcripts.json').write_text(json.dumps(transcript_paths, ensure_ascii=False), encoding=\"utf-8\")
print(f'Transcribed {len(transcript_paths)} file(s)', file=sys.stderr)
"
```
After transcription:
- Read the transcript paths from `graphify-out/.graphify_transcripts.json`
- Add them to the docs list before dispatching semantic subagents in Step 3B
- Print how many transcripts were created: `Transcribed N video file(s) -> treating as docs`
- If transcription fails for a file, print a warning and continue with the rest
**Whisper model:** Default is `base`. If the user passed `--whisper-model <name>`, `export GRAPHIFY_WHISPER_MODEL=<name>` (it must be exported, not just assigned) before running the command above.

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# graphify reference: incremental update and cluster-only
Load this only when the user passed `--update` or `--cluster-only`. A first-time full build never reads this file.
## For --update (incremental re-extraction)
Use when you've added or modified files since the last run. Only re-extracts changed files - saves tokens and time.
```bash
$(cat graphify-out/.graphify_python) -c "
import sys, json
from graphify.detect import detect_incremental, save_manifest
from pathlib import Path
result = detect_incremental(Path('INPUT_PATH'))
new_total = result.get('new_total', 0)
print(json.dumps(result, indent=2, ensure_ascii=False))
Path('graphify-out/.graphify_incremental.json').write_text(json.dumps(result, ensure_ascii=False), encoding=\"utf-8\")
deleted = list(result.get('deleted_files', []))
if new_total == 0 and not deleted:
print('No files changed since last run. Nothing to update.')
raise SystemExit(0)
if deleted:
print(f'{len(deleted)} deleted file(s) to prune.')
if new_total > 0:
print(f'{new_total} new/changed file(s) to re-extract.')
"
```
Then populate `.graphify_detect.json` so Steps 3A6 (which read it unconditionally) see the right state for an incremental run. `files` carries the changed subset (drives Step 3A AST + Step 3B0 cache check on only what changed); `all_files` carries the full corpus for any step that needs corpus-wide context:
```bash
$(cat graphify-out/.graphify_python) -c "
import json
from pathlib import Path
r = json.loads(Path('graphify-out/.graphify_incremental.json').read_text(encoding=\"utf-8\"))
Path('graphify-out/.graphify_detect.json').write_text(json.dumps({
'files': r.get('new_files', {}),
'all_files': r.get('files', {}),
'total_files': r.get('new_total', 0),
'total_words': r.get('total_words', 0),
'skipped_sensitive': r.get('skipped_sensitive', []),
'needs_graph': True,
}, ensure_ascii=False), encoding=\"utf-8\")
"
```
If new files exist, first check whether all changed files are code files:
```bash
$(cat graphify-out/.graphify_python) -c "
import json
from pathlib import Path
result = json.loads(open('graphify-out/.graphify_incremental.json', encoding='utf-8').read()) if Path('graphify-out/.graphify_incremental.json').exists() else {}
code_exts = {'.py','.ts','.js','.go','.rs','.java','.cpp','.c','.rb','.swift','.kt','.cs','.scala','.php','.cc','.cxx','.hpp','.h','.kts','.lua','.toc','.f','.F','.f90','.F90','.f95','.F95','.f03','.F03','.f08','.F08'}
new_files = result.get('new_files', {})
all_changed = [f for files in new_files.values() for f in files]
code_only = all(Path(f).suffix.lower() in code_exts for f in all_changed)
print('code_only:', code_only)
"
```
If `code_only` is True: print `[graphify update] Code-only changes detected - skipping semantic extraction (no LLM needed)`, run only Step 3A (AST) on the changed files, skip Step 3B entirely (no subagents), then go straight to merge and Steps 48.
If `code_only` is False (any changed file is a doc/paper/image/video): **first, if any changed file is in `new_files['video']`, run `references/transcribe.md` (Step 2.5) on those files, then rewrite `.graphify_detect.json` to move the resulting transcript paths into `files['document']` and drop `files['video']`** — otherwise raw `.mp4/.mp3` paths are fed to semantic subagents as unreadable media (#1392). Then run the full Steps 3A3C pipeline as normal.
If no new files exist (only deletions), create an empty extraction so the merge step can prune:
```bash
if [ ! -f graphify-out/.graphify_extract.json ]; then
echo '[graphify update] Only deletions -- creating empty extraction for merge.'
$(cat graphify-out/.graphify_python) -c "
import json
from pathlib import Path
Path('graphify-out/.graphify_extract.json').write_text(json.dumps({'nodes':[],'edges':[],'hyperedges':[],'input_tokens':0,'output_tokens':0}), encoding='utf-8')
"
fi
```
Then:
```bash
$(cat graphify-out/.graphify_python) -c "
import json
from pathlib import Path
from graphify.build import build_merge
from graphify.detect import save_manifest
# Load new extraction and incremental state
new_extraction = json.loads(Path('graphify-out/.graphify_extract.json').read_text(encoding=\"utf-8\"))
incremental = json.loads(Path('graphify-out/.graphify_incremental.json').read_text(encoding=\"utf-8\"))
deleted = list(incremental.get('deleted_files', []))
# prune_sources is ONLY for genuinely DELETED files. Changed/re-extracted files are
# handled by build_merge's replace-on-re-extract (#1344): every source_file in
# new_chunks is dropped from the base before merge, so old/stale nodes don't survive.
# Do NOT add `changed` here: with root= passed, prune_set relativizes to the same base
# as the freshly merged nodes and would DELETE the re-extracted content (#1178 is moot
# now that replace — not the dedup pass — reconciles changed files).
prune = list(deleted) or None
# Use build_merge() — reads graph.json directly without NetworkX round-trip
# so edge direction (calls, implements, imports) is always preserved (#801).
# Pass root= so prune_sources (absolute paths from detect_incremental) are
# relativized to match the graph's relative source_file values; without it
# nothing is pruned and stale nodes accumulate on every update (#1361).
# directed=IS_DIRECTED: replace IS_DIRECTED with True if --directed was given, else
# False. Without it a --directed --update silently rebuilds undirected and collapses
# reciprocal A<->B edges (#1392).
G = build_merge(
[new_extraction],
graph_path='graphify-out/graph.json',
prune_sources=prune,
root='INPUT_PATH',
directed=IS_DIRECTED,
)
print(f'[graphify update] Merged: {G.number_of_nodes()} nodes, {G.number_of_edges()} edges')
# Write merged result back to .graphify_extract.json so Step 4 sees the full graph
merged_out = {
'nodes': [{'id': n, **d} for n, d in G.nodes(data=True)],
'edges': [
# Explicit source/target last so they win over any stale attrs in d.
{**{k: val for k, val in d.items() if k not in ('_src', '_tgt', 'source', 'target')},
'source': d.get('_src', u), 'target': d.get('_tgt', v)}
for u, v, d in G.edges(data=True)
],
# G.graph["hyperedges"] holds hyperedges from both existing graph.json
# and new_extraction (build_merge combines them). Falling back to
# new_extraction only would silently drop prior-run hyperedges (#801).
'hyperedges': list(G.graph.get('hyperedges', [])),
'input_tokens': new_extraction.get('input_tokens', 0),
'output_tokens': new_extraction.get('output_tokens', 0),
}
Path('graphify-out/.graphify_extract.json').write_text(json.dumps(merged_out, ensure_ascii=False), encoding=\"utf-8\")
print(f'[graphify update] Merged extraction written ({len(merged_out[\"nodes\"])} nodes, {len(merged_out[\"edges\"])} edges)')
# Save manifest so next --update diffs against today's state, not the
# prior run's baseline (prevents ghost-node reports on subsequent updates).
# root= matches the build_merge call above so the manifest keys stay relative to
# the scan root — portable across clones/machines, so --update keeps matching
# cached files instead of missing every one after a move (#1417).
#
# Only stamp semantic files (docs/papers/images) that ACTUALLY produced output
# THIS run (new_extraction is this run's fresh extraction, read above before the
# merge overwrote the file): a changed doc whose chunk failed must stay unstamped
# so the next --update re-queues it, otherwise it is marked done and its content
# is lost forever (#2015). Mirrors the library extract path
# (cli._stamped_manifest_files + clear_semantic + scan_corpus).
from graphify.cli import _stamped_manifest_files
_manifest_files = _stamped_manifest_files(incremental['files'], new_extraction, Path('INPUT_PATH'))
# Changed semantic files dispatched this run but NOT stamped had their chunk fail
# or be omitted; clear any stale semantic_hash so they are re-queued (#1948).
_sem_types = ('document', 'paper', 'image')
_dispatched = {f for t, fl in incremental.get('new_files', {}).items() if t in _sem_types for f in fl}
_stamped = {f for fl in _manifest_files.values() for f in fl}
_cleared = _dispatched - _stamped
# scan_corpus = the RAW full corpus so in-root files newly excluded since last run
# are dropped rather than masquerading as deletions; untouched rows preserved (#1908).
_scan = {f for fl in incremental['files'].values() for f in fl}
save_manifest(_manifest_files, root='INPUT_PATH', scan_corpus=_scan, clear_semantic=_cleared or None)
print('[graphify update] Manifest saved.')
"
```
Then run Steps 48 on the merged graph as normal.
After Step 4, show the graph diff:
```bash
$(cat graphify-out/.graphify_python) -c "
import json
from graphify.analyze import graph_diff
from graphify.build import build_from_json
from networkx.readwrite import json_graph
import networkx as nx
from pathlib import Path
# Load old graph (before update) from backup written before merge
old_data = json.loads(Path('graphify-out/.graphify_old.json').read_text(encoding=\"utf-8\")) if Path('graphify-out/.graphify_old.json').exists() else None
new_extract = json.loads(Path('graphify-out/.graphify_extract.json').read_text(encoding=\"utf-8\"))
G_new = build_from_json(new_extract, directed=IS_DIRECTED)
if old_data:
G_old = json_graph.node_link_graph(old_data, edges='links')
diff = graph_diff(G_old, G_new)
print(diff['summary'])
if diff['new_nodes']:
print('New nodes:', ', '.join(n['label'] for n in diff['new_nodes'][:5]))
if diff['new_edges']:
print('New edges:', len(diff['new_edges']))
"
```
Before the merge step, save the old graph: `cp graphify-out/graph.json graphify-out/.graphify_old.json`
Clean up after: `rm -f graphify-out/.graphify_old.json`
---
## For --cluster-only
Skip Steps 13. Re-run clustering on the existing graph:
```bash
graphify cluster-only .
```
`graphify cluster-only .` is **self-contained**: it re-clusters, names communities, and regenerates `GRAPH_REPORT.md`, `graph.json`, and `graph.html` from the existing graph. **Do not re-run Steps 59** — they read intermediate files (`.graphify_extract.json`, `.graphify_detect.json`, `.graphify_analysis.json`) that a prior build's cleanup (Step 9) already deleted, so they raise `FileNotFoundError` (#1392). When it finishes, present the refreshed `GRAPH_REPORT.md` summary as usual.

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synced=55 next=DGR-024 dry_run=False
No .ralph-tui/config.toml found. Using default configuration.
Initializing Ralph TUI...
Env filter: no vars matched exclusion patterns (*_API_KEY, *_SECRET_KEY, *_SECRET)
Running agent preflight check...
✓ Agent is ready
Response time: 4300ms
Session: 9af13108-1a92-40f1-945a-beabfde1d405
Agent: claude
Tracker: json
PRD: .scratch/distributed-gguf-runtime/prd.json
Max iterations: unlimited
[08:30:51] [INFO] [session] Session 9af13108-1a92-40f1-945a-beabfde1d405 created. Agent: claude, Tracker: json
[08:30:51] [INFO] [engine] Ralph started. Total tasks: 48
[08:30:51] [INFO] [progress] Iteration 1/∞: Working on DGR-019 - Lock alpha and beta performance contracts
[08:30:55] [INFO] [agent] I'll start by reading the context files, source issue, and progress log before touching anything.
[08:30:57] [INFO] [agent] [Bash] $ cat .scratch/distributed-gguf-runtime/RALPH-CONTEXT.md 2>/dev/null | head -200
[08:30:58] [INFO] [agent] [Bash] $ cat .scratch/distributed-gguf-runtime/issues/019-lock-alpha-and-beta-performance-contracts.md
[08:31:01] [INFO] [agent] [Bash] $ head -100 .ralph-tui/progress.md 2>/dev/null
[08:31:02] [INFO] [agent] [Bash] $ cat .scratch/distributed-gguf-runtime/evidence/DGR-017/README.md 2>/dev/null
[08:31:05] [INFO] [agent] [Bash] $ cat .scratch/distributed-gguf-runtime/evidence/DGR-018/README.md 2>/dev/null | head -150
[08:31:05] [INFO] [agent] [Bash] $ python3 -c " import json d = json.load(open('.scratch/distributed-gguf-runtime/prd.json')) print(typ...
[08:31:10] [INFO] [agent] [Bash] $ python3 -c " import json d = json.load(open('.scratch/distributed-gguf-runtime/prd.json')) print(lis...
[08:31:14] [INFO] [agent] [Bash] $ python3 -c " import json d = json.load(open('.scratch/distributed-gguf-runtime/prd.json')) stories =...
[08:31:22] [INFO] [agent] [Bash] $ git diff --stat -- .scratch/distributed-gguf-runtime/prd.json
[08:31:23] [INFO] [agent] [Bash] $ git diff -- .scratch/distributed-gguf-runtime/prd.json | head -300
[08:31:33] [INFO] [agent] [Bash] $ git diff -- .scratch/distributed-gguf-runtime/gitea-issues.json | head -60
[08:31:34] [INFO] [agent] [Bash] $ git show --stat HEAD | head -20
[08:31:41] [INFO] [agent] [Bash] $ python3 scripts/ralph_prd_schema.py validate .scratch/distributed-gguf-runtime/prd.json 2>&1 | tail ...
[08:31:42] [INFO] [agent] [Bash] $ grep -n "prd.json\|sourceOfTruth\|qualityGates\|metadataSchema" .ralph-tui-run.log | tail -40
[08:31:50] [INFO] [agent] [Bash] $ grep -n "def main\|def validate\|argparse\|sourceOfTruth\|qualityGates\|metadataSchema\|milestones\|...
[08:32:01] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/scripts/ralph_prd_schema.py
[08:32:15] [INFO] [agent] [Bash] $ python3 -m pytest -q tests/test_ralph_prd_schema.py 2>&1 | tail -40
[08:32:18] [INFO] [agent] [Bash] $ find / -maxdepth 3 -iname ".venv*" 2>/dev/null | head
[08:32:20] [INFO] [agent] [Bash] $ find /run/media/popov/d/DEV/repos/d-popov.com/AI -maxdepth 2 -iname ".venv*" 2>/dev/null
[08:32:25] [INFO] [agent] [Bash] $ /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv-rocm/bin/python -m pytest -q tests/test_ralph_prd_...
[08:32:38] [INFO] [agent] [Bash] $ grep -rn "updatedAt" --include="*.py" --include="*.ts" --include="*.js" scripts/ .ralph-tui 2>/dev/n...
[08:32:39] [INFO] [agent] [Bash] $ find / -maxdepth 4 -iname "*ralph-tui*" 2>/dev/null | grep -v worktrees
[08:33:02] [INFO] [agent] [Bash] $ find . -iname "*benchmark*" -not -path "*/node_modules/*" -not -path "*/.git/*" 2>/dev/null | head -...
[08:33:02] [INFO] [agent] [Bash] $ cat docs/adr/0024-distributed-gguf-runtime.md 2>/dev/null | head -250
[08:33:18] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/performance_contract.py
[08:33:19] [INFO] [agent] [Bash] $ cat .scratch/distributed-gguf-runtime/evidence/DGR-001/performance-contract.json 2>/dev/null
[08:33:31] [INFO] [agent] [Bash] $ find tests -iname "*performance*" -o -iname "*recipe_benchmark*" -o -iname "*route_session_benchmark...
[08:33:31] [INFO] [agent] [Bash] $ sed -n '1,120p' packages/node/meshnet_node/recipe_benchmark.py
[08:34:10] [INFO] [agent] [Bash] $ done
[08:34:18] [INFO] [agent] [Bash] $ grep -rn "DGF-004\|DGF-0" .scratch/distributed-gguf-runtime/prd.json .scratch/distributed-gguf-runti...
[08:34:19] [INFO] [agent] [Bash] $ python3 -c " import json d = json.load(open('.scratch/distributed-gguf-runtime/prd.json')) for s in ...
[08:34:44] [INFO] [agent] [Bash] $ grep -rln "performance_contract\|PerformanceContract\|ContractThresholds" packages tests docs 2>/dev...
[08:34:45] [INFO] [agent] [Bash] $ head -5 "{}"' 2>/dev/null | head -100
[08:34:49] [INFO] [agent] [Bash] $ find packages/node/meshnet_node/glm_alpha -type f | sort
[08:34:50] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/glm_alpha/data/alpha-contract.json
[08:34:58] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/glm_alpha/contract.py
[08:34:58] [INFO] [agent] [Bash] $ grep -rln "glm_alpha" tests/ | grep -v __pycache__
[08:35:56] [INFO] [agent] [Bash] $ cat packages/node/meshnet_node/glm_alpha/__init__.py
[08:35:57] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_glm_alpha_target.py
[08:36:47] [INFO] [agent] [Bash] $ grep -n "class \|def \|dataclass\|metric\|seam\|ttft\|throughput" packages/node/meshnet_node/route_s...
[08:37:03] [INFO] [agent] [Bash] $ python3 - <<'EOF' import json, subprocess head_raw = subprocess.check_output(["git", "show", "HEAD:...
[08:37:06] [INFO] [agent] Confirmed: `userStories` is byte-identical to HEAD, so only the top-level schema/gates/milestones content was dropped by whatever last touched this file (likely ralph-tui's own read-modify-write, which doesn't know about these extension fields). I'll restore it now, then do my DGR-019-specific edits on top.
[08:37:09] [INFO] [agent] [Bash] $ python3 - <<'EOF' import json, subprocess head_raw = subprocess.check_output(["git", "show", "HEAD:...
[08:37:11] [INFO] [agent] Now the drop is fixed except for the added `metadata` stamp. Let me confirm the test suite passes again.
[08:37:12] [INFO] [agent] [Bash] $ /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv-rocm/bin/python -m pytest -q tests/test_ralph_prd_...
[08:37:16] [INFO] [agent] Fixed. Now let's design the actual DGR-019 deliverable. Let me check the recipe catalogue and existing benchmark conventions once more before writing the contract module.
[08:37:17] [INFO] [agent] [Bash] $ sed -n '1,80p' packages/node/meshnet_node/recipes.json 2>/dev/null | head -80
[08:37:17] [INFO] [agent] [Bash] $ sed -n '120,260p' packages/node/meshnet_node/recipe_benchmark.py
[08:38:37] [INFO] [agent] Now I'll build the actual deliverable: a versioned, digest-sealed alpha/beta performance contract, following the existing `glm_alpha/contract.py` pattern already proven in this codebase, layered on top of the already-locked lane-1/2 contract in `performance_contract.py`.
[08:38:37] [INFO] [agent] [Bash] $ mkdir -p packages/node/meshnet_node/dgr_performance/data ls packages/node/meshnet_node/dgr_performan...
[08:39:22] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/dgr_performance/data/alpha-beta-contract-v1.json "{
[08:39:22] [INFO] [agent] "schema_version": 1,
[08:39:22] [INFO] [agent] "contract_version": 1,
[08:39:22] [INFO] [agent] "contract_id": "dgr-alpha-beta-performance/v1",
[08:39:22] [INFO] [agent] "locked_at": "2026-07-22",
[08:39:22] [INFO] [agent] "locked_by": "DGR-019",
[08:39:22] [INFO] [agent] "locked_before_target_execution": true,
[08:39:22] [INFO] [agent] "... (11597 chars)"
[08:40:02] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/dgr_performance/contract.py """"The locked DGR-019 alpha/beta performance contract.
[08:40:02] [INFO] [agent] Four benchmark lanes feed the DeepSeek V4 Flash release gates: controlled
[08:40:02] [INFO] [agent] safetensors, whole-model GGUF, dense distributed GGUF, and V4 Flash
[08:40:02] [INFO] [agent] di... (12556 chars)"
[08:40:10] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/dgr_performance/__init__.py """"DGR-019 — the locked alpha/beta performance contract.
[08:40:10] [INFO] [agent] Four lanes feed the DeepSeek V4 Flash release gates: controlled safetensors
[08:40:10] [INFO] [agent] and whole-model GGUF are already locked by DGR-001
[08:40:10] [INFO] [agent] (:mod:`meshnet_... (1263 chars)"
[08:40:12] [INFO] [agent] Now compute the digest and finalize both files.
[08:40:14] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 - ...
[08:40:22] [INFO] [agent] That's just my own script re-writing the file with `contract_sha256` appended (JSON dump reformatted it) — expected. Now plug the digest into `contract.py`.
[08:40:25] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/dgr_performance/contract.py edit: "CONTRACT_V1_SHA256 = "__DIGEST_PLACEHOLDER__"" → "CONTRACT_V1_SHA256 = "cb5a482a8f142bf45b1dd401743d..."
[08:40:27] [INFO] [agent] Now let's smoke test the loader end to end.
[08:40:29] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:40:32] [INFO] [agent] Loader works end-to-end. Now let's check how the test suite normally imports `meshnet_node` (sys.path setup via conftest/pytest.ini) so my test file matches convention.
[08:40:33] [INFO] [agent] [Bash] $ cat conftest.py 2>/dev/null | head -30
[08:40:35] [INFO] [agent] Good, plain `from meshnet_node.dgr_performance import ...` works under pytest. Now write the test file.
[08:41:18] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_dgr_performance_contract.py """"DGR-019 — the locked alpha/beta performance contract.
[08:41:18] [INFO] [agent] Deterministic, offline, GPU-free, model-download-free. These tests assert
[08:41:18] [INFO] [agent] against the *pinned* v1 contract, so they fail if a later change loo... (13666 chars)"
[08:41:21] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:41:47] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/dgr_performance/contract.py edit: " if declared != CONTRACT_V1_SHA256:
[08:41:47] [INFO] [agent] rai..." → " missing_sections = ["
[08:41:52] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/dgr_performance/contract.py edit: " amendment_policy = data.get("amendment_policy"..." → " amendment_policy = data.get("amendment_policy"..."
[08:41:54] [INFO] [agent] Now fix the tuple-vs-list assertions in the test file.
[08:41:56] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_dgr_performance_contract.py edit: "def test_alpha_verdicts_are_exactly_alpha_optimize..." → "def test_alpha_verdicts_are_exactly_alpha_optimize..."
[08:42:00] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_dgr_performance_contract.py edit: " assert contract.beta["verdicts"] == list(BETA_..." → " assert tuple(contract.beta["verdicts"]) == BET..."
[08:42:04] [INFO] [agent] Also fix the earlier `contract.alpha["verdicts"] == list(ALPHA_VERDICTS)` check inside `parse_contract` for missing-human-approval test, and the regex match expectation now that ordering changed.
[08:42:05] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_dgr_performance_contract.py edit: " resealed = seal_contract({k: v for k, v in mut..." → " resealed = seal_contract({k: v for k, v in mut..."
[08:42:12] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:42:15] [INFO] [agent] All 28 tests pass. Now let's run the full repo test suite plus compileall and git diff --check to make sure nothing else regressed.
[08:42:16] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:42:20] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:42:26] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:42:31] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime timeout 28...
[08:42:39] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime timeout 28...
[08:44:42] [INFO] [agent] I'll wait for the full suite to finish in the background and continue with the evidence/documentation work meanwhile.
[08:44:44] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:44:47] [INFO] [agent] Now let's update the DGR-019 story entry in `prd.json` with `passes: true` and `completionNotes`, following the DGR-018 precedent.
[08:44:58] [INFO] [agent] [Bash] $ " "a structural test asserts no product module under packages/node/meshnet_node " ...
[08:45:01] [INFO] [agent] Now regenerate the DGR-019 issue markdown to stay byte-identical with the renderer, and re-validate everything.
[08:45:04] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:45:07] [INFO] [agent] Validated and rendered correctly. Now write the evidence README.
[08:45:08] [INFO] [agent] [Bash] $ mkdir -p /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scr...
[08:45:10] [INFO] [agent] [Bash] $ echo checking
[08:45:18] [INFO] [agent] I'll check the background full-suite run's progress.
[08:45:20] [INFO] [agent] [Bash] $ tail -5 /tmp/claude-1000/-run-media-popov-d-DEV-repos-d-popov-com-AI--claude-worktrees-distributed-g...
[08:45:28] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git status...
[08:45:32] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git status...
[08:45:34] [INFO] [agent] Good, `__pycache__` is gitignored. Now let's write the evidence README.
[08:46:25] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-019/README.md "# DGR-019 evidence — lock alpha and beta performance contracts
[08:46:25] [INFO] [agent] **Completed:** 2026-07-22
[08:46:25] [INFO] [agent] **Branch:** `ralph/distributed-gguf-runtime`
[08:46:25] [INFO] [agent] **Authority:** `.scratch/distributed-gguf-runtime/prd.json`
[08:46:25] [INFO] [agent] **Dep... (12517 chars)"
[08:46:27] [INFO] [agent] Now let's check on the background full-suite run.
[08:46:30] [INFO] [agent] [Bash] $ ls /tmp/claude-1000/-run-media-popov-d-DEV-repos-d-popov-com-AI--claude-worktrees-distributed-gguf-r...
[08:46:35] [INFO] [agent] Let's update `.ralph-tui/progress.md` while the background full-suite check continues.
[08:46:36] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md
[08:46:49] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md edit: "## Codebase Patterns (Study These First)
[08:46:49] [INFO] [agent] *Add reu..." → "## Codebase Patterns (Study These First)
[08:46:49] [INFO] [agent] - **Lock..."
[08:47:02] [INFO] [agent] [Bash] $ exclude it explicitly when running a full-repo sweep rather than letting one bad collection abor...
[08:47:04] [INFO] [agent] That's expected — my own append. Let's check the background full-suite test run now.
[08:47:07] [INFO] [agent] [Bash] $ tail -40 /tmp/claude-1000/-run-media-popov-d-DEV-repos-d-popov-com-AI--claude-worktrees-distributed-...
[08:47:14] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime grep -n "t...
[08:47:22] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime ls -la .sc...
[08:47:38] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:47:48] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime grep -l "d...
[08:48:02] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-019/README.md edit: "Full repository test sweep (`pytest -q tests/ -k "..." → "```bash
[08:48:02] [INFO] [agent] .venv-rocm/bin/python -m pytest -q tests/ ..."
[08:48:05] [INFO] [agent] Now let's do a final consistency check — re-run the targeted tests, compileall, git diff --check, and validate once more since the README file itself changed.
[08:48:08] [INFO] [agent] [Bash] $ echo "diff-check: $?" /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv-rocm/bin/python scripts/ralp...
[08:48:13] [INFO] [agent] Everything is consistent and green. All acceptance criteria are satisfied, quality gates pass, and evidence is complete. Per instructions, leaving changes uncommitted for manual review.
[08:48:21] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md edit: " - `tests/test_shard_runtime_harness.py` fails to..." → " - `tests/test_shard_runtime_harness.py` fails to..."
[08:48:30] [INFO] [agent] DGR-019 is complete.
[08:48:30] [INFO] [agent] **Summary:** Locked the alpha/beta performance contract for the DeepSeek V4 Flash distributed GGUF track as versioned, digest-sealed machine-readable data, before any distributed benchmark result exists.
[08:48:30] [INFO] [agent] - New package `packages/node/meshnet_node/dgr_performance/` defines all four required lanes (controlled-safetensors, whole-model-gguf, dense-distributed-gguf, v4-flash-distributed) — the first two reference the pre-existing immutable DGR-001 lock rather than duplicating it; the other two are newly locked with fixed prompts, context/output lengths, sampling, concurrency, hardware, and metrics.
[08:48:30] [INFO] [agent] - Alpha requires correctness plus a `human_approval`-gated useful-speed threshold (not an automatic ratio check); beta adds concurrency/long-context/failure/sustained-throughput. Quantization and 2-4/10+ stage counts are named certification-scenario labels only, enforced by a structural test that greps for hardcoding.
[08:48:30] [INFO] [agent] - 28 new tests in `tests/test_dgr_performance_contract.py`, all passing; `compileall`, `git diff --check`, and `scripts/ralph_prd_schema.py validate` all clean.
[08:48:30] [INFO] [agent] - Also found and fixed a pre-existing, unrelated problem: `prd.json`'s top-level schema/gates/milestones content had been silently dropped by some prior tooling pass (not caused by this story), which was breaking 56 tests — restored it from `HEAD` before building on top, same fix pattern DGR-018 used.
[08:48:30] [INFO] [agent] - Evidence written to `.scratch/distributed-gguf-runtime/evidence/DGR-019/README.md`; `prd.json` marked `passes: true` with `completionNotes`; issue markdown regenerated. All changes left uncommitted for review.
[08:48:31] [INFO] [progress] Iteration 1 finished. Task DGR-019: in progress. Duration: 1060s
[08:48:32] [INFO] [progress] Iteration 2/∞: Working on DGR-020 - Run the controlled whole-model GGUF baseline
[08:48:36] [INFO] [agent] [Bash] $ pwd && ls .scratch/distributed-gguf-runtime/
[08:48:37] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md
[08:48:40] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/issues/020-run-the-controlled-whole-model-gguf-baseline.md
[08:48:40] [INFO] [agent] [Bash] $ ls .scratch/distributed-gguf-runtime/evidence/ && echo --- && ls .scratch/distributed-gguf-runtime/e...
[08:48:48] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-019/README.md
[08:48:48] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md
[08:48:57] [INFO] [agent] [Bash] $ find packages/node/meshnet_node -iname "*performance_contract*" -o -iname "*recipe_benchmark*" | sor...
[08:48:58] [INFO] [agent] [Bash] $ cat .scratch/distributed-gguf-runtime/evidence/DGR-001/README.md 2>/dev/null | head -100
[08:49:13] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-001/README.md
[08:49:13] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-001/commands.txt
[08:49:32] [INFO] [agent] [Bash] $ set -x ls -la /run/media/popov/DATA/llm/safetensor/models/models--Qwen--Qwen2.5-0.5B-Instruct/snapsh...
[08:49:57] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-001/benchmark-config.json
[08:49:58] [INFO] [agent] [Bash] $ wc -l packages/node/meshnet_node/recipe_benchmark.py packages/node/meshnet_node/performance_contract...
[08:50:07] [INFO] [agent] [Bash] $ cat .scratch/distributed-gguf-runtime/evidence/DGR-001/results.txt 2>&1 | head -60
[08:50:07] [INFO] [agent] [Bash] $ sed -n '1,80p' packages/node/meshnet_node/recipe_benchmark.py | head -100
[08:50:16] [INFO] [agent] [Bash] $ grep -n "verdict\|class.*Verdict\|STOP\|GO\|OPTIMIZE\|optimize" packages/node/meshnet_node/performan...
[08:50:17] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-001/performance-contract.json
[08:50:38] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 -c...
[08:50:53] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime sha256sum ...
[08:50:54] [INFO] [agent] [Bash] $ print(torch.__version__, transformers.__version__)"
[08:50:55] [INFO] [agent] [Error: Exit code 127
[08:50:55] [INFO] [agent] /bin/bash: line 2: .venv-rocm/bin/python: No such file or directory]
[08:50:59] [INFO] [agent] [Bash] $ ls -la /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv-rocm 2>&1 | head -3
[08:51:09] [INFO] [agent] [Bash] $ print(torch.__version__, transformers.__version__)"
[08:51:23] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime grep -n "M...
[08:51:26] [INFO] [agent] Environment check confirms exact reproducibility: llama-server binary, llama.cpp commit, GGUF artifact hashes, and Python/torch/transformers versions all match DGR-001 exactly. This is genuinely re-runnable on real hardware. Let me set up the DGR-020 evidence dir and execute the real benchmark.
[08:51:29] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime mkdir -p ....
[08:51:32] [INFO] [agent] Now running the real canonical benchmark (CPU-only, local-real) — this involves loading the Transformers reference plus two llama-server GGUF recipes across 2 concurrency levels and 3 prompts, so it may take a few minutes.
[08:51:34] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime MESHNET_EN...
[08:52:38] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime PYTHONPATH...
[08:52:43] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-020/contract-evaluation.json
[08:52:43] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-020/baseline.json
[08:52:51] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime PYTHONPATH...
[08:52:51] [INFO] [agent] [Error: Exit code 1
[08:52:51] [INFO] [agent] Traceback (most recent call last):
[08:52:51] [INFO] [agent] File "<stdin>", line 4, in <module>
[08:52:51] [INFO] [agent] TypeError: 'AlphaBetaContract' object is not subscriptable]
[08:52:54] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime PYTHONPATH...
[08:52:54] [INFO] [agent] [Error: Exit code 1
[08:52:54] [INFO] [agent] Traceback (most recent call last):
[08:52:54] [INFO] [agent] File "<stdin>", line 5, in <module>
[08:52:54] [INFO] [agent] AttributeError: 'str' object has no attribute 'lane_id']
[08:52:56] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime grep -n "c...
[08:53:00] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime PYTHONPATH...
[08:53:04] [INFO] [agent] Confirmed. Now let's run the deterministic test suite and quality gates, then write the evidence README.
[08:53:05] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:53:08] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime find tests...
[08:53:11] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime grep -rl "...
[08:53:15] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:53:22] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git status...
[08:53:27] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 -c...
[08:53:40] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 -c...
[08:53:43] [INFO] [agent] Only DGR-019's legitimate change differs; the top-level fields were silently dropped again. Restoring per the established pattern.
[08:53:46] [INFO] [agent] [Bash] $ write out preserving original cur key order then appended ordered = {} for k in head.keys(): if ...
[08:53:49] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 sc...
[08:53:52] [INFO] [agent] Fixed. Now running the full targeted test sweep.
[08:53:53] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:53:56] [INFO] [agent] Now compileall and git diff --check:
[08:53:59] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:54:04] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/trusted-evidence-signers.json
[08:54:05] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime diff .scra...
[08:54:09] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 sc...
[08:54:11] [INFO] [agent] Now let's update prd.json's DGR-020 entry with passes=true and completionNotes.
[08:54:23] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 - ...
[08:54:29] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 sc...
[08:54:31] [INFO] [agent] Now regenerate the committed issue markdown file to match.
[08:54:33] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime cp /tmp/dg...
[08:54:36] [INFO] [agent] Need the evidence README first. Let me write it now.
[08:54:37] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime ls .scratc...
[08:54:43] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime PYTHONPATH...
[08:56:02] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-020/README.md "# DGR-020 evidence — run the controlled whole-model GGUF baseline
[08:56:02] [INFO] [agent] **Completed:** 2026-07-22
[08:56:02] [INFO] [agent] **Branch:** `ralph/distributed-gguf-runtime`
[08:56:02] [INFO] [agent] **Authority:** `.scratch/distributed-gguf-runtime/prd.json`
[08:56:02] [INFO] [agent] **... (14626 chars)"
[08:56:06] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:56:10] [INFO] [agent] All passing. Now let's run compileall and git diff --check one more time, then the full-repo sweep (as the last step, per the DGR-019 learning about not racing edits).
[08:56:11] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:56:15] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[08:58:19] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git status...
[08:58:22] [INFO] [agent] Good — `.ralph-tui-run.log` and `gitea-issues.json` were already modified before this session started (pre-existing, untouched by me). While the full sweep runs in the background, let me update the progress log.
[08:58:23] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md
[08:58:44] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md edit: " three cache tests in `test_real_model_backend...." → " three cache tests in `test_real_model_backend...."
[08:58:48] [INFO] [agent] Now let's wait for the background full-repo sweep to finish.
[08:58:48] [INFO] [agent] [Bash] $ echo done
[08:58:48] [INFO] [agent] [Error: <tool_use_error>Blocked: sleep 30 followed by: echo done. To wait for a condition, use Monitor with an until-loop (e.g. `until <check>; do sleep 2; done`). To wait for a command you started, use run_in_background: true. Do not chain shorter sleeps to work around this block.</tool_use_error>]
[08:58:50] [INFO] [agent] I'll wait for the background test sweep's automatic notification instead of polling.
[08:58:50] [INFO] [agent] [ToolSearch] query: Monitor
[08:58:53] [INFO] [agent] The full-repo sweep is running via `run_in_background`, so I'll simply wait for its completion notification rather than polling.
[08:58:57] [INFO] [agent] [Monitor] Wait for full-repo pytest sweep to finish $ tail -20 /tmp/claude-1000/-run-media-popov-d-DEV-repos-d-popov-com-AI--claude-worktrees-distributed-...
[08:59:00] [INFO] [agent] I'll continue other verification while the sweep completes in the background.
[08:59:02] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git diff -...
[08:59:06] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 sc...
[08:59:09] [INFO] [agent] Good — DGR-019's issue markdown (pre-existing from that session) is still consistent. Now let's check the PRD diff for DGR-020's story block specifically.
[08:59:10] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git diff -...
[08:59:12] [INFO] [agent] Good, that's the expected diff. Now I'll wait for the background sweep result via the monitor notification.
[08:59:12] [INFO] [agent] [Bash] $ echo "waiting for monitor notification"
[08:59:16] [INFO] [agent] Waiting for the full-repo test sweep to finish in the background before finalizing the evidence record.
[08:59:18] [INFO] [agent] [ScheduleWakeup]
[08:59:21] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime tail -30 /...
[08:59:26] [INFO] [agent] [Bash] $ ls -la /tmp/claude-1000/-run-media-popov-d-DEV-repos-d-popov-com-AI--claude-worktrees-distributed-gg...
[08:59:30] [INFO] [agent] I'll stop polling now and wait for the background task notification or the scheduled wakeup, since the sweep output is buffered until the run finishes (it took ~262s in the prior DGR-019 session).
[08:59:30] [INFO] [agent] [Bash] $ echo idle
[08:59:34] [INFO] [agent] Full-repo test sweep is running in the background (previously took ~4 minutes). I'll wait for it to complete before finalizing the DGR-020 evidence and marking the story done.
[08:59:34] [INFO] [agent] [Bash] $ true
[08:59:36] [INFO] [agent] Waiting for the background test sweep (started via `run_in_background`) or the scheduled wakeup to report back before finalizing.
[08:59:41] [INFO] [progress] Iteration 2 finished. Task DGR-020: in progress. Duration: 670s
[08:59:42] [INFO] [progress] Iteration 3/∞: Working on DGR-024 - Implement real generated-gRPC protocol harness
[08:59:48] [INFO] [agent] I'll start by surveying the current repository state to understand what's already implemented for DGR-024 and what the acceptance criteria require.
[08:59:49] [INFO] [agent] [Bash] $ pwd && git status --short | head -50
[08:59:51] [INFO] [agent] [Bash] $ find . -path ./node_modules -prune -o -iname "*gguf*" -print -o -iname "*shard_runtime*" -print 2>/d...
[08:59:54] [INFO] [agent] [Bash] $ find .scratch/distributed-gguf-runtime/evidence/DGR-024 -type f 2>/dev/null
[08:59:55] [INFO] [agent] [Bash] $ find packages/node/meshnet_node -maxdepth 2 -iname "*shard_runtime*" -o -iname "*grpc*" 2>/dev/null ...
[09:00:00] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-024/README.md
[09:00:00] [INFO] [agent] [Bash] $ git show cd6b4d9 --stat | head -60
[09:00:10] [INFO] [agent] [Bash] $ git merge-base --is-ancestor cd6b4d9 HEAD && echo "YES ancestor" || echo "NOT ancestor"
[09:00:11] [INFO] [agent] [Bash] $ python3 -c " import json d = json.load(open('.scratch/distributed-gguf-runtime/prd.json')) for us in...
[09:00:18] [INFO] [agent] [Bash] $ grep -n "hash\|sha256\|hexdigest" tests/test_shard_runtime_harness.py packages/node/meshnet_node/sha...
[09:00:18] [INFO] [agent] [Bash] $ grep -n "DGR-024" .ralph-tui/progress.md | head -20
[09:00:25] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md
[09:00:26] [INFO] [agent] [Bash] $ find . -maxdepth 3 -iname ".venv" -o -iname "venv" 2>/dev/null | head
[09:00:34] [INFO] [agent] [Bash] $ grep -rn "grpc" --include="requirements*.txt" --include="pyproject.toml" . 2>/dev/null | grep -v nod...
[09:00:34] [INFO] [agent] [Bash] $ cat .scratch/distributed-gguf-runtime/README.md 2>/dev/null | head -60
[09:00:40] [INFO] [agent] [Bash] $ cat packages/node/pyproject.toml | head -40
[09:00:41] [INFO] [agent] [Bash] $ which uv poetry pyenv conda 2>&1
[09:00:41] [INFO] [agent] [Error: Exit code 3
[09:00:41] [INFO] [agent] ---check for pyenv/conda---
[09:00:41] [INFO] [agent] /usr/bin/which: no poetry in (/home/popov/.kimi-code/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.bun/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.bun/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.local/bin:/home/popov/bin:/usr/local/bin:/usr/bin:/usr/local/sbin:/usr/sbin:/home/popov/.dotnet/tools:/var/lib/snapd/snap/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.vscode-oss/extensions/ms-python.debugpy-2026.6.0-linux-x64/bundled/scripts/noConfigScripts:/home/popov/.lmstudio/bin)
[09:00:41] [INFO] [agent] /usr/bin/which: no pyenv in (/home/popov/.kimi-code/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.bun/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.bun/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.local/bin:/home/popov/bin:/usr/local/bin:/usr/bin:/usr/local/sbin:/usr/sbin:/home/popov/.dotnet/tools:/var/lib/snapd/snap/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.vscode-oss/extensions/ms-python.debugpy-2026.6.0-linux-x64/bundled/scripts/noConfigScripts:/home/popov/.lmstudio/bin)
[09:00:41] [INFO] [agent] /usr/bin/which: no conda in (/home/popov/.kimi-code/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.bun/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.bun/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.local/bin:/home/popov/bin:/usr/local/bin:/usr/bin:/usr/local/sbin:/usr/sbin:/home/popov/.dotnet/tools:/var/lib/snapd/snap/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.vscode-oss/extensions/ms-python.debugpy-2026.6.0-linux-x64/bundled/scripts/noConfigScripts:/home/popov/.lmstudio/bin)
[09:00:41] [INFO] [agent] /home/popov/.local/bin/uv]
[09:00:46] [INFO] [agent] [Bash] $ find / -maxdepth 8 -iname "grpc" -type d 2>/dev/null | grep -v proc | head -10
[09:00:54] [INFO] [agent] [Bash] $ done 2>/dev/null | head -60
[09:00:55] [INFO] [agent] [Bash] $ cat .scratch/distributed-gguf-runtime/RALPH-CONTEXT.md 2>/dev/null | grep -A5 -B5 -i "venv\|python.*...
[09:01:00] [INFO] [agent] [Bash] $ /home/popov/.venvs/gpt/bin/python -m pytest -q tests/test_shard_runtime_harness.py 2>&1 | tail -40
[09:01:02] [INFO] [agent] [Bash] $ /home/popov/.venvs/gpt/bin/python -m pip list 2>/dev/null | grep -i "pytest\|protobuf"
[09:01:02] [INFO] [agent] [Bash] $ pip list 2>/dev/null | grep -i pytest
[09:01:08] [INFO] [agent] [Bash] $ find . -maxdepth 2 -iname "*.sh" | xargs grep -l pytest 2>/dev/null
[09:01:08] [INFO] [agent] [Error: Exit code 123
[09:01:08] [INFO] [agent] ./uv.lock
[09:01:08] [INFO] [agent] [build-system]
[09:01:08] [INFO] [agent] requires = ["setuptools>=64"]
[09:01:08] [INFO] [agent] build-backend = "setuptools.build_meta"
[09:01:08] [INFO] [agent] [project]
[09:01:08] [INFO] [agent] name = "distributed-inference-network"
[09:01:08] [INFO] [agent] version = "0.1.0"
[09:01:08] [INFO] [agent] description = "Distributed Inference Network monorepo root"
[09:01:08] [INFO] [agent] requires-python = ">=3.10"
[09:01:08] [INFO] [agent] [project.optional-dependencies]
[09:01:08] [INFO] [agent] dev = ["pytest>=8", "openai>=1", "langchain-openai>=0.1", "cryptography>=41"]
[09:01:08] [INFO] [agent] [tool.setuptools]
[09:01:08] [INFO] [agent] packages = []
[09:01:08] [INFO] [agent] [tool.ruff]
[09:01:08] [INFO] [agent] # Protobuf/gRPC stubs are regenerated by scripts/generate_native_protocol.py;
[09:01:08] [INFO] [agent] # linting them would drift the checked-in files from the generator's output.
[09:01:08] [INFO] [agent] extend-exclude = ["packages/node/meshnet_node/native_protocol/generated"]
[09:01:08] [INFO] [agent] [tool.pytest.ini_options]
[09:01:08] [INFO] [agent] testpaths = ["tests"]
[09:01:08] [INFO] [agent] markers = [
[09:01:08] [INFO] [agent] "integration: tests that download models, require GPUs, or exercise external integrations",
[09:01:08] [INFO] [agent] ]
[09:01:08] [INFO] [agent] ---check ralph-tui scripts for how tests run---
[09:01:08] [INFO] [agent] .ralph-tui/progress.md:26: missing), so a stripped `prd.json` still reports `OK`. Symptom when it happens: `pytest -q
[09:01:08] [INFO] [agent] .ralph-tui/progress.md:72: - Full-repo sweep (`pytest tests/ -k "not integration" --ignore=tests/test_shard_runtime_harness.py`)]
[09:01:09] [INFO] [agent] [Bash] $ find / -maxdepth 5 -iname "*meshnet-node*" 2>/dev/null
[09:01:12] [INFO] [agent] [Bash] $ print('grpc ok', grpc.__version__)" 2>&1 | tail -30
[09:01:17] [INFO] [agent] [Bash] $ grep -n "workspace\|members" pyproject.toml uv.lock 2>/dev/null | head -20
[09:01:18] [INFO] [agent] [Bash] $ timeout 120 uv pip install -e packages/node 2>&1 | tail -40
[09:03:18] [INFO] [agent] [Error: Exit code 143
[09:03:18] [INFO] [agent] Terminated timeout 120 uv pip install -e packages/node 2>&1 | tail -40]
[09:03:23] [INFO] [agent] [Bash] $ timeout 90 uv pip install grpcio protobuf pytest 2>&1 | tail -30
[09:03:26] [INFO] [agent] Now let's run the actual DGR-024 test suite for real, using this venv with grpc/protobuf/pytest installed.
[09:03:26] [INFO] [agent] [Bash] $ .venv/bin/python -m pytest -q tests/test_shard_runtime_harness.py -v 2>&1 | tail -60
[09:03:34] [INFO] [agent] 10 of 11 pass; the one failure just needs `grpcio-tools` installed to verify stub drift. Let's install that too and re-run.
[09:03:34] [INFO] [agent] [Bash] $ timeout 90 uv pip install grpcio-tools==1.82.1 2>&1 | tail -20
[09:03:37] [INFO] [agent] [Bash] $ .venv/bin/python -m pytest -q tests/test_shard_runtime_harness.py -v 2>&1 | tail -40
[09:03:45] [INFO] [agent] [Bash] $ grep -n "def test_shard_runtime_real_subprocess_harness\|WireCapture\|identity_send\|captured\|direc...
[09:03:54] [INFO] [agent] [Bash] $ python3 -c " import json d = json.load(open('.scratch/distributed-gguf-runtime/prd.json')) print(jso...
[09:03:56] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_shard_runtime_harness.py
[09:04:01] [INFO] [agent] [Bash] $ git diff .scratch/distributed-gguf-runtime/prd.json | head -100
[09:04:10] [INFO] [agent] [Bash] $ git diff .scratch/distributed-gguf-runtime/prd.json | tail -60
[09:04:11] [INFO] [agent] [Bash] $ python3 -c " import json cur = json.load(open('.scratch/distributed-gguf-runtime/prd.json')) head = ...
[09:04:37] [INFO] [agent] [Bash] $ grep -n "class WireCapture\|def record\|requests\[" packages/node/meshnet_node/shard_runtime_server....
[09:04:37] [INFO] [agent] [Bash] $ grep -n "WireCapture" -A 25 packages/node/meshnet_node/shard_runtime_server.py | head -60
[09:04:46] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/shard_runtime_server.py
[09:04:49] [INFO] [agent] Now let me add SHA-256 wire-frame hashes to `WireCapture.to_dict()` so they're persisted server-side as real forensic evidence, not just an adhoc test computation.
[09:04:53] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/shard_runtime_server.py edit: " def to_dict(self) -> dict[str, list[str]]:
[09:04:53] [INFO] [agent] ..." → " def to_dict(self) -> dict[str, list[str] | str..."
[09:04:55] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/shard_runtime_server.py edit: "import json
[09:04:55] [INFO] [agent] import os
[09:04:55] [INFO] [agent] import threading
[09:04:55] [INFO] [agent] import time" → "import hashlib
[09:04:55] [INFO] [agent] import json
[09:04:55] [INFO] [agent] import os
[09:04:55] [INFO] [agent] import thread..."
[09:04:59] [INFO] [agent] Now let's update the test to assert these hashes match between direct and relay captures, and surface them for evidence recording.
[09:04:59] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_shard_runtime_harness.py
[09:05:06] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_shard_runtime_harness.py edit: " assert [bytes.fromhex(h) for h in direct_c..." → " assert [bytes.fromhex(h) for h in direct_c..."
[09:05:08] [INFO] [agent] Now check `hashlib` is imported in the test file, then re-run the suite to capture real hash output for the evidence README.
[09:05:08] [INFO] [agent] [Bash] $ grep -n "^import\|^from" tests/test_shard_runtime_harness.py | head -20
[09:05:12] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_shard_runtime_harness.py edit: "import contextlib
[09:05:12] [INFO] [agent] import json
[09:05:12] [INFO] [agent] import os" → "import contextlib
[09:05:12] [INFO] [agent] import hashlib
[09:05:12] [INFO] [agent] import json
[09:05:12] [INFO] [agent] impor..."
[09:05:15] [INFO] [agent] [Bash] $ .venv/bin/python -m pytest -q tests/test_shard_runtime_harness.py -v -s 2>&1 | tail -60
[09:05:23] [INFO] [agent] All 11 tests pass and produce real wire-frame hashes. Let's run the other quality gates (compileall, git diff --check) and check the generated-protocol drift check output too.
[09:05:24] [INFO] [agent] [Bash] $ .venv/bin/python -m compileall -q packages/node/meshnet_node/shard_runtime_server.py tests/test_shar...
[09:05:25] [INFO] [agent] [Bash] $ .venv/bin/python scripts/generate_native_protocol.py --check
[09:05:28] [INFO] [agent] All quality gates pass. Now let's fix the `prd.json` field-drop bug (restoring dropped top-level fields from HEAD, per the known pattern) and update the DGR-024 entry.
[09:05:30] [INFO] [agent] [Bash] $ python3 - <<'EOF' import json, subprocess cur = json.load(open('.scratch/distributed-gguf-runtime/p...
[09:05:36] [INFO] [agent] [Bash] $ git diff --stat .scratch/distributed-gguf-runtime/prd.json
[09:05:37] [INFO] [agent] [Bash] $ .venv/bin/python -m pytest -q tests/test_ralph_prd_schema.py 2>&1 | tail -30
[09:05:44] [INFO] [agent] prd.json schema tests pass. Now let's check the `scripts/ralph_prd_schema.py` render tool for regenerating the issue file, and update the DGR-024 entry itself (`passes: true` + completionNotes).
[09:05:45] [INFO] [agent] [Bash] $ python3 -c " import json d = json.load(open('.scratch/distributed-gguf-runtime/prd.json')) for us in...
[09:05:46] [INFO] [agent] [Bash] $ python3 -c " import json d = json.load(open('.scratch/distributed-gguf-runtime/prd.json')) print(d.g...
[09:05:50] [INFO] [agent] [Bash] $ echo "exit=$?"
[09:05:54] [INFO] [agent] Now let's update the evidence README with the real hash output and the DGR-024 story entry in prd.json.
[09:05:55] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-024/README.md
[09:06:07] [INFO] [agent] [Bash] $ grep -rn "generated artifact\|sha256" .scratch/distributed-gguf-runtime/evidence/DGR-022/* .scratch/...
[09:06:08] [INFO] [agent] [Bash] $ find packages/node/meshnet_node/native_protocol/generated -type f 2>/dev/null
[09:06:12] [INFO] [agent] [Bash] $ sha256sum packages/node/meshnet_node/native_protocol/generated/shard_runtime_pb2.py packages/node/me...
[09:06:13] [INFO] [agent] [Bash] $ .venv/bin/python -m pip show grpcio 2>/dev/null | grep -i version
[09:06:16] [INFO] [agent] [Bash] $ print('grpcio-tools', m.version('grpcio-tools'))"
[09:06:18] [INFO] [agent] Now let's update the evidence README with the full independent-verification record.
[09:06:22] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-024/README.md edit: "# DGR-024 evidence — real generated-gRPC protocol ..." → "# DGR-024 evidence — real generated-gRPC protocol ..."
[09:06:53] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-024/README.md edit: "## Verification
[09:06:53] [INFO] [agent] ```bash
[09:06:53] [INFO] [agent] PYTHONPATH=packages/node:..." → "## Verification
[09:06:53] [INFO] [agent] The previous evidence for this st..."
[09:06:57] [INFO] [agent] Now update the "Changed files" list and the policy-history framing note about the earlier review-pending status.
[09:07:01] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-024/README.md edit: "## Changed files
[09:07:01] [INFO] [agent] - `packages/node/meshnet_node/sh..." → "## Changed files
[09:07:01] [INFO] [agent] - `packages/node/meshnet_node/sh..."
[09:07:05] [INFO] [agent] [Bash] $ python3 scripts/ralph_prd_schema.py --help 2>&1 | head -30
[09:07:10] [INFO] [agent] Now let's update the DGR-024 story entry in prd.json (passes → true, completionNotes) and regenerate the issue markdown.
[09:07:11] [INFO] [agent] [Bash] $ python3 scripts/ralph_prd_schema.py validate .scratch/distributed-gguf-runtime/prd.json
[09:07:23] [INFO] [agent] [Bash] $ " "prd.json is authoritative." ) us['completionNotes'] = completion_note...
[09:07:35] [INFO] [agent] [Bash] $ python3 -c " import json d = json.load(open('.scratch/distributed-gguf-runtime/prd.json')) for us in...
[09:07:41] [INFO] [agent] Key order matches convention. Now regenerate the DGR-024 issue markdown from the updated prd.json.
[09:07:42] [INFO] [agent] [Bash] $ python3 scripts/ralph_prd_schema.py render .scratch/distributed-gguf-runtime/prd.json DGR-024
[09:07:45] [INFO] [agent] Now let's write this rendered output to the actual issue file and check the existing file format matches.
[09:07:46] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/issues/024-implement-real-generated-grpc-protocol-harness.md
[09:07:49] [INFO] [agent] [Bash] $ python3 scripts/ralph_prd_schema.py render .scratch/distributed-gguf-runtime/prd.json DGR-024 > .scr...
[09:07:53] [INFO] [agent] [Bash] $ python3 -c " import json d = json.load(open('.scratch/distributed-gguf-runtime/gitea-issues.json')) ...
[09:07:56] [INFO] [agent] [Bash] $ git diff .scratch/distributed-gguf-runtime/gitea-issues.json
[09:08:01] [INFO] [agent] [Bash] $ .venv/bin/python -m pytest -q tests/test_shard_runtime_harness.py tests/test_ralph_prd_schema.py 2>&...
[09:08:01] [INFO] [agent] [Bash] $ git status --short
[09:08:07] [INFO] [agent] All 119 tests pass (11 protocol harness + 108 PRD schema), compileall and git diff --check are clean. Now let's run the DGR-performance contract test suite too, since it's part of the working tree, to make sure nothing regressed from the prd.json edit.
[09:08:08] [INFO] [agent] [Bash] $ .venv/bin/python -m pytest -q tests/ -k "not integration" --ignore=tests/test_shard_runtime_harness....
[09:08:14] [INFO] [agent] [Bash] $ .venv/bin/python -m pytest -q tests/test_dynamic_routing.py 2>&1 | tail -15
[09:08:22] [INFO] [agent] All failures are pre-existing missing deps (`cryptography`, `torch`, etc.) in this minimal verification venv — unrelated to DGR-024's own scope, consistent with what the evidence already documents. Now let's append the progress log entry.
[09:08:27] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md
[09:08:32] [INFO] [agent] [Bash] $ tail -40 .ralph-tui/progress.md
[09:08:33] [INFO] [agent] [Bash] $ print(grpc.__version__)" 2>&1 | tail -5
[09:08:56] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md edit: " has the exact Torch/Transformers versions DGR-..." → " has the exact Torch/Transformers versions DGR-..."
[09:08:59] [INFO] [agent] [Bash] $ .venv/bin/python -m pytest -q tests/test_shard_runtime_harness.py tests/test_ralph_prd_schema.py 2>&...
[09:09:05] [INFO] [agent] Everything is clean and passing. Let me do a final read-through of the evidence README to make sure it's coherent end-to-end.
[09:09:06] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-024/README.md
[09:09:09] [INFO] [agent] This reads coherently and fully documents the acceptance criteria. Everything checks out — final validation pass:
[09:09:11] [INFO] [agent] [Bash] $ python3 scripts/ralph_prd_schema.py validate .scratch/distributed-gguf-runtime/prd.json python3 -c "...
[09:09:19] [INFO] [agent] DGR-024 is complete. Summary:
[09:09:19] [INFO] [agent] The real generated-gRPC protocol harness was already implemented and merged, but marked `passes: false` pending independent review. I performed that review: built a fresh `uv`-managed venv (neither the ambient interpreter nor the existing `.venv-rocm` has `grpc` installed) and reran all 11 harness tests for real — they pass, confirming the direct/opaque-relay byte-identity proof, fail-closed negative paths, and generated-stub-drift check all work as claimed.
[09:09:19] [INFO] [agent] I found one real gap against acceptance criterion 5 ("...wire-frame hashes..."): the prior evidence proved wire fidelity only via byte-equality, with no hash ever recorded. I closed it by adding `requests_sha256`/`responses_sha256` to the server's `WireCapture.to_dict()` and extending the test to assert those server-persisted hashes match independently-computed client-side hashes and are identical between the direct and relay paths. I also recorded SHA-256 identities of the generated protobuf stubs.
[09:09:19] [INFO] [agent] I also fixed a recurrence of the known `prd.json` top-level-field-drop bug (restoring it without touching the already-uncommitted DGR-019/DGR-020 work), flipped `DGR-024.passes` to `true` with `completionNotes`, regenerated the issue markdown, and rewrote the evidence README with exact commands/outputs. All quality gates (11/11 + 108/108 PRD-schema tests, compileall, `git diff --check`) pass.
[09:09:19] [INFO] [agent] <promise>COMPLETE</promise>
[09:09:20] [INFO] [progress] Iteration 3 finished. Task DGR-024: COMPLETED. Duration: 577s
[09:09:20] [INFO] [tracker] Task DGR-024 completed in iteration 3
[09:09:21] [INFO] [progress] Iteration 4/∞: Working on DGR-026 - Provision exact split-GGUF artifacts outside /home
[09:09:26] [INFO] [agent] [Bash] $ cat .scratch/distributed-gguf-runtime/issues/026-provision-exact-split-gguf-artifacts-outside-home.m...
[09:09:26] [INFO] [agent] [Bash] $ cat .scratch/distributed-gguf-runtime/RALPH-CONTEXT.md 2>/dev/null | head -200
[09:09:30] [INFO] [agent] [Bash] $ cat .scratch/distributed-gguf-runtime/evidence/DGR-025/README.md 2>/dev/null || echo "NO DGR-025 evi...
[09:09:30] [INFO] [agent] [Bash] $ cat .ralph-tui/progress.md 2>/dev/null | head -150
[09:09:35] [INFO] [agent] [Bash] $ grep -rl "split" packages/node/meshnet_node/ 2>/dev/null echo "---" grep -rln "provision\|mounted-dr...
[09:09:36] [INFO] [agent] [Bash] $ find packages/node/meshnet_node -maxdepth 1 -type f | sort echo "---" find packages/node/meshnet_nod...
[09:09:39] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/downloader.py
[09:09:45] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/glm_alpha/manifest.py
[09:09:45] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/recipe_manifest.py
[09:09:53] [INFO] [agent] [Bash] $ grep -n "class DerivativeBinding\|class ArtifactIdentity\|class ShardIdentity\|def check_route\|sour...
[09:09:57] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/runtime_recipe.py
[09:10:34] [INFO] [agent] [Bash] $ grep -rn "mounted.drive\|MESHNET_.*STORE\|MESHNET_.*ROOT\|model_store\|artifact_root\|/home" package...
[09:10:38] [INFO] [agent] [Bash] $ sed -n '1,40p' packages/node/meshnet_node/recipe_drivers.py echo "----" sed -n '200,260p' packages/n...
[09:11:20] [INFO] [agent] [Bash] $ ls scripts/ | grep -i "llama_cpp_dependency\|gen_recipe\|refresh_glm" echo "---" sed -n '1,50p' scri...
[09:11:37] [INFO] [agent] [Bash] $ sed -n '1,40p' tests/conftest.py 2>/dev/null echo "---" find tests -maxdepth 1 -iname "*manifest*" -...
[09:11:42] [INFO] [agent] [Bash] $ cat pyproject.toml 2>/dev/null | grep -n "pythonpath\|testpaths" -A3 echo "---" grep -rn "^import me...
[09:11:47] [INFO] [agent] [Bash] $ python3 -c "import meshnet_node" 2>&1 | tail -5
[09:11:50] [INFO] [agent] [Bash] $ print(meshnet_node.__file__)"
[09:11:53] [INFO] [agent] Good — it's installed editable already, so plain `python3 -m pytest` works without needing the PYTHONPATH prefix for `meshnet_node`. Let me create the module files now.
[09:11:54] [INFO] [agent] [Bash] $ mkdir -p packages/node/meshnet_node/split_gguf ls tests/data 2>/dev/null | head -20
[09:11:59] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/split_gguf/__init__.py """"Exact split-GGUF artifact manifest and mounted-drive provisioning (DGR-026)."""
[09:11:59] [INFO] [agent] from __future__ import annotations
[09:11:59] [INFO] [agent] from .manifest import (
[09:11:59] [INFO] [agent] SourceArtifact,
[09:11:59] [INFO] [agent] SplitArtifactManifest,
[09:11:59] [INFO] [agent] Split... (958 chars)"
[09:12:35] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/split_gguf/manifest.py """"Exact split-GGUF artifact manifest (DGR-026).
[09:12:35] [INFO] [agent] A split-GGUF artifact is only as trustworthy as its binding to the whole-model
[09:12:35] [INFO] [agent] artifact it was cut from. This module defines the manifest that makes a... (12470 chars)"
[09:12:37] [INFO] [agent] Now the provisioning module:
[09:13:01] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/split_gguf/provision.py """"Resumable, hash-verifying provisioning of exact split-GGUF artifacts (DGR-026).
[09:13:01] [INFO] [agent] Model artifacts must use configured mounted-drive storage and never `/home`
[09:13:01] [INFO] [agent] (RALPH-CONTEXT). This module is the enfo... (8162 chars)"
[09:13:15] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/scripts/provision_split_gguf.py "#!/usr/bin/env python3
[09:13:15] [INFO] [agent] """Provision exact split-GGUF artifacts to mounted-drive storage (DGR-026).
[09:13:15] [INFO] [agent] Reads a split-artifact manifest (`meshnet_node.split_gguf.manifest`),
[09:13:15] [INFO] [agent] resumably fetches every split ... (2682 chars)"
[09:13:17] [INFO] [agent] [Bash] $ chmod +x scripts/provision_split_gguf.py
[09:13:20] [INFO] [agent] Now let's write the tests. First check how tests structure tmp_path fixtures and hashlib usage elsewhere for style consistency.
[09:13:20] [INFO] [agent] [Bash] $ grep -n "def test_" tests/test_glm_alpha_target.py | head -30
[09:13:23] [INFO] [agent] [Bash] $ sed -n '125,140p' tests/test_glm_alpha_target.py grep -rn "forbids_home\|_HOME\|Path(\"/home\")\|/ho...
[09:13:52] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_split_gguf_manifest.py """"DGR-026 — exact split-GGUF artifact manifest.
[09:13:52] [INFO] [agent] Deterministic, offline, GPU-free, and download-free: every manifest here is a
[09:13:52] [INFO] [agent] tiny in-memory fixture, never a real model artifact.
[09:13:52] [INFO] [agent] """
[09:13:52] [INFO] [agent] from __future_... (7895 chars)"
[09:13:55] [INFO] [agent] Now the provisioning tests, covering resume, missing split, hash mismatch, and `/home` rejection.
[09:14:22] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_split_gguf_provision.py """"DGR-026 — resumable, hash-verifying split-GGUF provisioning to mounted-drive storage.
[09:14:22] [INFO] [agent] Deterministic, offline, GPU-free, and download-free: every split here is a
[09:14:22] [INFO] [agent] tiny local fixture file; nothing is... (9297 chars)"
[09:14:28] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/split_gguf/provision.py
[09:14:33] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/meshnet_node/split_gguf/provision.py edit: "def reject_home_path(root: Path) -> Path:
[09:14:33] [INFO] [agent] """R..." → "def reject_home_path(root: Path | str) -> Path:
[09:14:33] [INFO] [agent] ..."
[09:14:37] [INFO] [agent] Now update `provision_split_artifact` and `verify_provisioned_split_artifact` signatures/dest_dir handling to accept str too (they already call `reject_home_path(dest_dir)` which now coerces, and reassign `dest_dir = reject_home_path(dest_dir)` — that's fine since it becomes a Path afterward).
[09:14:38] [INFO] [agent] [Bash] $ grep -n "dest_dir: Path" packages/node/meshnet_node/split_gguf/provision.py
[09:14:41] [INFO] [agent] That's fine since they're just type hints and `reject_home_path` coerces internally. Now let's run the tests.
[09:14:42] [INFO] [agent] [Bash] $ python3 -m pytest -q tests/test_split_gguf_manifest.py tests/test_split_gguf_provision.py 2>&1 | tai...
[09:14:46] [INFO] [agent] [Bash] $ ls /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv* 2>/dev/null find / -maxdepth 3 -iname ".venv*"...
[09:14:51] [INFO] [agent] [Bash] $ print(pytest.__version__)"
[09:16:55] [INFO] [agent] [Bash] $ /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python3 -m pytest -q tests/test_split_gguf_man...
[09:17:06] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_split_gguf_manifest.py edit: "def test_an_empty_splits_array_is_rejected(manifes..." → "def test_an_empty_splits_array_is_rejected(manifes..."
[09:17:11] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_split_gguf_provision.py edit: "def test_a_hash_mismatched_source_file_is_rejected..." → "def test_a_hash_mismatched_source_file_is_rejected..."
[09:17:13] [INFO] [agent] [Bash] $ /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python3 -m pytest -q tests/test_split_gguf_man...
[09:17:17] [INFO] [agent] All 31 tests pass. Now let's run compileall and git diff --check, and quickly test the CLI script end-to-end with a local fixture.
[09:17:18] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 -m...
[09:17:26] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime rm -rf /tm...
[09:17:31] [INFO] [agent] CLI script works end-to-end, including `/home` rejection. Let's clean up the smoke-test temp dir and check the earlier background full-suite run for unrelated breakage.
[09:17:32] [INFO] [agent] [Bash] $ rm -rf /tmp/dgr026-smoke
[09:17:38] [INFO] [agent] [Bash] $ tail -20 /tmp/claude-1000/-run-media-popov-d-DEV-repos-d-popov-com-AI--claude-worktrees-distributed-...
[09:17:44] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 -c...
[09:17:48] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git diff -...
[09:17:55] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 -c...
[09:17:57] [INFO] [agent] Confirmed — same pre-existing bug from prior sessions. Restoring the dropped top-level fields from HEAD before anything else.
[09:18:02] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 - ...
[09:18:04] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git diff -...
[09:18:07] [INFO] [agent] Good, restored cleanly and validates. Now let's mark DGR-026 as passing with completion notes and regenerate its issue markdown.
[09:18:08] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 -c...
[09:18:12] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 -c...
[09:18:14] [INFO] [agent] `completionNotes` goes at the end, after `blocks`. Let's update the DGR-026 entry.
[09:18:22] [INFO] [agent] [Bash] $ provision.py: resumable hash-verifying provisioning via a pluggable " "SplitFetcher, local_direc...
[09:18:24] [INFO] [agent] Now regenerate the issue markdown for DGR-026.
[09:18:26] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 sc...
[09:18:28] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 sc...
[09:18:34] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git status...
[09:18:37] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime grep -n "d...
[09:18:39] [INFO] [agent] Right — it just prints. I need to redirect to the actual issue file.
[09:18:40] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 sc...
[09:18:43] [INFO] [agent] Good, that's exactly the intended regeneration. Now let's run the test-schema suite to verify it matches, and run `test_ralph_prd_schema.py` plus check `git diff --check` again.
[09:18:45] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[09:18:48] [INFO] [agent] Expected — I need to write the evidence README before that gate passes. Let's do that now.
[09:18:49] [INFO] [agent] [Bash] $ mkdir -p /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scr...
[09:18:53] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[09:18:57] [INFO] [agent] [Bash] $ echo "diffcheck exit: $?" python3 scripts/ralph_prd_schema.py validate .scratch/distributed-gguf-run...
[09:19:03] [INFO] [agent] [Bash] $ tail -40 /tmp/claude-1000/-run-media-popov-d-DEV-repos-d-popov-com-AI--claude-worktrees-distributed-...
[09:19:09] [INFO] [agent] [Bash] $ ps aux | grep -i "pytest" | grep -v grep
[09:20:08] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-026/README.md "# DGR-026 evidence — provision exact split-GGUF artifacts outside `/home`
[09:20:08] [INFO] [agent] **Status:** implemented and verified this session; live re-review, not inherited credit.
[09:20:08] [INFO] [agent] **Dependency:** DGR-025 (`evidence/D... (14550 chars)"
[09:20:12] [INFO] [agent] [Bash] $ cat /tmp/claude-1000/-run-media-popov-d-DEV-repos-d-popov-com-AI--claude-worktrees-distributed-gguf-...
[09:20:16] [INFO] [agent] That background run was a stale snapshot from before I fixed the tests and restored `prd.json` — let me re-verify the current state is clean.
[09:20:17] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[09:20:22] [INFO] [agent] All clean now — 139 passed, 0 failed. Final sanity checks:
[09:20:24] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 -m...
[09:20:26] [INFO] [agent] Everything for DGR-026 is in place and green. Now let's append the progress log entry.
[09:20:27] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md
[09:20:32] [INFO] [agent] [Bash] $ tail -30 /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ral...
[09:20:55] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md edit: " - When a story's acceptance criteria include a d..." → " - When a story's acceptance criteria include a d..."
[09:20:58] [INFO] [agent] Also add the reusable pattern to the top "Codebase Patterns" section since it's genuinely reusable (the `/home` rejection convention and the `render` redirect gotcha):
[09:20:58] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md
[09:21:08] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md edit: " missing and `userStories` is otherwise unchanged..." → " missing and `userStories` is otherwise unchanged..."
[09:21:10] [INFO] [agent] Let's do one final full verification pass of the targeted gates before signaling completion.
[09:21:12] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime /run/media...
[09:21:21] [INFO] [agent] All acceptance criteria are met and quality gates pass. Summary:
[09:21:21] [INFO] [agent] - Added `packages/node/meshnet_node/split_gguf/` — `manifest.py` (exact manifest binding source artifact sha256/revision, tokenizer repo/revision/sha256, and every split's name/size/sha256/role/optional half-open range) and `provision.py` (resumable, hash-verifying provisioning: `local_directory_fetcher` for tests/mirrors, `http_split_fetcher` for real network use, `reject_home_path` fail-closed `/home` gate, `verify_provisioned_split_artifact`).
[09:21:21] [INFO] [agent] - Added `scripts/provision_split_gguf.py` CLI, smoke-tested end to end including a real `/home` rejection.
[09:21:21] [INFO] [agent] - Added `tests/test_split_gguf_manifest.py` (19 tests) and `tests/test_split_gguf_provision.py` (12 tests) — deterministic, offline, covering interrupted-resume-from-exact-offset, missing split, hash mismatch, and `/home` rejection.
[09:21:21] [INFO] [agent] - Quantization/topology are manifest fields only, proven by a test parsing a differently-quantized, single-split manifest.
[09:21:21] [INFO] [agent] - Restored `prd.json`'s dropped top-level fields (5th recurrence of the known bug), marked `DGR-026.passes = true`, regenerated the issue markdown, and wrote `evidence/DGR-026/README.md`.
[09:21:21] [INFO] [agent] - All gates green: targeted tests (139 passed), `compileall`, `git diff --check`, and `ralph_prd_schema.py validate` all pass. Progress log updated with two new reusable patterns.
[09:21:21] [INFO] [agent] No commits were made — all changes are left uncommitted for review.
[09:21:21] [INFO] [agent] <promise>COMPLETE</promise>
[09:21:22] [INFO] [progress] Iteration 4 finished. Task DGR-026: COMPLETED. Duration: 721s
[09:21:22] [INFO] [tracker] Task DGR-026 completed in iteration 4
[09:21:23] [INFO] [progress] Iteration 5/∞: Working on DGR-028 - Implement numbered patch-stack apply and verification
[09:21:27] [INFO] [agent] [Bash] $ pwd && ls .scratch/distributed-gguf-runtime/
[09:21:28] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md
[09:21:31] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/issues/028-implement-numbered-patch-stack-apply-and-verification.md
[09:21:31] [INFO] [agent] [Bash] $ ls .scratch/distributed-gguf-runtime/evidence/ | sort
[09:21:34] [INFO] [agent] [Bash] $ ls -la .scratch/distributed-gguf-runtime/evidence/DGR-028/ .scratch/distributed-gguf-runtime/evidenc...
[09:21:35] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-027/README.md
[09:21:39] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-028/README.md
[09:21:44] [INFO] [agent] [Bash] $ find packages/node/native/llama -maxdepth 3 2>&1 | head -50
[09:21:45] [INFO] [agent] [Bash] $ python3 -c " import json d=json.load(open('.scratch/distributed-gguf-runtime/prd.json')) for s in d....
[09:21:52] [INFO] [agent] [Bash] $ git status --short packages/node/native/llama scripts/llama_cpp_dependency.py tests/test_llama_cpp_d...
[09:21:53] [INFO] [agent] [Bash] $ git log --oneline -5 -- packages/node/native/llama scripts/llama_cpp_dependency.py tests/test_llama_...
[09:21:57] [INFO] [agent] [Bash] $ git show 7da90ef --stat | head -40
[09:22:08] [INFO] [agent] [Bash] $ git status --short | head -30
[09:22:09] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/scripts/llama_cpp_dependency.py
[09:22:11] [INFO] [agent] This looks well-implemented. Let me now independently run the verification to confirm it actually works — inspect, fetch, apply, reverse against the real upstream checkout, plus the test suite.
[09:22:13] [INFO] [agent] [Bash] $ python3 -m pytest -q tests/test_llama_cpp_dependency.py 2>&1 | tail -30
[09:22:13] [INFO] [agent] [Bash] $ cd packages/node/native/llama/patches && sha256sum -c SHA256SUMS
[09:22:18] [INFO] [agent] [Bash] $ find /run/media/popov/d/DEV/repos/d-popov.com/AI -maxdepth 2 -iname "*venv*" 2>/dev/null
[09:22:21] [INFO] [agent] [Bash] $ source /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/activate && python3 -m pytest -q tests/...
[09:22:25] [INFO] [agent] [Bash] $ pwd
[09:22:27] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime && source ...
[09:22:32] [INFO] [agent] Now let's independently verify the real upstream fetch/apply/reverse cycle, since the prior evidence noted the build dir wasn't present to reverify.
[09:22:34] [INFO] [agent] [Bash] $ source /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/activate && python3 -m compileall -q sc...
[09:22:36] [INFO] [agent] Now let's do the real fetch (network, opt-in) and full apply/verify/reverse cycle against the actual upstream checkout.
[09:22:36] [INFO] [agent] [Bash] $ ls build 2>&1
[09:22:40] [INFO] [agent] [Bash] $ source /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/activate && python3 scripts/llama_cpp_d...
[09:22:49] [INFO] [agent] `verify` (apply→check reverse leaves pristine) passed cleanly. Now let's confirm the apply step actually leaves a correctly patched tree, and test the native build claim (test-meshnet-range-ownership target).
[09:22:49] [INFO] [agent] [Bash] $ source /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/activate && python3 scripts/llama_cpp_d...
[09:22:53] [INFO] [agent] Apply succeeds, patched tree matches the recorded `patched_tree` (`c0045714735ae5ee7b7334a480d8ac04e03e1b18` per earlier README). Now let's actually try the native CMake/CTest build to independently verify the previously-unreverified claim.
[09:22:53] [INFO] [agent] [Bash] $ cmake --version 2>&1 | head -1
[09:22:57] [INFO] [agent] cmake isn't available in this environment either, so I can't independently re-verify the native CTest build claim — I'll record that honestly rather than repeat it as fact. Let me reverse the patch to restore the pristine checkout.
[09:22:58] [INFO] [agent] [Bash] $ source /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/activate && python3 scripts/llama_cpp_d...
[09:23:02] [INFO] [agent] Reverse restores exact pristine pin. Now let's check the fail-closed behaviors — first-incompatible-patch reporting, and the license/control-plane boundary checks — by reading the tests and confirming they exercise these paths.
[09:23:03] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_llama_cpp_dependency.py
[09:23:14] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/native/llama/patches/UPSTREAM-ASSUMPTIONS.json
[09:23:17] [INFO] [agent] This is well-scoped: one concern per patch, chained blob assumptions, and explicit upstream API assumptions. This satisfies the "record upstream file/API assumptions and fail with the first incompatible patch" criterion — I confirmed the mechanism (`_check_assumption_blobs`) runs live during my `apply` test above. All five criteria check out against real code and a real live re-run. Let me also confirm PATCH-STACK.md documents this properly.
[09:23:18] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/native/llama/PATCH-STACK.md
[09:23:25] [INFO] [agent] [Bash] $ python3 scripts/ralph_prd_schema.py --help 2>&1 | head -30
[09:23:29] [INFO] [agent] [Bash] $ python3 -c " import json d = json.load(open('.scratch/distributed-gguf-runtime/prd.json')) print(lis...
[09:23:33] [INFO] [agent] [Bash] $ git diff .scratch/distributed-gguf-runtime/prd.json | head -100
[09:23:42] [INFO] [agent] This matches a known gotcha from progress.md: `prd.json` top-level fields (`branchName`, `sourceOfTruth`, `qualityGates`, `metadataSchema`, `milestones`) have been silently stripped, almost certainly by ralph-tui's own read/write round-trip. Per that pattern, I should restore them from HEAD before touching anything else in this file.
[09:23:42] [INFO] [agent] [Bash] $ git diff .scratch/distributed-gguf-runtime/prd.json | tail -220
[09:23:57] [INFO] [agent] This is the previously-documented `prd.json` field-drop bug recurring — but this time `userStories` also has legitimate uncommitted updates from other stories (DGR-019/020/024/026 flipped to `passes: true` with completionNotes). I need to restore only the dropped top-level sections from HEAD while preserving all current `userStories` content, then make my own DGR-028 edit on top.
[09:23:58] [INFO] [agent] [Bash] $ python3 -c " import json head = json.load(open('/dev/stdin')) print(list(head.keys())) " < <(git sho...
[09:24:03] [INFO] [agent] [Bash] $ python3 << 'EOF' import json, collections head_raw = __import__('subprocess').run( ['git', 'sho...
[09:24:05] [INFO] [agent] Now let's validate the restored file and confirm the diff only added back missing sections without disturbing the legitimate userStories changes.
[09:24:07] [INFO] [agent] [Bash] $ source /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/activate && python3 scripts/ralph_prd_s...
[09:24:10] [INFO] [agent] Validation passes and the diff is now minimal. Now let's run the full `test_ralph_prd_schema.py` suite to confirm nothing regressed (this test caught the drop bug before per progress.md notes).
[09:24:11] [INFO] [agent] [Bash] $ source /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/activate && python3 -m pytest -q tests/...
[09:24:14] [INFO] [agent] All 108 pass. Now let's flip DGR-028's `passes` to `true` and add `completionNotes`, matching the pattern used by the other recently-completed stories in this same file.
[09:24:22] [INFO] [agent] [Bash] $ no new native-build claim is made " "beyond that prior evidence." ) json.dump(d,...
[09:24:28] [INFO] [agent] [Bash] $ source /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/activate && python3 scripts/ralph_prd_s...
[09:24:32] [INFO] [agent] All 108 pass again. Now let's check gitea-issues.json — it may need a sync too, but per RALPH-CONTEXT.md that's the controller's job via `ralph_gitea_sync.py`, not mine to hand-edit. Let's check final repo-wide state and run the broader shared quality gates.
[09:24:34] [INFO] [agent] [Bash] $ source /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/activate git diff --check && echo DIFF_...
[09:24:40] [INFO] [agent] Now let's update the DGR-028 evidence README to reflect this fresh independent re-verification session, rather than leaving the stale "review is pending" language.
[09:24:46] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-028/README.md edit: "# DGR-028 evidence — numbered llama.cpp patch-stac..." → "# DGR-028 evidence — numbered llama.cpp patch-stac..."
[09:25:07] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-028/README.md edit: "## Limitations and handoff
[09:25:07] [INFO] [agent] - This is patch-stack ..." → "## Limitations and handoff
[09:25:07] [INFO] [agent] - This is patch-stack ..."
[09:25:09] [INFO] [agent] Now let's finalize by checking overall git status and confirming everything is coherent.
[09:25:09] [INFO] [agent] [Bash] $ git status --short
[09:25:12] [INFO] [agent] Good — all pre-existing unrelated work (DGR-019/020/024/026 evidence, split_gguf, dgr_performance) is preserved, and only DGR-028-scoped files plus the necessary prd.json field-drop repair were touched. Now let's update `.ralph-tui/progress.md` per the workflow instructions.
[09:25:12] [INFO] [agent] [Bash] $ tail -40 .ralph-tui/progress.md 2>&1
[09:25:14] [INFO] [agent] Good, matches the expected pattern. Now appending the DGR-028 entry.
[09:25:27] [INFO] [agent] [Bash] $ the actual DGR-028 task in this session was independent re-verification against live source plus...
[09:25:29] [INFO] [agent] Final sanity check across the touched files, then done — no commit per instructions.
[09:25:31] [INFO] [agent] [Bash] $ source /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/activate python3 scripts/ralph_prd_sche...
[09:25:34] [INFO] [agent] [Bash] $ git status --short .ralph-tui/progress.md
[09:25:42] [INFO] [agent] That's intentionally gitignored (session-local Ralph tooling state), consistent with other runs. Everything checks out.
[09:25:42] [INFO] [agent] ## Summary
[09:25:42] [INFO] [agent] DGR-028's patch-stack implementation was already fully built and committed (`7da90ef`) from a prior session, but `prd.json` still had `passes: false`. Per the mandate to distrust legacy pass states, I independently re-verified it against live source rather than accepting that:
[09:25:42] [INFO] [agent] - Confirmed all five patches' SHA256SUMS, the `UPSTREAM-ASSUMPTIONS.json` blob/API bindings, and control-plane/license boundary checks.
[09:25:42] [INFO] [agent] - Live-ran `verify`/`apply`/`reverse` against the real cached `e920c523...` upstream checkout — apply produced the exact locked patched tree, reverse restored the pristine pin. `tests/test_llama_cpp_dependency.py` (7 passed), `compileall`, and `git diff --check` all clean.
[09:25:42] [INFO] [agent] - Honestly noted the one gap: `cmake` isn't installed in this environment, so the prior session's native CTest claim couldn't be re-executed here (not re-confirmed, not retracted).
[09:25:42] [INFO] [agent] - Found (again) the known `prd.json` top-level-field-drop bug, this time with other stories' legitimate uncommitted `passes`/`completionNotes` updates also in the working tree — did a targeted field-level restore from `HEAD` instead of overwriting the whole file, then set `DGR-028.passes = true` and regenerated its issue Markdown.
[09:25:42] [INFO] [agent] Changed: `evidence/DGR-028/README.md`, `prd.json`, `issues/028-...md`, and `.ralph-tui/progress.md` (gitignored). No source/test edits needed — nothing left uncommitted was reverted, and pre-existing unrelated work (DGR-019/020/026 evidence, split_gguf, dgr_performance) was preserved untouched.
[09:25:42] [INFO] [agent] <promise>COMPLETE</promise>
[09:25:43] [INFO] [progress] Iteration 5 finished. Task DGR-028: COMPLETED. Duration: 260s
[09:25:43] [INFO] [tracker] Task DGR-028 completed in iteration 5
[09:25:44] [INFO] [progress] Iteration 6/∞: Working on DGR-029 - Create the native CMake skeleton and deterministic CPU lane
[09:25:48] [INFO] [agent] [Bash] Check current directory context $ cd .claude/worktrees/distributed-gguf-runtime 2>/dev/null && pwd || pwd
[09:25:50] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/issues/029-create-the-native-cmake-skeleton-and-deterministic-cpu-lane.md
[09:25:54] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md
[09:25:55] [INFO] [agent] [Bash] List evidence directories $ find /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch...
[09:25:58] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-027/README.md
[09:25:59] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-028/README.md
[09:26:04] [INFO] [agent] [Bash] Check native build toolchain availability $ which ctest 2>&1
[09:26:04] [INFO] [agent] [Error: Exit code 1
[09:26:04] [INFO] [agent] /usr/bin/which: no cmake in (/home/popov/.kimi-code/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.bun/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.bun/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.local/bin:/home/popov/bin:/usr/local/bin:/usr/bin:/usr/local/sbin:/usr/sbin:/home/popov/.dotnet/tools:/var/lib/snapd/snap/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.vscode-oss/extensions/ms-python.debugpy-2026.6.0-linux-x64/bundled/scripts/noConfigScripts:/home/popov/.lmstudio/bin)
[09:26:04] [INFO] [agent] bash: cmake: command not found
[09:26:04] [INFO] [agent] /usr/bin/which: no ninja in (/home/popov/.kimi-code/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.bun/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.bun/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.local/bin:/home/popov/bin:/usr/local/bin:/usr/bin:/usr/local/sbin:/usr/sbin:/home/popov/.dotnet/tools:/var/lib/snapd/snap/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.vscode-oss/extensions/ms-python.debugpy-2026.6.0-linux-x64/bundled/scripts/noConfigScripts:/home/popov/.lmstudio/bin)
[09:26:04] [INFO] [agent] /usr/bin/gcc
[09:26:04] [INFO] [agent] /usr/bin/g++
[09:26:04] [INFO] [agent] /usr/bin/make
[09:26:04] [INFO] [agent] ---
[09:26:04] [INFO] [agent] /usr/bin/which: no ctest in (/home/popov/.kimi-code/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.bun/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.bun/bin:/home/popov/.local/bin:/home/popov/.bun/bin:/home/linuxbrew/.linuxbrew/bin:/home/linuxbrew/.linuxbrew/sbin:/run/media/popov/d/DEV/repos/d-popov.com/gogo2:/home/popov/.npm-global/bin:/home/popov/.opencode/bin:/home/popov/.local/bin:/home/popov/bin:/usr/local/bin:/usr/bin:/usr/local/sbin:/usr/sbin:/home/popov/.dotnet/tools:/var/lib/snapd/snap/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.lmstudio/bin:/home/popov/.vscode-oss/extensions/ms-python.debugpy-2026.6.0-linux-x64/bundled/scripts/noConfigScripts:/home/popov/.lmstudio/bin)]
[09:26:05] [INFO] [agent] [Bash] Check git status $ git status --short | head -50
[09:26:06] [INFO] [agent] [Bash] List native package files $ find /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages...
[09:26:11] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/native/CMakeLists.txt
[09:26:12] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/native/README.md
[09:26:14] [INFO] [agent] [Bash] Check for any cmake availability via python/apt/dnf/snap $ which snap 2>&1
[09:26:26] [INFO] [agent] [Bash] Check dnf availability and network connectivity $ echo "network exit code: $?"
[09:26:28] [INFO] [agent] [Bash] Read tail of progress.md $ tail -150 .ralph-tui/progress.md 2>/dev/null | head -300
[09:26:37] [INFO] [agent] [Bash] Check python/uv tooling for installing cmake via pip $ pip3 index versions cmake 2>&1 | head -5
[09:26:44] [INFO] [agent] [Bash] Check for existing venv at repo root $ ls -la /run/media/popov/d/DEV/repos/d-popov.com/AI/ 2>&1 | grep -i venv
[09:26:48] [INFO] [agent] [Bash] Check if existing venv has cmake $ /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/cmake --version 2>&1
[09:27:16] [INFO] [agent] [Bash] Read patch 0001 $ cat packages/node/native/llama/patches/0001-cmake-reserve-meshnet-patch-stack-abi-marker.patch
[09:27:17] [INFO] [agent] [Bash] Read patch 0005 $ cat packages/node/native/llama/patches/0005-worker-range-report-hook.patch
[09:27:31] [INFO] [agent] [Bash] List functions and CLI subcommands in llama_cpp_dependency.py $ grep -n "^def \|add_parser\|subparsers.add_parser\|^class " scripts/llama_cpp_dependency.py | head -...
[09:27:32] [INFO] [agent] [Bash] Check gitignore for build/native entries $ cat .gitignore | grep -n -i "build\|native"
[09:27:33] [INFO] [agent] [Bash] Print DGR-029 story from prd.json $ python3 - <<'EOF' import json with open('.scratch/distributed-gguf-runtime/prd.json') as f: prd ...
[09:27:39] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/scripts/llama_cpp_dependency.py
[09:27:40] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/scripts/llama_cpp_dependency.py
[09:27:47] [INFO] [agent] [Bash] Check history of llama_cpp_dependency.py $ git log --oneline -- scripts/llama_cpp_dependency.py | head -20
[09:27:48] [INFO] [agent] [Bash] Print UPSTREAM_LOCK.json contents $ python3 -c " import json d = json.load(open('packages/node/native/llama/UPSTREAM_LOCK.json')) print(...
[09:28:20] [INFO] [agent] [Bash] Check if build/ workspace already exists $ find build -maxdepth 3 2>&1 | head -30
[09:28:25] [INFO] [agent] [Bash] Check llama.cpp source checkout state $ cd - >/dev/null
[09:28:27] [INFO] [agent] [Bash] Activate venv with cmake and run existing dependency tests $ python3 -m pytest -q tests/test_llama_cpp_dependency.py 2>&1 | tail -20
[09:28:31] [INFO] [agent] Good, source is pristine and tests pass. Now let me try the existing `build`/`smoke`/`reproduce` pipeline live, since it's never been verified with real cmake.
[09:28:34] [INFO] [agent] [Bash] Try existing build() pipeline against patched source $ export PATH="/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin:$PATH" rm -rf /tmp/dgr029-build-t...
[09:29:00] [INFO] [agent] [Bash] Check build output directory $ cat /tmp/dgr029-build-trial/meshnet-build-metadata.json 2>&1
[09:29:02] [INFO] [agent] This actually built successfully. Let's run the smoke check too.
[09:29:04] [INFO] [agent] [Bash] Run smoke test against built binary $ export PATH="/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin:$PATH" ls /tmp/dgr029-build-trial...
[09:30:00] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_llama_cpp_dependency.py
[09:31:31] [INFO] [agent] [Bash] Check for existing skip/toolchain-detection patterns in tests $ grep -rn "skipif\|pytest.mark.skip\|shutil.which" tests/ scripts/ packages/node/native/ 2>/dev/null ...
[09:31:34] [INFO] [agent] [Bash] Check if apply already applied (state check) and time it $ ) 2>&1 | tail -10
[09:31:45] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_native_shard_protocol.py
[09:31:45] [INFO] [agent] [Bash] Check cc-requirement pattern in test_native_identity_emission.py $ sed -n '1,50p' tests/test_native_identity_emission.py
[09:32:00] [INFO] [agent] [Bash] Reverse patches to restore pristine cached source $ cd - >/dev/null rm -rf /tmp/dgr029-build-trial /tmp/dgr029-timing
[09:32:04] [INFO] [agent] Good, source is back to pristine. Now let's look at the full script to plan the additions precisely.
[09:32:06] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/scripts/llama_cpp_dependency.py
[09:32:18] [INFO] [agent] [Bash] Confirm exact ggml backend option names in fetched source $ grep -n "^option(GGML_CUDA\|^option(GGML_VULKAN\|^option(GGML_METAL\|^option(GGML_HIP\|^option(GGML_...
[09:32:25] [INFO] [agent] [Bash] Check BLAS/Metal default variable definitions $ grep -n "GGML_BLAS_DEFAULT\|GGML_METAL_DEFAULT" build/llama.cpp/source/ggml/CMakeLists.txt | head -1...
[09:32:39] [INFO] [agent] [Bash] Check if pip cmake package ships ctest binary $ ls /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/ | grep -i -E "^ctest$|^cmake$|^cpack$"
[09:32:59] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/scripts/llama_cpp_dependency.py
[09:33:02] [INFO] [agent] Now let's implement all the changes. First, the toolchain helper refactor and `ctest_lane` function:
[09:33:05] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/scripts/llama_cpp_dependency.py edit: "def _cmake() -> str:
[09:33:05] [INFO] [agent] """Use an explicit overri..." → "def _toolchain_binary(name: str, env_var: str) -> ..."
[09:33:08] [INFO] [agent] Now add the `ctest_lane` function after `smoke()`, and wire it into `reproduce()`:
[09:33:13] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/scripts/llama_cpp_dependency.py edit: "def verify(workspace: pathlib.Path) -> None:
[09:33:13] [INFO] [agent] "..." → "def ctest_lane(build_dir: pathlib.Path) -> None:
[09:33:13] [INFO] [agent] ..."
[09:33:15] [INFO] [agent] Now wire the CLI subcommand:
[09:33:18] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/scripts/llama_cpp_dependency.py edit: " smoke_parser = subcommands.add_parser("smoke")..." → " smoke_parser = subcommands.add_parser("smoke")..."
[09:33:23] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/scripts/llama_cpp_dependency.py edit: " elif args.command == "smoke":
[09:33:23] [INFO] [agent] ..." → " elif args.command == "smoke":
[09:33:23] [INFO] [agent] ..."
[09:33:26] [INFO] [agent] Now update `UPSTREAM_LOCK.json`'s `build` section to force an explicit CPU-only lane and add the CTest target/regex:
[09:33:32] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/native/llama/UPSTREAM_LOCK.json edit: " "build": {
[09:33:32] [INFO] [agent] "generator": "Unix Makefiles",
[09:33:32] [INFO] [agent] ..." → " "build": {
[09:33:32] [INFO] [agent] "generator": "Unix Makefiles",
[09:33:32] [INFO] [agent] ..."
[09:33:32] [INFO] [agent] [Error: <tool_use_error>String to replace not found in file.
[09:33:32] [INFO] [agent] String: "build": {
[09:33:32] [INFO] [agent] "generator": "Unix Makefiles",
[09:33:32] [INFO] [agent] "cmake_minimum": "3.14",
[09:33:32] [INFO] [agent] "cxx_standard": "17",
[09:33:32] [INFO] [agent] "configure_flags": [
[09:33:32] [INFO] [agent] "-DCMAKE_BUILD_TYPE=Release",
[09:33:32] [INFO] [agent] "-DLLAMA_BUILD_TESTS=OFF",
[09:33:32] [INFO] [agent] "-DLLAMA_BUILD_EXAMPLES=ON",
[09:33:32] [INFO] [agent] "-DLLAMA_BUILD_SERVER=OFF",
[09:33:32] [INFO] [agent] "-DLLAMA_BUILD_TOOLS=OFF",
[09:33:32] [INFO] [agent] "-DLLAMA_BUILD_APP=OFF",
[09:33:32] [INFO] [agent] "-DLLAMA_CURL=OFF"
[09:33:32] [INFO] [agent] ],
[09:33:32] [INFO] [agent] "native_targets": [
[09:33:32] [INFO] [agent] "llama-gguf-hash"
[09:33:32] [INFO] [agent] ],
[09:33:32] [INFO] [agent] "smoke_binary": "bin/llama-gguf-hash",
[09:33:32] [INFO] [agent] "smoke_args": [
[09:33:32] [INFO] [agent] "--help"
[09:33:32] [INFO] [agent] ],
[09:33:32] [INFO] [agent] "smoke_output_token": "usage"
[09:33:32] [INFO] [agent] },</tool_use_error>]
[09:33:35] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/native/llama/UPSTREAM_LOCK.json
[09:33:44] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/native/llama/UPSTREAM_LOCK.json edit: " "configure_flags": [
[09:33:44] [INFO] [agent] "-DCMAKE_BUILD_TYPE..." → " "configure_flags": [
[09:33:44] [INFO] [agent] "-DCMAKE_BUILD_TYPE..."
[09:33:48] [INFO] [agent] Now let's test the full `reproduce` pipeline live, out-of-tree, from a fresh build dir:
[09:33:50] [INFO] [agent] [Bash] Run full reproduce pipeline: fetch/apply/build/smoke/ctest/reverse $ export PATH="/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin:$PATH" cd /run/media/popov/d/DEV/...
[09:36:10] [INFO] [agent] The full end-to-end lane works: fetch → apply → build (CPU-only, ~2m16s) → smoke → CTest (1/1 passed) → reverse. Let's confirm the source was left pristine and check the build's backend libraries to prove CPU-only.
[09:36:13] [INFO] [agent] [Bash] Verify pristine source restore and CPU-only backend build $ cd - >/dev/null echo "--- backend libs built ---" ls build/llama.cpp/build/bin/*.so* 2>&1 echo "--- ...
[09:36:16] [INFO] [agent] Excellent — CPU-only confirmed, source restored pristine. Now let's test the "actionable toolchain failure" path when cmake is unavailable, and test rerunning `reproduce` to confirm idempotency (build dir must be removed first since it's a fresh artifact each time).
[09:36:19] [INFO] [agent] [Bash] Confirm actionable failure message when cmake toolchain is absent $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime rm -rf bui...
[09:36:26] [INFO] [agent] [Bash] Test actionable cmake-missing failure with patches applied $ export PATH="/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin:$PATH" cd /run/media/popov/d/DEV/...
[09:36:31] [INFO] [agent] Actionable failure confirmed. Now restore pristine state and test a missing-target/ctest-failure scenario, plus run the existing offline test suite.
[09:36:33] [INFO] [agent] [Bash] Restore pristine source, run existing offline test suite $ cd - >/dev/null python3 -m pytest -q tests/test_llama_cpp_dependency.py 2>&1 | tail -20
[09:37:11] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_llama_cpp_dependency.py
[09:37:38] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_llama_cpp_dependency.py edit: "from __future__ import annotations
[09:37:38] [INFO] [agent] import hashlib..." → "from __future__ import annotations
[09:37:38] [INFO] [agent] import hashlib..."
[09:37:40] [INFO] [agent] Now append the two new tests at the end of the file:
[09:37:50] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_llama_cpp_dependency.py edit: "def test_patch_stack_does_not_contain_meshnet_cont..." → "def test_patch_stack_does_not_contain_meshnet_cont..."
[09:37:52] [INFO] [agent] Now let's run the full test suite to verify these pass (cmake is available via the venv):
[09:37:54] [INFO] [agent] [Bash] Run the extended dependency test suite $ export PATH="/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin:$PATH" cd /run/media/popov/d/DEV/...
[09:38:00] [INFO] [agent] [Bash] Confirm the gated test skips cleanly without cmake on PATH $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime env -i HOM...
[09:38:06] [INFO] [agent] [Bash] Check .venv-rocm for pytest without cmake sibling $ print('pytest ok')" 2>&1 ls /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv-rocm/bin/ | grep -i cm...
[09:38:13] [INFO] [agent] [Bash] Directly verify the skip condition logic in isolation $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 - ...
[09:38:20] [INFO] [agent] [Bash] Check prd.json top-level fields for the known drop bug $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 - ...
[09:38:27] [INFO] [agent] [Bash] Compare current prd.json userStories against HEAD to isolate the drop $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git show H...
[09:38:33] [INFO] [agent] [Bash] Inspect the metadata field present in current prd.json $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 - ...
[09:38:39] [INFO] [agent] [Bash] Restore missing top-level prd.json fields from HEAD while preserving current userStories $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 - ...
[09:38:43] [INFO] [agent] [Bash] Validate repaired prd.json $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 sc...
[09:38:45] [INFO] [agent] Now let's mark DGR-029 as passing in prd.json and regenerate the issue markdown.
[09:38:53] [INFO] [agent] [Bash] Mark DGR-029 passes and regenerate issue markdown $ GGML_CUDA/HIP/VULKAN/METAL/BLAS=OFF), added a ctest_lane()/`ctest` CLI " "command runnin...
[09:38:58] [INFO] [agent] [Bash] Show diff of regenerated issue file $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git diff ....
[09:39:00] [INFO] [agent] Good. Now let's write the evidence README for DGR-029.
[09:39:02] [INFO] [agent] [Bash] Check diff stat of changed files for evidence README $ mkdir -p /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scr...
[09:39:10] [INFO] [agent] [Bash] Run compileall and git diff --check $ export PATH="/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin:$PATH" cd /run/media/popov/d/DEV/...
[09:39:13] [INFO] [agent] [Bash] Run targeted test suites for dependency and prd schema $ export PATH="/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin:$PATH" cd /run/media/popov/d/DEV/...
[09:39:20] [INFO] [agent] Expected — need to write the evidence README now (I made the mkdir but not the file yet). Let me write it.
[09:40:08] [INFO] [agent] [Write] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-029/README.md "# DGR-029 evidence — native CMake skeleton and deterministic CPU lane
[09:40:08] [INFO] [agent] **Status:** implementation complete, live-verified in this session (2026-07-22).
[09:40:08] [INFO] [agent] **Authority:** local `prd.json` is authoritative... (11276 chars)"
[09:40:22] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/DGR-029/README.md edit: "**Status:** implementation complete, live-verified..." → "**Status:** implementation complete, live-verified..."
[09:40:25] [INFO] [agent] Now let's re-run the full quality gates to confirm everything is green:
[09:40:26] [INFO] [agent] [Bash] Run full quality gate suite after evidence README added $ export PATH="/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin:$PATH" cd /run/media/popov/d/DEV/...
[09:40:35] [INFO] [agent] [Bash] Final git status check $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git status...
[09:40:42] [INFO] [agent] [Bash] Confirm build output directory is ignored $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime ls -la bui...
[09:40:42] [INFO] [agent] [Error: Exit code 1
[09:40:42] [INFO] [agent] total 12
[09:40:42] [INFO] [agent] drwxr-xr-x 1 popov popov 0 Jul 22 09:36 .
[09:40:42] [INFO] [agent] drwxr-xr-x 1 popov popov 0 Jul 17 16:26 ..
[09:40:42] [INFO] [agent] drwxr-xr-x 1 popov popov 12288 Jul 22 09:36 source
[09:40:42] [INFO] [agent] .gitignore:6:build/ build/llama.cpp/build
[09:40:42] [INFO] [agent] du: cannot access 'build/llama.cpp/build': No such file or directory]
[09:40:48] [INFO] [agent] [Bash] Review full diff of llama_cpp_dependency.py $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git diff s...
[09:40:54] [INFO] [agent] [Bash] Review UPSTREAM_LOCK.json diff $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime git diff p...
[09:40:56] [INFO] [agent] Good, everything is clean and minimal. Now let's append the progress.md entry per the workflow instructions.
[09:40:57] [INFO] [agent] [Bash] Check end of progress.md before appending $ tail -20 /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ral...
[09:41:02] [INFO] [agent] [Bash] Locate codebase patterns section header line number $ grep -n "^## Codebase Patterns" /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distri...
[09:41:05] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md
[09:41:08] [INFO] [agent] Now let's add a new pattern entry and the DGR-029 log entry.
[09:41:19] [INFO] [agent] [Edit] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/progress.md edit: " See `packages/node/meshnet_node/split_gguf/provi..." → " See `packages/node/meshnet_node/split_gguf/provi..."
[09:41:43] [INFO] [agent] [Bash] Append DGR-029 progress log entry $ `native_targets`/`cmake --build --target <name>` still controls what actually compiles, so addin...
[09:41:47] [INFO] [agent] My edits landed correctly. Let's do a final sanity check of the whole diff set and confirm the story is complete.
[09:41:52] [INFO] [agent] [Bash] Final full verification pass $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime export PAT...
[09:42:03] [INFO] [agent] Everything checks out. All acceptance criteria for DGR-029 are met and verified live:
[09:42:03] [INFO] [agent] **Summary:**
[09:42:03] [INFO] [agent] - Formalized the native CMake skeleton/CPU lane that partially existed but was never proven (DGR-028's `build()`/`smoke()`/`reproduce()` had no cmake in that session and no test coverage).
[09:42:03] [INFO] [agent] - Locked an explicit CPU-only configure (`GGML_CPU=ON`; CUDA/HIP/Vulkan/Metal/BLAS all forced `OFF`) in `UPSTREAM_LOCK.json`, added a `ctest_lane()`/`ctest` CLI command running the deterministic model-free `test-meshnet-range-ownership` fixture via CTest, and fixed `reproduce()` to reverse the patch stack afterward (previously left the cache permanently patched, breaking reuse).
[09:42:03] [INFO] [agent] - Live-verified end-to-end: fresh out-of-tree build (~2m16s) → smoke → CTest 1/1 passed → source restored to the exact pristine pin. Confirmed only CPU `ggml` backend libraries were produced, and confirmed an actionable failure (`cmake is unavailable; set CMAKE...`) when the toolchain is missing.
[09:42:03] [INFO] [agent] - Installed `cmake` via pip into the existing repo-root `.venv` (no system-wide package install) since neither ambient Python nor `.venv-rocm` had it.
[09:42:03] [INFO] [agent] - Added two new pytest tests (117 total pass): one offline shape check, one `cmake`-gated wiring test using a fast synthetic CMake project.
[09:42:03] [INFO] [agent] - Repaired the recurring `prd.json` top-level field-drop bug, marked `DGR-029.passes = true`, regenerated the issue file, and wrote `.scratch/distributed-gguf-runtime/evidence/DGR-029/README.md`.
[09:42:03] [INFO] [agent] Changes are left uncommitted for review, per instructions.
[09:42:03] [INFO] [agent] <promise>COMPLETE</promise>
[09:42:04] [INFO] [progress] Iteration 6 finished. Task DGR-029: COMPLETED. Duration: 980s
[09:42:04] [INFO] [tracker] Task DGR-029 completed in iteration 6
[09:42:05] [INFO] [progress] Iteration 7/∞: Working on DGR-030 - Add accelerator build presets and native CI matrix
[09:42:09] [INFO] [agent] [Bash] $ cat /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/...
[09:42:11] [INFO] [agent] [Bash] $ cat /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/...
[09:42:15] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime echo "=== ...
[09:42:16] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime find packa...
[09:42:20] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/packages/node/native/llama/UPSTREAM_LOCK.json
[09:42:20] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/scripts/llama_cpp_dependency.py
[09:42:35] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime grep -rn "...
[09:43:01] [INFO] [agent] [Bash] $ ls -la .github 2>/dev/null
[09:43:01] [INFO] [agent] [Error: Exit code 2
[09:43:01] [INFO] [agent] ./deploy/portainer/meshnet-relay-only-stack.yml
[09:43:01] [INFO] [agent] ./deploy/portainer/meshnet-tracker-nobuild-stack.yml
[09:43:01] [INFO] [agent] ./deploy/portainer/meshnet-tracker-stack.yml
[09:43:01] [INFO] [agent] ---
[09:43:01] [INFO] [agent] ./build/llama.cpp/source/.github/workflows
[09:43:01] [INFO] [agent] --- gitea/github dirs ---]
[09:43:09] [INFO] [agent] [Bash] $ cd /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime python3 - ...
[09:43:18] [INFO] [agent] [Read] /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/tests/test_llama_cpp_dependency.py
[09:44:13] [INFO] [agent] [Bash] $ done uname -s
[09:44:13] [INFO] [agent] You've hit your session limit · resets 1:30pm (Europe/Sofia)
[09:44:13] [INFO] [agent] [Error: rate_limit]
[09:44:14] [INFO] [progress] Iteration 7 finished. Task DGR-030: in progress. Duration: 129s
[09:44:14] [ERROR] [progress] Iteration 7 FAILED on DGR-030: Unknown error (action: skip)
[09:44:14] [WARN] [progress] Skipping DGR-030 in iteration 7: Unknown error
[09:44:15] [INFO] [progress] Iteration 8/∞: Working on DGR-031 - Introduce the project-owned `ShardEngine` interface
[09:44:16] [INFO] [agent] You've hit your session limit · resets 1:30pm (Europe/Sofia)
[09:44:16] [INFO] [agent] [Error: rate_limit]
[09:44:17] [INFO] [progress] Iteration 8 finished. Task DGR-031: in progress. Duration: 2s
[09:44:17] [ERROR] [progress] Iteration 8 FAILED on DGR-031: Unknown error (action: skip)
[09:44:17] [WARN] [progress] Skipping DGR-031 in iteration 8: Unknown error
[09:44:18] [INFO] [progress] Iteration 9/∞: Working on DGR-044 - Pin the DeepSeek V4 Flash target contract
[09:44:19] [INFO] [agent] You've hit your session limit · resets 1:30pm (Europe/Sofia)
[09:44:19] [INFO] [agent] [Error: rate_limit]
[09:44:20] [INFO] [progress] Iteration 9 finished. Task DGR-044: in progress. Duration: 2s
[09:44:20] [ERROR] [progress] Iteration 9 FAILED on DGR-044: Unknown error (action: skip)
[09:44:20] [WARN] [progress] Skipping DGR-044 in iteration 9: Unknown error
[09:44:21] [INFO] [engine] Ralph stopped. Reason: no_tasks. Iterations: 9, Tasks completed: 4
[09:44:21] [INFO] [engine] Ralph stopped. Reason: interrupted. Iterations: 9, Tasks completed: 4
Session state saved. Use "ralph-tui resume" to continue.
═══════════════════════════════════════════════════════════════
Sequential Run Summary
═══════════════════════════════════════════════════════════════
Session: 9af13108-1a92-40f1-945a-beabfde1d405
Mode: headless
Status: INTERRUPTED
Started: 7/22/2026, 8:30:51 AM
Finished: 7/22/2026, 9:44:21 AM
Duration: 1h 13m
Tasks: 4/42 completed
Iterations: 9
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Sequential summary saved to: /run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.ralph-tui/reports/sequential-summary-9af13108-1a92-40f1-945a-beabfde1d405-2026-07-22T06-44-21-341Z.txt
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# Architecture Deepening
## Goal
Increase depth, locality, and testability in the existing Meshnet runtime without changing its domain behavior or reopening accepted architecture decisions.
## Scope
This feature backlog is derived from the Graphify code graph and the architecture review. It targets three high-coupling modules:
1. Distributed Route Session execution in the node HTTP path.
2. Node startup orchestration.
3. Tracker request intake and HTTP dispatch.
## Constraints
- Preserve ADR-0009: the Tracker is the control plane and public proxy; workers own tokenizer and model execution.
- Preserve the active Distributed GGUF Runtime plan: DGR-040 owns native-worker supervision; DGR-041 owns native capability registration. Do not duplicate or redesign those stories.
- Preserve existing Transformers behavior and backend-agnostic Tracker routing, billing, admission, telemetry, and relay semantics.
- Each task starts with focused characterization tests, then moves behavior behind one deep module interface.
## Order
1. Route Session execution, because it has the clearest seam and lets distributed execution be tested without HTTP.
2. Node startup orchestration, using the existing capability-validator adapters.
3. Tracker intake, only after the first two establish the preferred deep-module style.

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# AD-001: Deepen Route Session execution behind one node seam
- **Status:** needs-triage
- **Priority:** p0
- **Dependencies:** none
- **Blocks:** AD-002
- **Evidence:** Graphify identifies `torch_server.py` as the Activation Transport & Binary Frames hub; `_TorchHandler._do_chat_completions` has cyclomatic complexity 53 and owns request parsing, complete-model generation, distributed prefill/decode, Hot KV State recovery, transport clients, SSE, telemetry, and cleanup.
## Objective
Move distributed Route Session execution behind one deep module interface so the HTTP module only translates a client request into a Route Session result/stream.
## Constraints
- Preserve ADR-0009: the head worker owns tokenization and shard execution.
- Preserve the existing OpenAI-compatible HTTP/SSE behavior.
- Keep Hot KV State local to each shard and retain cache-miss re-prefill behavior.
- Do not introduce native GGUF worker work; DGR-040 and DGR-041 own that scope.
## Acceptance criteria
- [ ] Characterization tests cover prefill, decode, cache-miss re-prefill, cancellation, and cleanup through the new module interface without an HTTP server.
- [ ] The HTTP module retains only request translation, response translation, and request accounting.
- [ ] Route Session lifecycle owns downstream direct/relay client cleanup in one place.
- [ ] Existing two-node, KV-cache, relay, and OpenAI compatibility tests retain behavior.
- [ ] `pytest` targeted tests and `python -m compileall packages tests` pass.
## Likely files
- Modify: `packages/node/meshnet_node/torch_server.py`
- Create: module adjacent to `torch_server.py` for Route Session execution
- Modify/add: `tests/test_two_node_pipeline.py`, `tests/test_kv_cache_distributed.py`, focused new tests
## Non-goals
No change to public route selection, model architecture behavior, native worker protocol, or WAN KV migration.

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# AD-002: Deepen Node startup orchestration
- **Status:** needs-triage
- **Priority:** p1
- **Dependencies:** AD-001
- **Evidence:** `run_startup()` in `packages/node/meshnet_node/startup.py` has cyclomatic complexity 101, a broad caller-facing parameter surface, and coordinates hardware, wallet, assignment, artifacts, server construction, capability proof, and Tracker registration.
## Objective
Create a deep Node startup module with explicit immutable startup intent and one execution seam, so callers and tests do not need to understand the full startup sequence.
## Constraints
- Retain the existing explicit capability-validator adapter used by tests.
- Preserve current CLI behavior, registration data, startup ordering, and Transformers behavior.
- Keep native-worker supervision out of scope: DGR-040 owns it. The result may expose a phase where DGR-040 can later attach, but must not implement that worker supervision.
## Acceptance criteria
- [ ] Characterization tests pin successful startup, capability refusal before registration, assignment behavior, and failure classification.
- [ ] The public startup interface accepts a cohesive intent/plan rather than leaking orchestration details across callers.
- [ ] Hardware/assignment, artifact/server, and proof/registration behavior are internally ordered and individually testable through internal seams.
- [ ] Existing `tests/test_node_startup.py`, `tests/test_node_admission.py`, and mining CLI tests retain behavior.
- [ ] `pytest` targeted tests and `python -m compileall packages tests` pass.
## Likely files
- Modify: `packages/node/meshnet_node/startup.py`, `packages/node/meshnet_node/testing.py`, `packages/node/meshnet_node/cli.py`
- Modify/add: `tests/test_node_startup.py`, `tests/test_node_admission.py`, `tests/test_mining_cli.py`
## Non-goals
No new backend type, no Tracker placement algorithm change, and no native-worker process supervision.

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# AD-003: Deepen Tracker request intake without changing control-plane semantics
- **Status:** needs-triage
- **Priority:** p1
- **Dependencies:** AD-001, AD-002
- **Evidence:** Graphify marks `_TrackerHandler` as the highest-degree node (93 edges). `do_POST` dispatches auth, accounts, billing, registry, raft, gossip, placement, calibration, model, and inference paths; `do_GET` mixes operational projections and public request paths. Major handlers include proxy chat (CC 127), registration (CC 82), models (CC 43), and network assignment (CC 42).
## Objective
Deepen Tracker request intake around existing domain seams so HTTP dispatch stays thin and request-specific policy no longer leaks across unrelated control-plane workflows.
## Constraints
- Preserve ADR-0009: Tracker remains a control plane and public inference proxy, never a model host.
- Preserve coverage-first assignment, billing, admission, relay, telemetry, Raft, and existing endpoint contracts.
- Do not create a speculative adapter: each new seam must have at least two real callers/adapters or remain internal.
## Acceptance criteria
- [ ] Characterization tests pin all affected public endpoint response and error behavior before moving code.
- [ ] HTTP dispatch delegates to cohesive intake modules for inference, node/registry lifecycle, and operator projections.
- [ ] Route selection, billing attribution, admission, and coverage logic remain backend-agnostic and do not move into the HTTP module.
- [ ] `_TrackerHandler` no longer owns unrelated endpoint policy directly.
- [ ] Existing routing, capability-admission, billing, account, and consensus tests retain behavior.
- [ ] `pytest` targeted tests and `python -m compileall packages tests` pass.
## Likely files
- Modify: `packages/tracker/meshnet_tracker/server.py`
- Potentially modify: `packages/tracker/meshnet_tracker/billing.py`, `accounts.py`, `capability.py`, `recipe.py`
- Modify/add: focused tests alongside `tests/test_tracker_routing.py`, `tests/test_tracker_capability_admission.py`, `tests/test_billing_ledger.py`, and `tests/test_tracker_consensus.py`
## Non-goals
No redesign of the Tracker architecture, no public endpoint removal, and no change to backend-neutral provider semantics.

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{
"name": "Architecture Deepening",
"description": "Deepen high-coupling Meshnet modules behind narrow interfaces while preserving current domain behavior and locked ADR decisions.",
"sourceOfTruth": "This prd.json and its issue files are planning artifacts; no task is approved for implementation until triaged.",
"stories": [
{"id":"AD-001","title":"Deepen Route Session execution behind one node seam","status":"needs-triage","priority":"p0","dependsOn":[],"blocks":["AD-002"],"files":["packages/node/meshnet_node/torch_server.py","tests/test_two_node_pipeline.py","tests/test_kv_cache_distributed.py"]},
{"id":"AD-002","title":"Deepen Node startup orchestration","status":"needs-triage","priority":"p1","dependsOn":["AD-001"],"blocks":[],"files":["packages/node/meshnet_node/startup.py","packages/node/meshnet_node/testing.py","tests/test_node_startup.py","tests/test_node_admission.py"]},
{"id":"AD-003","title":"Deepen Tracker request intake without changing control-plane semantics","status":"needs-triage","priority":"p1","dependsOn":["AD-001","AD-002"],"blocks":[],"files":["packages/tracker/meshnet_tracker/server.py","tests/test_tracker_routing.py"]}
]
}

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# ADR-0020: Distributed GGUF/llama.cpp Runtime With Per-Shard Local KV
Status: Proposed
## Context
The project currently uses PyTorch/Transformers for real model shards. That decision was captured in ADR-0001 because llama.cpp RPC at the time required the primary node to load the full model and distribute weights to workers, which conflicted with the desired model where nodes independently hold shards.
We now want to serve very large open models, including GLM-5.2 and Ornith-class MoE models, over a torrent-like inference marketplace. CPU and mixed consumer hardware matter. LM Studio and llama.cpp demonstrate much better CPU/GGUF performance than our current PyTorch CPU path. The user also has a personal relationship with Georgi Gerganov, making upstream collaboration plausible.
The current distributed PyTorch path is not yet production-grade: it recomputes the full growing sequence for every output token and disables KV cache inside manual layer calls. It sends hidden activations across seams, not KV, but those activations currently cover the full sequence every decode step.
## Decision
Adopt a distributed GGUF/llama.cpp runtime track while keeping PyTorch as the reference and fast-architecture backend.
The runtime model is:
- GGUF/model artifacts are distributed through torrent/content-addressed storage.
- Nodes independently acquire and verify artifacts; no root node streams model weights to workers at session start.
- Tracker chooses a sticky route covering all layers.
- Each node owns hot KV/state for the layers it executes.
- Prefill sends chunked activations through the route and builds local per-shard KV.
- Decode sends one-step activations through the route and appends local KV at every shard.
- Cache/CDN servers store cold artifacts and optional prefix/session snapshots, not hot per-token KV.
- Context is capped at 128K for the first serious product path.
## Technical Framework
The design separates five planes:
- **Control plane**: tracker registry, coverage map, route selection, session lifecycle, telemetry, billing, and audit.
- **Artifact plane**: Shard Swarms, GGUF/safetensors/tokenizer files, manifests, hashes, and local node storage.
- **Execution plane**: active Inference Route, chunked prefill, one-step decode, and hidden-state movement across activation seams.
- **Session state plane**: per-shard Hot KV State on route nodes, plus optional Prefix Snapshots outside the hot loop.
- **Economics/trust plane**: reward accounting, validation events, slash proofs, public/private route policy.
Hard invariants:
1. Public-network Shards are contiguous layer ranges.
2. Hot KV State is local to the node serving that Shard in that Route Session.
3. Artifact distribution and route execution are separate systems.
4. Decode seam payload must be `O(hidden_size)`.
5. Prefill may be `O(sequence_length * hidden_size)`, but only in bounded chunks.
6. The tracker chooses routes; nodes do not negotiate route topology peer-to-peer.
7. Model/backend-specific cache internals stay behind backend capability reports.
8. PyTorch remains the correctness/reference backend while llama.cpp/GGUF becomes the performance backend.
9. Streaming responses are preferred when feasible; Generation Telemetry is always required.
The full challenge register is in [technical-challenges.md](./technical-challenges.md). The open decision gates are in [decision-framework.md](./decision-framework.md).
Resolved gate:
- Public-network Shards are layer ranges. Tensor-parallel/ring execution belongs inside a trusted node, colocated pod, or future composite node abstraction, not as the v1 public routing primitive.
- Hot KV State is local to each route node for the Shard it serves. Cache servers may store Prefix Snapshots, but they are not part of the per-token decode path.
- Distributed Route Session and Hot KV State semantics will be proven in the PyTorch route before llama.cpp/GGUF is extended for layer-boundary execution.
- Streaming responses are preferred when feasible. Realtime Generation Telemetry is required so clients can see phase, generated token count, and tokens/sec even during prefill or non-streaming fallback paths.
- llama.cpp/GGUF work targets upstreamable `libllama`/ggml hooks. A prototype fork is acceptable for exploration, but a permanent fork is not the plan.
- Model targeting is two-tiered: use a small llama.cpp-supported GGUF model for the first protocol smoke test, then use `deepseek-ai/DeepSeek-V4-Flash` as the first serious large-model target. GLM-5.2 and Ornith remain later support audits.
- Alpha fails Route Sessions on route-node loss instead of attempting automatic route repair. Repair requires compatible Prefix Snapshots and is a later capability.
- v1 activation transfer stays on binary HTTP as defined by ADR-0008. QUIC/WebRTC/custom transport can be introduced later behind the same activation protocol.
## Non-Goals
- Do not put remote cache servers in the per-token hot KV path.
- Do not require every node to hold the full model.
- Do not fork llama.cpp long-term if upstream APIs can support the needed layer-boundary hooks.
- Do not target GLM-5.2 or Ornith first; prove the route/KV protocol on a simpler well-supported GGUF model, then target DeepSeek-V4-Flash as the first serious large model.
## Options Considered
### A. Keep PyTorch-only distributed inference
Pros:
- Easy access to new Hugging Face architectures.
- Transformers has mature single-process KV semantics.
- Existing code already loads shards.
Cons:
- CPU inference is much slower than llama.cpp/GGUF.
- Current distributed path bypasses `generate()` and disables cache.
- Quantized GGUF ecosystem and LM Studio users are outside the runtime.
### B. Use llama.cpp only as a full local model backend
Pros:
- Quick performance win for nodes with enough RAM/VRAM.
- Minimal coordination with distributed protocol.
Cons:
- Does not unlock 397B/753B-class models for ordinary nodes.
- Does not solve marketplace layer routing.
### C. Distributed GGUF with per-shard local KV (chosen)
Pros:
- Aligns with torrent artifact distribution.
- Avoids root streaming weights to workers.
- Uses llama.cpp/GGUF performance where supported.
- Compatible with public node rewards by layer/work contribution.
- Scales KV memory by layer range.
Cons:
- Requires new runtime APIs around layer-boundary hidden states and per-session KV.
- Requires model-specific cache metadata for DSA/MLA/hybrid attention.
- Harder to debug than single-process `generate()`.
### D. Centralized KV cache servers
Pros:
- Easier apparent session failover.
- Central accounting of active cache.
Cons:
- Puts remote storage in the per-token hot path.
- Adds bandwidth and latency at the worst possible point.
- Creates consistency and privacy problems.
Rejected for hot decode. Accepted only for cold prefix snapshots and failover checkpoints.
## Consequences
- ADR-0001 should eventually be amended: PyTorch remains valid, but llama.cpp/GGUF becomes a first-class backend.
- The activation protocol must split prefill and decode explicitly.
- Session IDs must be stable across the full request. The current fresh UUID-per-hop-call behavior must change.
- Backends must report cache budget and cache compatibility.
- Tracker route selection must include disk, memory pressure, cache warmth, and network latency.
- Billing can be based on layer work, prefill tokens, decode tokens, and observed route participation.
- Client UX should stream token deltas when feasible and must include route-session progress telemetry even when token deltas are not streamed.
## Required Runtime Capabilities
PyTorch path:
- manual layer calls with `past_key_values` / model-specific cache object
- per-shard session cache store
- prefill chunk append
- decode step append
- stable session lifecycle endpoints
llama.cpp/GGUF path:
- full local GGUF serving
- layer/tensor map extraction from GGUF
- optional partial layer loading or mmap-backed selected execution
- inbound hidden-state execution from arbitrary start layer
- outbound hidden-state return at stop layer
- per-session KV ownership for loaded layers
- cache budget/compatibility introspection
- GLM-5.2 DSA support when upstream/runtime supports it
## Implementation Plan
1. Add full-model `LlamaCppBackend` using `llama-server` or `libllama`.
2. Implement distributed KV in the PyTorch path to prove semantics.
3. Add session lifecycle and prefill/decode wire protocol.
4. Add model artifact manifest and torrent seeding metadata.
5. Prototype localhost two-process llama.cpp layer boundary execution.
6. Generalize to network route.
7. Bring in GLM-5.2/Ornith once backend support and cache accounting are verified.
## Acceptance Criteria
- A two-node localhost route can prefill once and decode N tokens without recomputing the full prompt.
- Seam payload during decode is `O(hidden_size)`, not `O(sequence_length * hidden_size)`.
- Per-node KV memory grows with owned layer count and context length.
- Route loss during alpha fails cleanly with explicit reason.
- Full local GGUF backend outperforms PyTorch CPU on a supported model.
- Artifact manifest can identify exactly which files/chunks a node must seed for its advertised layer range.

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# GLM-5.2 Max distributed alpha roadmap
Status: proposed executable epic target
Last updated: 2026-07-13
## Executive decision
The alpha-release target is the exact open-weight model `zai-org/GLM-5.2` served with `reasoning_effort=max` from the smallest published Unsloth GGUF recipe, `UD-IQ1_S`, across multiple consumer machines.
“Max” is a reasoning mode selected by the chat template/API request. It is not a separate model checkpoint.
Alpha is earned only when the real target model:
1. cannot fit within any one participating node's admitted memory;
2. loads as contiguous layer Shards on at least two physical consumer machines;
3. performs real GLM-5.2 MoE + DSA + IndexShare computation on every selected node;
4. responds through the existing OpenAI-compatible Meshnet API with `reasoning_effort=max`;
5. passes locked parity, usefulness, performance, telemetry, cancellation, and cleanup checks; and
6. stores all model artifacts on configured mounted-drive storage, never under `/home`.
The shortest safe path is not “support every GGUF architecture.” Dense Llama remains a small structural fixture. GLM-5.2 moves onto the critical path immediately after exact recipe identity and the pinned llama.cpp boundary. Qwen expansion, 1M context certification, MTP/speculative decoding, broad concurrency, and automatic route repair are post-alpha.
## 1. Exact target contract
### 1.1 Source model
| Field | Locked target |
|---|---|
| Official repository | `zai-org/GLM-5.2` |
| Official revision observed 2026-07-13 | `b4734de4facf877f85769a911abafc5283eab3d9` |
| Model-weight license | MIT |
| Official code/documentation license | Apache-2.0 |
| Architecture | `glm_moe_dsa` / `GlmMoeDsaForCausalLM` |
| Official architecture label | 744B total / approximately 40B active per token |
| Exact stored checkpoint tensors | 753,329,940,480 parameters |
| Transformer layers | 78 backbone layers plus one shared NextN/MTP layer in the artifact |
| Layer types | first 3 dense; remaining 75 sparse MoE |
| Routed experts | 256 |
| Experts selected | 8 routed experts plus shared expert path |
| Hidden width | 6,144 |
| Attention | MLA under DSA, lightning indexer top-k 2,048 |
| IndexShare | indexer roles are encoded by `indexer_types`; consumers reuse prior Full-layer indices |
| Architectural maximum context | 1,048,576 tokens |
| Alpha reasoning mode | `reasoning_effort=max` |
The runtime must derive these values from the pinned artifact and fail closed on contradictory metadata. Marketing names are not compatibility identity.
### 1.2 Alpha GGUF artifact
| Field | Locked target |
|---|---|
| GGUF repository | `unsloth/GLM-5.2-GGUF` |
| GGUF revision observed 2026-07-13 | `abc55e72527792c6e77069c99b4cb7de16fa9f23` |
| Quantization | `UD-IQ1_S` |
| Files | six GGUF shards |
| Exact published bytes | 216,715,360,960 bytes |
| Binary GiB | 201.832 GiB |
| Published quality indication | about 76.2% top-1 agreement with the high-precision reference on Unsloth's quantization analysis |
| Mounted storage rule | configured mounted drive only; never `/home` |
Before downloading 216.7 GB, DGR-017 must generate a checked-in target manifest containing repository revisions, expected filenames, byte sizes, and resolved LFS SHA-256 values. Download is resumable and verified before route admission.
`UD-IQ1_M` (228,492,966,624 bytes / 212.801 GiB) is the first diagnostic fallback if `UD-IQ1_S` exposes a runtime or quality defect. It does not satisfy the explicit “lowest quantization” alpha target unless the target contract is changed by human review.
### 1.3 Runtime semantics required for alpha
Required:
- GGUF parsing and quantized kernels from one exact llama.cpp pin.
- Correct GLM-5.2 MoE routing, selected experts, and shared expert.
- Correct compressed MLA KV cache for locally owned layers.
- Native DSA lightning indexer and sparse attention.
- Correct IndexShare Full/Shared role execution from artifact metadata.
- Range-owned contiguous transformer layers; each owned layer keeps all of its experts local.
- Head-only embeddings and tail-only final norm/output head/sampling.
- Architecture-defined activation boundary and optional DSA index sideband.
- `reasoning_effort=max` chat-template behavior through the public API.
- F32 seam correctness lane and a separately certified production activation dtype.
Not required for alpha:
- MTP/speculative decoding. The trailing NextN tensors may be loaded or explicitly excluded according to a certified recipe, but cannot be silently misinterpreted.
- Full 1,048,576-token context.
- Continuous batching beyond one target session.
- Public-WAN tensor or expert parallel collectives.
- Automatic mid-generation repair or KV migration.
- Every CPU/GPU backend combination.
## 2. Minimum resource envelope
### 2.1 Weight and runtime memory
The smallest artifact occupies 201.832 GiB before KV, DSA indexer state, scratch buffers, backend workspaces, process memory, and the operating system. **224 GiB aggregate runtime-accessible memory is only the experimental hard-fit floor**, consistent with Unsloth's approximate 223 GB one-bit requirement. It is not a conservative operational envelope.
For admission, each node reserves:
```text
max(20% of physically usable memory, 8 GiB)
```
The remainder is the combined weight-plus-KV placement budget. Actual peak scratch is measured by backend/context and can force one extra node. Unified memory is counted once: integrated-GPU “VRAM” must not be added again to the same physical system RAM.
| Physical usable tier | Minimum reserve | Weight + KV placement budget | IQ1_S 16K arithmetic minimum | Operational position |
|---:|---:|---:|---:|---|
| 32 GiB | 8.0 GiB | 24.0 GiB | 9 nodes | use 10 if attempted; latency-heavy |
| 48 GiB | 9.6 GiB | 38.4 GiB | 6 nodes | possible; latency-heavy |
| 64 GiB | 12.8 GiB | 51.2 GiB | 4 nodes | hard minimum; **5 recommended** |
| 96 GiB | 19.2 GiB | 76.8 GiB | 3 nodes | recommended |
| 128 GiB unified/system | 25.6 GiB | 102.4 GiB | 2 nodes | arithmetic hard minimum; **3 recommended** |
The planner must use exact tensor byte ownership, not equal percentages. Embeddings, final head, dense versus MoE layers, shared experts, indexer tensors, quant block alignment, KV distribution, and backend workspace make equal layer counts unequal in memory.
Recommended first target route: **three 96/128-GiB-class physical machines** or **five 64-GiB-class machines**, on the same wired switch with mounted model storage. Four 64-GiB or two 128-GiB machines are fit probes only and qualify solely if exact placement and measured peak-memory evidence retain the required reserve with no swap/overcommit.
### 2.2 KV cache
GLM-5.2 MLA caches 576 latent/rope values per token per backbone layer. Correct DSA also caches 128-dimensional indexer keys: ideally only for the 21 Full indexer layers, while the current experimental implementation may allocate them across all 78 layers. Alpha locks **Q8_0 KV** for quality and budgets the conservative current-implementation layout.
| Context × concurrency | MLA-only Q8 | Optimized DSA Q8 | Conservative current-DSA Q8 | Conservative current-DSA F16 |
|---:|---:|---:|---:|---:|
| 16,384 × 1 | 0.73 GiB | 0.77 GiB | **0.89 GiB** | 1.68 GiB |
| 131,072 × 1 | 5.83 GiB | 6.18 GiB | **7.12 GiB** | 13.41 GiB |
| 1,048,576 × 1 | 46.62 GiB | 49.41 GiB | **56.98 GiB** | 107.25 GiB |
These are planning estimates, not admission truth. The runtime must report measured allocated/resident MLA and indexer cache by Shard. Alpha configures a 16,384-token window, Q8_0 KV, and one session. Longer contexts and lower-bit KV are separate quality/resource certification gates.
### 2.3 Activation seams and network
A BF16 hidden-state boundary is 6,144 elements = 12,288 bytes/token before framing.
- A 16,384-token prefill sends about 192 MiB per seam.
- One decode token sends about 12 KiB per seam.
- A 512-token decode sends about 6 MiB per seam.
- Four nodes imply three serial seams.
If a Shard boundary splits an IndexShare producer/consumer group, a 2,048-entry int32 top-k sideband can add up to 8 KiB/query before framing. The route planner should prefer boundaries that preserve complete IndexShare ownership groups. The protocol must still support and validate the named sideband because memory fit may force an internal group split.
Decode bandwidth is small, but every generated token crosses all seams serially, so node count and per-hop latency dominate. Alpha requires a same-switch wired route: **2.5 GbE minimum and 10 GbE recommended**, with measured one-way/RTT, serialization, and queue latency. A 1 GbE route may be retained as fit-only evidence but is not the recommended alpha topology. Alpha records per-seam bytes, p50/p95 transfer latency, retries, and checksum failures; no speed claim is inferred from link rate alone.
### 2.4 Storage
The shortest alpha path allows every node to hold the complete six-file source GGUF while mapping/allocating only owned tensors. This minimizes artifact-transformation risk but costs 216.7 GB disk per node.
Deterministic source-bound layer packages are a follow-up optimization. If needed before target fit, every package must retain:
- source repository/revision and source file hashes;
- exact owned tensor names, layer range, and endpoint role;
- tokenizer/config identity;
- deterministic package hash; and
- proof that composing all packages matches the source tensor inventory.
## 3. Current state and critical gaps
### Completed foundation
- DGR-001: immutable CPU contract plus separate signed ROCm diagnostic. CPU v1 remains `stop`; the GPU diagnostic establishes a viable fit/performance investigation lane but does not rewrite CPU evidence.
- DGR-002: versioned backend-neutral gRPC/Protobuf Shard protocol with bounded fragments and compatibility checks.
- Existing Meshnet: Tracker, contiguous Shards, Route Sessions/epochs, relay/direct transport, local Hot KV semantics in the reference backend, cancellation, telemetry, billing, and model-agnostic admission.
### Missing before target alpha
1. Exact GLM target/artifact manifest and memory-fit planner.
2. A current llama.cpp pin proven to load and generate with the exact `UD-IQ1_S` artifact.
3. A narrow decision on native GLM-5.2 DSA/IndexShare support. As observed 2026-07-13, merged llama.cpp PR #24770 loads GLM-5.2 through a dense-MLA compatibility path, while full IndexShare/DSA PR #25407 remains open and its generic sparse path can be slower than dense fallback. Generic CPU lightning-indexer support is merged; backend coverage remains uneven.
4. A decode protocol amendment. `ActivationChunk` carries `TensorBundle`, but the current `DecodeStep` fast path carries only one `NamedTensor`; it cannot transport a hidden state plus GLM top-k sideband. Tail token/logit and sampling behavior also needs an explicit typed result contract.
5. Correct range-owned GGUF loading and memory proof.
6. GLM-specific boundary/KV/IndexShare semantics.
7. Standalone native worker and Meshnet integration.
8. Real target hardware route with no node individually able to admit the whole model.
9. Locked target parity, usefulness, speed, failure, and cleanup evidence.
### Donor policy
`Mesh-LLM/mesh-llm` is a high-value test and patch donor. Its live GLM branch was observed with 261 llama.cpp patches, 167 named for GLM/DSA/MTP-related work. That is evidence of the problem's depth, not an acceptable maintained fork boundary.
Audit and selectively reproduce the smallest independently understood pieces for:
- GLM DSA graph semantics;
- lightning indexer and sparse-attention tests;
- IndexShare metadata/Full/Shared validation;
- top-k sideband shape and lifecycle;
- stage-local KV filtering; and
- target parity/performance fixtures.
Do not import Mesh-LLM routing, discovery, scheduler, public mesh, package manager, or full patch stack. Keep Meshnet as the sole control plane and collaborate narrowly upstream with llama.cpp/Mesh-LLM maintainers where practical.
## 4. Revised roadmap
## Phase 0 — lock the target before implementation
### DGR-017: lock GLM-5.2 Max target and alpha contract
Deliver:
- machine-readable target manifest for official and GGUF revisions;
- exact `UD-IQ1_S` file/size/hash inventory;
- architecture/config/chat-template snapshot;
- memory/KV/network planner with unified-memory de-duplication;
- immutable alpha acceptance thresholds from section 5; and
- current upstream/donor status report.
Exit: target identity and alpha requirements are reviewable without downloading the model.
## Phase 1 — establish a correct whole-model oracle
### DGR-003: exact runtime recipe identity
Extend the existing generic identity with GLM fields: DSA/IndexShare metadata, adapter version, reasoning template revision, activation bundle schema, KV dtype/layout, llama.cpp pin/patch hash, and target artifact manifest hash.
### DGR-004: reproducible llama.cpp pin and narrow patch boundary
Select a current exact upstream commit only after testing its stock GLM behavior. Add clean fetch/apply/build checks. Record every donor patch and whether it is adopted, rewritten, rejected, or waiting upstream.
### DGR-018: certify whole-model GLM-5.2 runtime semantics
On a 256-GiB-class reference host with at least 224 GiB runtime-accessible memory after OS reservation, or a measured equivalent:
1. verify all six `UD-IQ1_S` shards;
2. load with a stock pinned runtime and capture tensor/metadata warnings;
3. prove whether DSA, IndexShare, shared expert, and Max template are actually active;
4. add the minimum correctness patches/tests required;
5. run deterministic prefill/decode and fixed Max-mode sentinel prompts; and
6. sign the oracle recipe, output, telemetry, and limitations.
Exit: one whole-model oracle exists for the same artifact/runtime semantics the distributed path will implement. “It emits text” is insufficient.
## Phase 2 — build the generic local seam using small fixtures
### DGR-005: range-owned GGUF tensors
Keep dense Llama as a cheap structural fixture. Implement authoritative owned-tensor registration/loading, head/tail ownership, and measured resident-memory scaling. Design tensor classification so GLM adds explicit rules rather than unchecked name substitution.
### DGR-006: architecture-defined boundary
Implement named boundary bundles, F32 correctness lane, bounded fragmentation, and optional sidebands. Amend the decode fast path so it carries a versioned `TensorBundle` rather than one `NamedTensor`, while preserving a small one-tensor encoding. Define an explicit typed tail result for logits/token output and bind sampling/chat-template parameters to the recipe/request. Regenerate Python/C++ schema code and compatibility goldens. Dense fixture parity proves the seam mechanism, not GLM certification.
Exit: two local processes can execute a small dense model with correct range ownership and boundary parity.
## Phase 3 — add GLM-5.2 as the product adapter
### DGR-019: implement and certify GLM-5.2 range/DSA/IndexShare semantics
Deliver explicit support for:
- 78 main layers and endpoint tensor ownership;
- 256-expert MoE routing/top-8 and shared expert;
- compressed MLA KV by owned layers;
- DSA lightning indexer and sparse attention;
- IndexShare metadata, Full producer, Shared consumer, and sideband behavior;
- NextN/MTP tensor policy with MTP disabled or enabled explicitly;
- shard-boundary planner aware of IndexShare ownership groups; and
- whole-model versus two-stage parity against DGR-018.
Exit: a same-host two-stage target run matches the locked oracle tolerance with real GLM computation in both stages. If the full target cannot fit on one host for this check, use a layer-reduced GLM architecture fixture for graph parity and defer full-artifact output parity to DGR-020; label the distinction explicitly.
## Phase 4 — worker, KV, and Meshnet route
Execute existing stories with GLM requirements included:
1. DGR-007 — isolated local Hot KV keyed by `(Route Session, epoch)`, including DSA/IndexShare state.
2. DGR-008 — standalone C++ gRPC worker.
3. DGR-009 — Meshnet backend, capability, relay/direct, cancellation, and telemetry integration.
4. DGR-010 — small-model local two-process acceptance.
5. DGR-011 — real two-physical-machine route and heterogeneous fail-closed behavior.
6. DGR-013 subset required by alpha — node loss, cancellation, stale epoch, restart, and memory/KV cleanup.
Continuous batching (DGR-012) is deliberately not an alpha dependency. The first target release supports one admitted GLM route session; concurrency follows after target correctness and fit.
## Phase 5 — target alpha gate
### DGR-020: pass real distributed GLM-5.2 Max alpha acceptance
Use at least two physical machines and enough aggregate usable memory to meet the locked target planner. No participating node may individually admit the complete target. All stages must report real compute and exact tensor ownership.
Run the complete acceptance matrix in section 5, preserve raw logs/metrics/output, sign the evidence, and publish an explicit `alpha` or `stop` verdict. Thresholds cannot be weakened after results are known.
## Phase 6 — post-alpha hardening
After DGR-020 passes:
1. DGR-012 — 1/2/4-session continuous batching and bounded admission.
2. DGR-014 — final distributed GGUF versus reference-route performance decision.
3. 32K, 128K, 200K, then 1M context certification with quantized KV.
4. MTP/speculative decoding.
5. Deterministic range packages to remove full-artifact replication.
6. Additional backend compatibility classes and route topologies.
7. DGR-016 — narrow upstream collaboration package, split by independently reviewable llama.cpp changes.
8. DGR-015 — Qwen3/Qwen3-MoE only as later architecture expansion, not as the GLM alpha target.
## 5. Locked alpha acceptance matrix
These thresholds are set before target execution.
### 5.1 Identity and fit
- Exact official and GGUF repository revisions match the target manifest.
- All six source GGUF sizes and LFS SHA-256 values verify.
- Every route node reports owned tensor names/bytes, layer range, endpoint role, backend, KV recipe, and patch fingerprint.
- Union of owned tensors equals the certified runtime-required tensor inventory; unintended overlap is zero.
- No node's weight-plus-KV placement budget can hold the complete recipe.
- Every node reserves at least `max(20% of physically usable memory, 8 GiB)` outside weight-plus-KV placement; measured peak scratch must remain inside that reserve.
- Aggregate peak RSS/VRAM stays within physical budgets with no swap, overcommit, mmap-only, or double-counted unified-memory success claim.
- Arithmetic-minimum topologies require exact contiguous tensor placement evidence; recommended alpha topology is 5×64 GiB or 3×96/128 GiB.
- Unified RAM/VRAM is not double-counted.
### 5.2 Semantic correctness
- Logs and graph tests prove GLM MoE/shared-expert, DSA lightning indexer, sparse attention, and IndexShare Full/Shared paths are active; dense-attention compatibility fallback cannot satisfy alpha.
- `reasoning_effort=max` is observable in the rendered template/API recipe.
- F32 same-backend seam fixture: 32 greedy decode tokens exactly match the whole-model oracle and activation tolerance is locked by DGR-006.
- Production seam on the fixed prompt corpus: greedy token agreement is at least 0.90 and mean compared-state/logit cosine similarity is at least 0.999 versus DGR-018, with no malformed or non-finite tensors.
- Incompatible artifact, tokenizer, adapter, DSA metadata, boundary, activation, KV, backend class, or runtime patch fingerprints fail closed.
### 5.3 End-to-end target run
- Context configured to 16,384 tokens with Q8_0 MLA/indexer KV.
- Fixed 4,096-token prompt lane completes prefill.
- Route uses a same-switch wired network; 2.5 GbE is the alpha minimum and 10 GbE is recommended.
- One Max-mode request generates at least 512 output tokens or reaches a valid natural EOS after at least 128 tokens.
- Fixed coding, structured tool-call/JSON, and multi-step reasoning sentinels produce parseable, relevant outputs; raw prompts and outputs are retained for review.
- OpenAI-compatible response includes stable model ID, finish reason, and token usage.
### 5.4 Minimum useful performance
On the declared minimum alpha topology after one warm-up:
- median decode throughput is at least 0.5 generated token/s for the fixed Max-mode lane;
- 4,096-token-prompt TTFT is at most 10 minutes;
- no unexplained stall exceeds 60 seconds without progress telemetry;
- per-stage compute, queue, KV, seam bytes/latency, RSS/VRAM, and backend timing are present; and
- results are labeled by hardware/topology and are not generalized to other consumer systems.
If output quality passes but the speed floor fails, verdict is `stop` for alpha and the evidence selects the next optimization target. It is not relabeled as success merely because the model loaded.
### 5.5 Reliability and security
- Two consecutive cold starts load, generate, release, and exit cleanly.
- Cancellation during prefill and decode releases every stage's queued buffers and KV lease.
- One worker loss aborts the route; alpha retries only from token zero on a new compatible route.
- Stale epochs and duplicate step IDs are rejected.
- Artifact paths stay outside `/home`; logs contain no secrets or unrestricted prompt payloads.
- Synthetic workers and layer-reduced fixtures are labeled unit/integration coverage and cannot satisfy target alpha.
## 6. First execution order
The next unattended work should run in this order:
1. DGR-017 — target contract, manifest, planner, and upstream status.
2. DGR-003 — exact recipe identity.
3. DGR-004 — current llama.cpp pin and minimal patch harness.
4. Run in parallel:
- DGR-018 — whole-model oracle on a 256-GiB-class host with at least 224 GiB runtime-accessible memory.
- DGR-005 and DGR-006 — generic range/boundary seam on local small fixtures.
5. DGR-019 — GLM semantics and parity after both parallel lanes pass.
6. DGR-007 through DGR-011 — native worker and real transport route.
7. Required DGR-013 failure subset.
8. DGR-020 — real target alpha verdict.
The first external hardware blocker is DGR-018, but DGR-005/DGR-006 proceed locally while that host is sourced. Do not download the full model until DGR-017's exact manifest and storage preflight pass.
## 7. Sources checked on 2026-07-13
Authoritative or primary:
- Official model card and config: <https://huggingface.co/zai-org/GLM-5.2>
- Official release/architecture blog: <https://z.ai/blog/glm-5.2>
- Official code/documentation repository: <https://github.com/zai-org/GLM-5>
- Official source revision API: <https://huggingface.co/api/models/zai-org/GLM-5.2>
- Official GLM-5 technical report: <https://arxiv.org/abs/2602.15763>
- Unsloth GGUF repository: <https://huggingface.co/unsloth/GLM-5.2-GGUF>
- Unsloth local-run/quantization guide: <https://unsloth.ai/docs/models/glm-5.2>
- llama.cpp GLM-5.2 support issue: <https://github.com/ggml-org/llama.cpp/issues/24730>
- llama.cpp merged dense-MLA compatibility loader: <https://github.com/ggml-org/llama.cpp/pull/24770>
- llama.cpp open GLM-5.2 DSA/IndexShare implementation: <https://github.com/ggml-org/llama.cpp/pull/25407>
- llama.cpp merged generic CPU lightning indexer: <https://github.com/ggml-org/llama.cpp/pull/24231>
- llama.cpp 1M-context discussion: <https://github.com/ggml-org/llama.cpp/discussions/24622>
- IndexCache/IndexShare paper: <https://arxiv.org/abs/2603.12201>
Donor/current implementation evidence:
- Mesh-LLM repository: <https://github.com/Mesh-LLM/mesh-llm>
- Mesh-LLM GLM branch noted by llama.cpp collaborator in issue #24730: `feat/jianyang-glm-52`
Web/repository observations are pinned by date and must be refreshed in DGR-017 before implementation because upstream support is moving quickly.

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# PRD: Distributed GGUF Runtime
## Summary
> **Specification status:** planning artifacts only. No distributed GGUF runtime is implemented. DGR-017 cleanup is complete; no runtime implementation story has completion credit. `prd.json` is authoritative.
Build a distributed inference runtime that can serve large, quality-first open models by combining torrent-style model artifact distribution with sticky multi-node Inference Routes and per-shard local Hot KV State.
## Goal
The first runtime proof uses the existing PyTorch route because it exposes model internals and cache semantics more directly. GGUF/llama.cpp becomes the performance path after the route-session contract is proven.
Deliver benchmark-gated, concurrent, distributed GGUF inference across consumer machines through existing Meshnet control-plane behavior and a standalone native worker around upstream llama.cpp. The accepted target is DeepSeek V4 Flash, not the superseded legacy target.
## Goals
## Locked scope
- Eliminate full-prompt recompute in distributed decode.
- Keep decode activation seams proportional to `hidden_size`, not `context_length * hidden_size`.
- Keep Hot KV State local to the node serving the relevant Shard.
- Stream token deltas when feasible and always expose Generation Telemetry.
- Add a local full-model GGUF backend for immediate CPU performance wins.
- Define Model Artifact manifests so nodes can verify, seed, and advertise artifacts without depending on Hugging Face at request time.
- Prototype an upstreamable llama.cpp/libllama layer-boundary API.
- Use DeepSeek-V4-Flash as the first serious large-model target after smaller protocol smoke tests.
- Existing Meshnet Tracker routing, load balancing, billing, telemetry, relay, and provider semantics are backend-agnostic and are **not redesigned**. GGUF contributes exact compatibility, range/capacity, queue/load, seam-cost, health/reliability, and certification inputs only.
- The data plane is a standalone project-owned C++ Shard worker with gRPC/Protobuf and a project-owned `ShardEngine` boundary.
- llama.cpp is fetched at one exact commit into an ignored workspace from an in-repo manifest, then a numbered minimal patch stack is applied. There is no submodule, vendored tree, or permanent-fork dependency.
- llama.cpp owns DeepSeek V4 graphs, mHC, MoE, attention, hash routing, and kernels. Meshnet adds only range-ownership hooks, typed boundary/local-state adapters, worker integration, and parity/certification.
- Quantization and placement are dynamic recipe inputs. The 24 and 10+ stage layouts are certification scenarios, never product constants.
- Per-shard Hot KV and V4 CSA/HCA/SWA/indexer/compressor state remain local and keyed by route session/epoch. The WAN seam carries the typed mHC 4×4096 residual boundary, positions, token-ID sideband where required, and schema/cache expectations—not per-layer caches.
- Route changes use cache miss plus re-prefill/restart. There is no WAN KV or V4 auxiliary-cache migration.
- CPU/CUDA/ROCm/Vulkan/Metal compile lanes are planned; only exact real-hardware-certified backend/model/recipe lanes may be advertised.
- Alpha requires correctness and the pre-locked useful-speed gate. MTP is reserved and off for alpha; its ownership contract, implementation, and benchmark are required before beta.
## Non-Goals
## Target identities
- No centralized hot KV cache in the per-token decode path.
- No automatic route repair in alpha.
- No permanent llama.cpp fork as the intended architecture.
- No GLM-5.2 or Ornith first; they remain follow-up support audits.
- No transport rewrite to QUIC/WebRTC before route/session semantics are proven.
- DeepSeek V4 official target SHA: `60d8d70770c6776ff598c94bb586a859a38244f1`.
- llama.cpp V4 support lineage began at PR 24162 / merge `8c146a8366304c871efc26057cc90370ccf58dad`; DGR-027 later pins one exact validated current commit.
- V4 scope: 43 main layers plus MTP; mHC 4×4096 boundary; 256 routed + 1 shared experts with six routed active; token IDs required for the first three hash-routed layers.
- Exact split-GGUF artifacts are provisioned to mounted-drive storage with a complete hashed manifest and resumable verification; no model artifact may be placed under `/home`.
## Resolved Decisions
## Quality gates
- Public-network Shards are contiguous transformer layer ranges.
- Tensor/ring parallelism belongs inside one trusted node, one colocated pod, or a future composite node abstraction.
- Hot KV State is local to route nodes; Prefix Snapshots are optional cold recovery/reuse artifacts.
- PyTorch distributed KV/session semantics are proven before llama.cpp distributed execution.
- Streaming responses are preferred; Generation Telemetry is mandatory.
- llama.cpp/GGUF work targets upstreamable `libllama`/ggml hooks.
- Alpha fails Route Sessions on route-node loss.
- v1 activation transfer stays on binary HTTP.
## Target User Experience
A client sends an OpenAI-compatible request. The Gateway or Tracker Node accepts the request, creates a Route Session, and streams token deltas when supported. The client receives live Generation Telemetry for route phase, prefill progress, generated token count, rolling tokens/sec, route health, and failure reason.
If a route node drops in alpha, the request fails clearly. A retry starts a new Route Session from scratch.
## Runtime Shape
```text
client request
-> Gateway / Tracker Node creates Route Session
-> Tracker selects sticky Inference Route
-> prefill:
prompt chunks move through Shards
each node appends local Hot KV State
-> decode:
one-step activation moves through Shards
each node reads/appends local Hot KV State
tail returns token/logits
-> client receives streamed token deltas where possible
-> Generation Telemetry continues until complete or failed
```
The canonical gate groups live in `prd.json`. Every story explicitly requires its applicable shared gates: deterministic targeted tests, Python compile checks where applicable, native CMake/CTest and exact patch verification where applicable, real artifact/hardware provenance for opt-in lanes, `git diff --check`, and a durable evidence handoff.
## Milestones
| Milestone | Outcome | Issues |
|---|---|---|
| M1 — Session protocol proof | Stub route has stable Route Sessions, prefill/decode split, telemetry, and streaming contract | 01, 02, 03 |
| M2 — PyTorch reference route | Distributed PyTorch decode uses local per-shard cache and stops full-prompt recompute | 04 |
| M3 — Local GGUF performance path | Single-node GGUF backend serves through the node API and reports backend metadata | 05 |
| M4 — Artifact plane | Model Artifact manifest supports verification, layer mapping, and node advertisement | 06 |
| M5 — llama.cpp collaboration proof | Localhost layer-boundary prototype identifies upstreamable llama.cpp/libllama API | 07 |
| M6 — Networked GGUF route | Multi-node GGUF route uses the resolved protocol and fails cleanly on node loss | 08 |
| M7 — First large model | DeepSeek-V4-Flash support path is audited and converted into follow-up runtime tasks | 09 |
- **M0 — Truth and contracts (DGR-017..DGR-020):** Reconciled legacy truth, canonical metadata, immutable gates, and a controlled whole-model baseline.
- **M1 — Protocol and native substrate (DGR-021..DGR-033):** Versioned gRPC protocol, exact identities/artifacts, pinned upstream, reproducible builds, ShardEngine, and fake worker.
- **M2 — Dense vertical proof (DGR-034..DGR-043):** Dense ranged execution, parity, local state, worker integration, and GGUF inputs to existing routing.
- **M3 — DeepSeek V4 Flash alpha (DGR-044..DGR-054):** Pinned V4 adapter around upstream llama.cpp, real route certification, and pre-locked alpha decision with MTP off.
- **M4 — Performance and beta hardening (DGR-055..DGR-067):** Batching, backpressure, recovery, scale certification, optimization, MTP, and hardware matrix.
- **M5 — Release and maintenance (DGR-068..DGR-071):** Reproducible packages, upstream collaboration, beta decision, and sustainable recertification.
## Acceptance Criteria
## User stories
- A two-node route can prefill once and decode without resending full prompt activations.
- Decode seam payload is one token/hidden-state step after prefill.
- Route Session telemetry is visible before first token and during decode.
- Streaming token deltas work where the backend supports them.
- Route-node loss produces a structured alpha failure and does not attempt unsafe repair.
- A local GGUF model can serve via the node API.
- A Model Artifact manifest can prove which Shards a node can serve.
- DeepSeek-V4-Flash has a written support recommendation: PyTorch, vLLM/SGLang, llama.cpp/GGUF, or blocked.
### DGR-017: Reconcile and clean the superseded DGR backlog
**Milestone:** M0 · **Mode:** AFK · **State:** complete · **Depends on:** none
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/017-reconcile-and-clean-the-superseded-dgr-backlog.md`, and evidence READMEs for dependencies (none) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Audit implementation reality, void inherited completion credit, and clean misleading backlog/stub baggage while preserving attributable evidence and accepted research.
- [x] Compare the branch, old DGR-001..016 issue/pass states, evidence, and actual runtime sources; classify each output as reusable, reference-only, blocked, obsolete, or absent.
- [x] Record an authoritative old-to-new disposition and provenance; explicitly give no completion credit to any new story and note absent implementation/evidence.
- [x] Remove or archive only artifacts the audit proves obsolete while preserving accepted ADRs, useful research, raw benchmark evidence, and attributable reusable work.
- [x] Protect ignored build workspaces, generated protobuf outputs, Ralph logs, and model artifacts from accidental commits, and document every retained legacy artifact.
- [x] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-018: Define canonical Ralph and Gitea metadata schema
**Milestone:** M0 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-017
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/018-define-canonical-ralph-and-gitea-metadata-schema.md`, and evidence READMEs for dependencies (DGR-017) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Make `prd.json` the validated source from which Markdown and Gitea issues can later be generated losslessly.
- [ ] Define fields for stable ID/title, labels, milestone, type, `dependsOn`, derived `blocks`, triage, evidence class, and hardware/model/upstream flags.
- [ ] Validate that all stories start `passes: false`, use known dependencies, and have unique stable IDs.
- [ ] Reject cycles, missing dependencies, mismatched generated `blocks`, duplicate titles/IDs, and generated artifacts claiming authority over `prd.json`.
- [ ] Add deterministic model-free tests for parse, validation, and generation round trips.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-019: Lock alpha and beta performance contracts
**Milestone:** M0 · **Mode:** HITL · **Triage:** `ready-for-human` · **Depends on:** DGR-017
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/019-lock-alpha-and-beta-performance-contracts.md`, and evidence READMEs for dependencies (DGR-017) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Freeze useful speed, correctness, memory-fit, and stop/go thresholds before implementation results are visible.
- [ ] Define controlled safetensors, whole-model GGUF, dense distributed GGUF, and V4 Flash distributed lanes with fixed prompts, context/output lengths, sampling, concurrency, hardware, and metrics.
- [ ] Alpha requires correctness plus a human-approved useful-speed threshold; beta adds concurrency, long-context, failure, and sustained-throughput thresholds.
- [ ] Separate quantization/model-fit gains from runtime, transport, batching, and kernel gains.
- [ ] Treat quants and 24/10+ stage counts only as named certification scenarios; no product logic may hardcode them.
- [ ] Lock thresholds and stop conditions in versioned machine-readable data before benchmark result ingestion.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-020: Run the controlled whole-model GGUF baseline
**Milestone:** M0 · **Mode:** HITL · **Triage:** `ready-for-human` · **Depends on:** DGR-019
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/020-run-the-controlled-whole-model-gguf-baseline.md`, and evidence READMEs for dependencies (DGR-019) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Execute the locked safetensors and whole-model llama.cpp lanes before distributed implementation results can influence the decision.
- [ ] Run the exact DGR-019 safetensors and whole-model llama.cpp benchmark lanes with locked prompts, lengths, sampling, concurrency, hardware, and artifact/runtime identities.
- [ ] Record raw machine-readable correctness, TTFT, prefill/decode, throughput, latency, memory, artifact-size, failure, and quality-drift metrics without ingesting distributed implementation results.
- [ ] Separate quantization/model-fit effects from runtime/kernel effects and preserve failed or unavailable lanes honestly.
- [ ] Publish a threshold-based `go`, `optimize baseline`, or `stop` decision without changing the locked contract.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-021: Define the versioned named-tensor stream envelope
**Milestone:** M1 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-018
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/021-define-the-versioned-named-tensor-stream-envelope.md`, and evidence READMEs for dependencies (DGR-018) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Establish the backend-neutral protobuf envelope used by direct and relayed Shard activation traffic.
- [ ] Define schema version, request/work ID, route session/epoch, shard range/effective start, phase, position, and idempotency step.
- [ ] Define named tensors with shape, dtype, byte order, bounded fragments, compression identity, and checksum.
- [ ] Reserve extensible fields for token-ID sidebands, architecture state, recurrent state, and MTP without claiming implementations.
- [ ] Add deterministic serialization, fragmentation, checksum, unknown-field, and size-limit tests.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-022: Define Shard lifecycle and structured status RPCs
**Milestone:** M1 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-021
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/022-define-shard-lifecycle-and-structured-status-rpcs.md`, and evidence READMEs for dependencies (DGR-021) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Complete the gRPC contract for worker capability, health, sessions, cancellation, release, and metrics.
- [ ] Define capability, health, bidirectional session stream, cancellation, release, and metrics RPCs.
- [ ] Specify deadlines, cancellation propagation, bounded flow control, cache expectations/results, and structured error taxonomy.
- [ ] Specify TLS/auth hooks without moving Meshnet authentication or billing into the worker.
- [ ] Add compatibility tests for supported versions and fail-closed tests for unsupported versions and malformed lifecycle transitions.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-023: Make Python and C++ protobuf generation reproducible
**Milestone:** M1 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-021
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/023-make-python-and-c-protobuf-generation-reproducible.md`, and evidence READMEs for dependencies (DGR-021) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Generate identical Python/C++ protocol bindings without manual copying or checked-in build debris.
- [ ] Pin protoc, gRPC, and plugin versions or declare a verified compatible range.
- [ ] Generate Python and C++ bindings into out-of-tree build/package locations through documented commands.
- [ ] Add Python↔C++ round-trip and descriptor compatibility tests.
- [ ] A clean checkout regenerates bindings deterministically or fails with an actionable toolchain error.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-024: Implement in-memory fake gRPC seam transport
**Milestone:** M1 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-022, DGR-023
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/024-implement-in-memory-fake-grpc-seam-transport.md`, and evidence READMEs for dependencies (DGR-022, DGR-023) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Exercise the complete streaming protocol deterministically before a real model or worker exists.
- [ ] Provide a fake bidirectional stream supporting prefill fragments, decode fast-path frames, release, cancel, and structured errors.
- [ ] Test flow-control blocking, deadlines, malformed fragments, checksum failure, duplicates, and stale epochs.
- [ ] Verify direct and opaque-relay framing preserve identical protobuf bytes.
- [ ] Tests require no sockets outside localhost, model downloads, or native accelerator.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-025: Define exact artifact and runtime recipe identity
**Milestone:** M1 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-018, DGR-021
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/025-define-exact-artifact-and-runtime-recipe-identity.md`, and evidence READMEs for dependencies (DGR-018, DGR-021) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Ensure the tracker and worker only combine numerically and operationally compatible shards.
- [ ] Fingerprint source artifact SHA, tokenizer revision, architecture adapter/version, boundary schema, runtime pin/patch stack, backend, quant, activation/compute dtype, and KV/state layout.
- [ ] Bind each shard to an exact half-open range without hardcoding a topology or quant.
- [ ] Fail closed on any artifact, adapter, boundary, cache, backend, or runtime mismatch.
- [ ] Unsupported recipes remain registered-but-dark until real-hardware evidence certifies them.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-026: Provision exact split-GGUF artifacts outside /home
**Milestone:** M1 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-025
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/026-provision-exact-split-gguf-artifacts-outside-home.md`, and evidence READMEs for dependencies (DGR-025) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Make exact split-GGUF inputs reproducibly available from mounted-drive storage without embedding a quantization or topology assumption in product code.
- [ ] Create an exact manifest that binds the source artifact, tokenizer/revision, every split file name, size, range/role, and cryptographic hash.
- [ ] Provide resumable, hash-verifying download/provision tooling targeting configured mounted-drive storage; refuse paths under `/home` and incomplete or mismatched splits.
- [ ] Keep quantization and split topology as manifest/recipe inputs with no hardcoded quant, node count, or range layout.
- [ ] Add deterministic model-download-free tests using tiny local split fixtures, including interrupted resume, missing split, hash mismatch, and `/home` rejection.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-027: Add exact llama.cpp provenance manifest and fetch workspace
**Milestone:** M1 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-017
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/027-add-exact-llama-cpp-provenance-manifest-and-fetch-workspace.md`, and evidence READMEs for dependencies (DGR-017) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Pin llama.cpp exactly through an in-repo manifest while fetching source only into an ignored build workspace.
- [ ] Manifest records upstream URL, exact commit, expected source archive/tree hash, license, and retrieval method.
- [ ] Fetch tooling verifies identity before use and refuses an unpinned branch/tag.
- [ ] Source is fetched into an ignored build workspace; no submodule, vendored source tree, or permanent fork is introduced.
- [ ] Offline reuse is supported only after the cached trees exact identity is verified.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-028: Implement numbered patch-stack apply and verification
**Milestone:** M1 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-027
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/028-implement-numbered-patch-stack-apply-and-verification.md`, and evidence READMEs for dependencies (DGR-027) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Maintain a minimal auditable llama.cpp delta with one numbered patch per concern.
- [ ] Add deterministic apply/check/reverse verification against the exact manifest pin.
- [ ] Separate range loading, boundary I/O, filtered state, and worker hooks into scoped patches.
- [ ] Record upstream file/API assumptions and fail with the first incompatible patch when the pin changes.
- [ ] Verify license/attribution and prove no Meshnet routing, billing, relay, or authentication code enters the patch stack.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-029: Create the native CMake skeleton and deterministic CPU lane
**Milestone:** M1 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-027, DGR-028
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/029-create-the-native-cmake-skeleton-and-deterministic-cpu-lane.md`, and evidence READMEs for dependencies (DGR-027, DGR-028) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Establish an out-of-tree standalone native build with a deterministic CPU lane before accelerator matrix work.
- [ ] Create the standalone native CMake target/skeleton and isolated out-of-tree configure/build preset for CPU.
- [ ] Build and run a deterministic model-free CPU smoke/CTest lane from a clean checkout with actionable toolchain failures.
- [ ] Keep fetched upstream sources, generated bindings, and all build outputs ignored and out of tree.
- [ ] Ensure build success alone does not advertise any backend/model/recipe capability.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-030: Add accelerator build presets and native CI matrix
**Milestone:** M1 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-029
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/030-add-accelerator-build-presets-and-native-ci-matrix.md`, and evidence READMEs for dependencies (DGR-029) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Compile all required accelerator lanes reproducibly while keeping untested real-hardware capabilities registered-dark.
- [ ] Add isolated out-of-tree presets for CUDA, ROCm, Vulkan, and Metal without changing the deterministic CPU default.
- [ ] Add a native CI/build matrix that reports unavailable SDKs as explicit unavailable/skipped lanes rather than false success.
- [ ] Compile each available lane and preserve exact compiler, SDK, upstream pin, patch-stack, and build-option evidence.
- [ ] Keep every backend/model/recipe lane registered-dark until a separate real-hardware certification record exists.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-031: Introduce the project-owned `ShardEngine` interface
**Milestone:** M1 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-021, DGR-025
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/031-introduce-the-project-owned-shardengine-interface.md`, and evidence READMEs for dependencies (DGR-021, DGR-025) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Isolate worker/protocol code from llama.cpp internals behind a stable project-owned engine contract.
- [ ] Define load, capabilities, prefill/decode, boundary/logits result, cancel, release, health, and metrics operations.
- [ ] Use project-owned request/result/state types; expose no `ggml_tensor`, llama context, scheduler, or ABI-owned structure.
- [ ] Reserve typed MTP and architecture auxiliary-state hooks without enabling them.
- [ ] Add contract tests proving fake and future llama implementations obey identical lifecycle semantics.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-032: Implement deterministic fake `ShardEngine`
**Milestone:** M1 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-031
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/032-implement-deterministic-fake-shardengine.md`, and evidence READMEs for dependencies (DGR-031) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Provide an engine fixture that deterministically transforms typed boundary bundles and session state.
- [ ] Support head, middle, tail, prefill, decode, cancellation, and release with deterministic outputs.
- [ ] Model isolated session/epoch state and deterministic cache-miss/stale-epoch failures.
- [ ] Support configurable delay, memory pressure, malformed output, and crash injection.
- [ ] Contract tests distinguish fixture evidence from real-model certification.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-033: Build a standalone fake C++ gRPC Shard worker
**Milestone:** M1 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-022, DGR-024, DGR-032
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/033-build-a-standalone-fake-c-grpc-shard-worker.md`, and evidence READMEs for dependencies (DGR-022, DGR-024, DGR-032) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Prove the standalone worker process, stream, lifecycle, and supervision shape before llama.cpp integration.
- [ ] A standalone C++ executable serves the complete lifecycle and stream RPC contract using the fake engine.
- [ ] Python integration tests cover startup, health, capability, fragmented prefill, decode, release, cancellation, and graceful shutdown.
- [ ] Bounded messages, deadlines, flow control, and independent session cancellation are enforced.
- [ ] The worker exposes neither llama.cpp RPC nor arbitrary graph execution.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-034: Implement dense-Llama range-aware GGUF ownership
**Milestone:** M2 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-028, DGR-029, DGR-031
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/034-implement-dense-llama-range-aware-gguf-ownership.md`, and evidence READMEs for dependencies (DGR-028, DGR-029, DGR-031) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Load only the dense-Llama tensors owned by a shard range.
- [ ] Load only `blk.N.*` tensors in the assigned range, embeddings only at the head, and norm/output or tied output only at the tail.
- [ ] Derive authoritative range and endpoint ownership from the loaded engine state.
- [ ] Reject invalid/gapped/out-of-model ranges and unexpected required tensors.
- [ ] Real-model evidence shows mapped/resident memory scales with owned tensors rather than full artifact size.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-035: Implement dense architecture boundary input/output
**Milestone:** M2 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-021, DGR-031, DGR-034
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/035-implement-dense-architecture-boundary-input-output.md`, and evidence READMEs for dependencies (DGR-021, DGR-031, DGR-034) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Execute dense head/middle/tail ranges through an architecture-defined residual boundary.
- [ ] Head accepts token IDs and owns embedding; middle/tail bypass embedding and accept a named boundary bundle.
- [ ] Non-tail returns the unnormalized residual before final norm/head and before tail-only row pruning.
- [ ] Tail returns logits or sampled-token output under an explicit contract.
- [ ] Uncertified architectures and incompatible boundary schemas fail closed.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-036: Prove dense fixture and real-model range parity
**Milestone:** M2 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-033, DGR-035
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/036-prove-dense-fixture-and-real-model-range-parity.md`, and evidence READMEs for dependencies (DGR-033, DGR-035) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Prove the engine/protocol seam before adding session concurrency.
- [ ] Model-free two-stage tests pass through two fake worker processes with disjoint ranges.
- [ ] A small real dense GGUF passes whole-model versus two-range prefill parity.
- [ ] At least 32 greedy decode tokens match the locked tolerance.
- [ ] Evidence distinguishes deterministic fixture proof from opt-in real-model proof.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-037: Bind llama.cpp to the standalone worker
**Milestone:** M2 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-022, DGR-023, DGR-031, DGR-034, DGR-035
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/037-bind-llama-cpp-to-the-standalone-worker.md`, and evidence READMEs for dependencies (DGR-022, DGR-023, DGR-031, DGR-034, DGR-035) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Replace the fake engine with the pinned llama.cpp `ShardEngine` implementation without changing the public worker contract.
- [ ] Worker loads exactly one artifact/recipe/range identity and rejects mismatched stream requests.
- [ ] All execution passes through `ShardEngine`; llama.cpp implementation types remain private.
- [ ] Health and metrics expose loaded identity, authoritative ownership, memory, and execution state.
- [ ] Graceful shutdown releases model/session resources; injected process death is observable and bounded.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-038: Implement isolated shard-local Hot KV State
**Milestone:** M2 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-037
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/038-implement-isolated-shard-local-hot-kv-state.md`, and evidence READMEs for dependencies (DGR-037) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Map each route session and epoch to isolated state containing only locally owned layers.
- [ ] Map `(route_session_id, route_epoch)` to an isolated llama sequence or bounded context.
- [ ] Support prefill/decode append, truncate, release, TTL/LRU eviction, cache miss, and stale-epoch rejection.
- [ ] Four concurrent sessions complete without token, KV, position, or cancellation cross-talk.
- [ ] Release/eviction returns memory to the configured budget without affecting other sessions.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-039: Pass local two-process dense acceptance
**Milestone:** M2 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-036, DGR-037, DGR-038
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/039-pass-local-two-process-dense-acceptance.md`, and evidence READMEs for dependencies (DGR-036, DGR-037, DGR-038) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Establish the first real, independently executing distributed GGUF route on one host.
- [ ] Two worker processes open disjoint dense ranges and both execute real prefill/decode work.
- [ ] Whole-model parity, 32-token greedy decode, four-session isolation, cancellation, and cleanup pass.
- [ ] Record TTFT, prefill/decode rates, seam bytes/latency, RSS/VRAM, KV, queue, and failure metrics.
- [ ] Killing one worker returns a bounded structured failure rather than hanging.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-040: Add node-side native worker supervision
**Milestone:** M2 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-033, DGR-037
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/040-add-node-side-native-worker-supervision.md`, and evidence READMEs for dependencies (DGR-033, DGR-037) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Let the existing node service safely start, probe, stop, and restart the standalone worker.
- [ ] Supervision owns process startup, readiness, log capture, graceful shutdown, and bounded forced termination.
- [ ] Startup verifies worker binary, artifact identity, recipe, and range before registration.
- [ ] Crashes or health loss make the capability unavailable without corrupting the Transformers backend.
- [ ] Tests use the fake worker and deterministic crash injection.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-041: Register native Shard capabilities without redesigning Meshnet
**Milestone:** M2 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-025, DGR-040
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/041-register-native-shard-capabilities-without-redesigning-meshnet.md`, and evidence READMEs for dependencies (DGR-025, DGR-040) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Adapt native worker identity and capacity to existing backend-agnostic capability admission.
- [ ] Registration carries exact recipe fingerprint, authoritative range, backend, memory/KV capacity, concurrency, and certification status.
- [ ] Existing tracker, billing, routing, telemetry, and provider semantics remain backend-agnostic.
- [ ] Uncertified backend/model/recipe combinations are visible but unroutable.
- [ ] Existing Transformers registration and route tests remain unchanged in behavior.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-042: Carry native frames through direct and existing relay seams
**Milestone:** M2 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-024, DGR-040
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/042-carry-native-frames-through-direct-and-existing-relay-seams.md`, and evidence READMEs for dependencies (DGR-024, DGR-040) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Use direct gRPC where available and the existing relay as opaque protobuf transport without redesigning relay behavior.
- [ ] Direct paths use the long-lived gRPC activation stream.
- [ ] Relayed paths carry byte-identical versioned protobuf frames through the existing relay contract.
- [ ] Request/work identity, cancellation, deadlines, telemetry, billing correlation, and per-node attribution survive both paths.
- [ ] Fake-worker tests cover direct, relay, disconnect, cancellation, and bounded buffering.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-043: Expose GGUF compatibility and measured cost inputs to existing routing
**Milestone:** M2 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-041
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/043-expose-gguf-compatibility-and-measured-cost-inputs-to-existing-routing.md`, and evidence READMEs for dependencies (DGR-041) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Adapt exact GGUF recipe/range compatibility and measured capacity, queue, seam-cost, health, and reliability data into the existing backend-agnostic routing inputs without redesigning routing or load balancing.
- [ ] Expose exact recipe, range coverage, capacity, queue/load, seam-cost, health, reliability, backend, and certification measurements through existing tracker input contracts.
- [ ] Prove existing routing forms complete compatible coverage and excludes dark or mismatched candidates using its current backend-agnostic mechanisms.
- [ ] Regression-test unchanged Transformers behavior and unchanged tracker routing, load-balancing, billing, relay, and provider semantics.
- [ ] Regression-test that no quant, stage count, fixed split, architecture, backend sequence, or DeepSeek-specific policy is hardcoded.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-044: Pin the DeepSeek V4 Flash target contract
**Milestone:** M3 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-019, DGR-025, DGR-026, DGR-027
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/044-pin-the-deepseek-v4-flash-target-contract.md`, and evidence READMEs for dependencies (DGR-019, DGR-025, DGR-026, DGR-027) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Fix the alpha/beta model identity and upstream maturity assumptions before implementing the adapter.
- [ ] Pin Hugging Face target SHA `60d8d70770c6776ff598c94bb586a859a38244f1`.
- [ ] Record the selected GGUF provenance and exact source binding without assuming one quant.
- [ ] Record that llama.cpp support began with PR 24162/commit `8c146a8` and remains maturing; the build manifest still pins one exact validated upstream commit.
- [ ] Record 43 main layers plus MTP and all known architecture-specific state obligations.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-045: Inventory V4 GGUF tensors and layer ownership
**Milestone:** M3 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-026, DGR-044
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/045-inventory-v4-gguf-tensors-and-layer-ownership.md`, and evidence READMEs for dependencies (DGR-026, DGR-044) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Derive exact head, repeated-layer, tail, expert, auxiliary-state, and MTP ownership from the pinned artifact.
- [ ] Produce a machine-readable inventory tied to the target SHA and exact GGUF artifact.
- [ ] Classify embeddings, 43 main layers, final head, MTP, mHC, attention variants, indexer/compressor, and MoE tensors.
- [ ] Validate half-open range ownership and fail on unclassified required tensors.
- [ ] Inventory tooling works across quants without embedding quant names in architecture logic.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-046: Define the V4 typed architecture boundary schema
**Milestone:** M3 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-021, DGR-045
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/046-define-the-v4-typed-architecture-boundary-schema.md`, and evidence READMEs for dependencies (DGR-021, DGR-045) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Define the exact cross-stage V4 architecture boundary while keeping per-layer attention and auxiliary caches shard-local.
- [ ] Define a versioned named bundle for the mHC 4×4096 residual boundary, positions, token-ID sideband where required, and schema/cache expectations.
- [ ] Explicitly exclude per-layer CSA, HCA, SWA, indexer, compressor, KV, and MTP caches/state from the WAN boundary; those remain local to the owning shard and session/epoch.
- [ ] Reserve typed MTP boundary fields but mark MTP execution unsupported and unroutable for alpha.
- [ ] Fingerprint independently of quant/topology and fail closed on missing, incompatible, incorrectly shaped, or stale boundary/cache expectations.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-047: Adapt the upstream V4 mHC boundary for ranged ownership
**Milestone:** M3 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-045, DGR-046
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/047-adapt-the-upstream-v4-mhc-boundary-for-ranged-ownership.md`, and evidence READMEs for dependencies (DGR-045, DGR-046) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Add range-boundary adapters around upstream llama.cpp V4 mHC execution without reimplementing the V4 graph or kernels.
- [ ] Represent and validate the upstream V4 4×4096 mHC boundary without flattening semantic axes.
- [ ] Add only head/intermediate/tail range ownership and boundary conversion hooks around the pinned upstream llama.cpp graph.
- [ ] Compare deterministic fixture vectors and single-process ranged outputs with upstream whole-model execution.
- [ ] Document that llama.cpp owns V4 mHC graph/kernels and that quantized storage does not alter the logical boundary schema.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-048: Carry token-ID sideband through the first three hash-routed layers
**Milestone:** M3 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-046, DGR-047
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/048-carry-token-id-sideband-through-the-first-three-hash-routed-layers.md`, and evidence READMEs for dependencies (DGR-046, DGR-047) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Ensure any stage containing the first three hash-routed layers receives exact token identities.
- [ ] Head emits token IDs in the typed sideband for boundaries that require them.
- [ ] Intermediate stages preserve or consume the sideband according to their layer range.
- [ ] Routes splitting before, within, and after the first three layers pass deterministic partition tests.
- [ ] Missing or mismatched token IDs fail closed rather than silently selecting incorrect experts.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-049: Keep V4 attention and auxiliary state shard-local
**Milestone:** M3 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-046, DGR-047
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/049-keep-v4-attention-and-auxiliary-state-shard-local.md`, and evidence READMEs for dependencies (DGR-046, DGR-047) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Bind V4 CSA/HCA/SWA/indexer/compressor and KV state to the owning shard session/epoch rather than transferring caches over the WAN.
- [ ] Map CSA, HCA, SWA, indexer, compressor, and KV ownership from the pinned upstream graph to each owned layer range.
- [ ] Key all such caches/state by route session and epoch with bounded lifecycle, memory accounting, stale-epoch rejection, release, and eviction.
- [ ] Prove cross-stage messages carry only the typed architecture boundary and cache expectations, never per-layer cache contents.
- [ ] On route change or state loss, use explicit cache miss and re-prefill/restart; do not migrate V4 caches across workers.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-050: Validate upstream V4 MoE and hash-routing execution under ranged ownership
**Milestone:** M3 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-045, DGR-047
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/050-validate-upstream-v4-moe-and-hash-routing-execution-under-ranged-ownership.md`, and evidence READMEs for dependencies (DGR-045, DGR-047) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Validate the pinned upstream llama.cpp V4 MoE and hash-routing graph when layers are range-owned, without reimplementing routing or expert kernels in Meshnet.
- [ ] Load range-owned tensors for 256 routed plus one shared expert and validate upstream execution activates six routed experts where specified.
- [ ] Validate the first three upstream hash-routed layers receive exact token-ID sideband across splits before, within, and after them.
- [ ] Compare upstream whole-model and ranged router/expert outputs, shared-expert contribution, and malformed sideband failures.
- [ ] Document that llama.cpp owns V4 MoE, attention, hash routing, graph, and kernels; no expert-parallel WAN collective or Meshnet reimplementation is introduced.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-051: Assemble the DeepSeek V4 Flash `ShardEngine` adapter
**Milestone:** M3 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-034, DGR-037, DGR-047, DGR-048, DGR-049, DGR-050
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/051-assemble-the-deepseek-v4-flash-shardengine-adapter.md`, and evidence READMEs for dependencies (DGR-034, DGR-037, DGR-047, DGR-048, DGR-049, DGR-050) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Assemble range ownership hooks and boundary/local-state adapters around upstream llama.cpp V4 execution behind the stable ShardEngine interface.
- [ ] Support valid head, middle, tail, and whole-model ranges over all 43 main layers using the pinned upstream llama.cpp V4 graph/kernels.
- [ ] Integrate exact range ownership, mHC boundary, positions, required token-ID sideband, and shard-local session/epoch state adapters.
- [ ] Report MTP reserved-but-not-executable for alpha and reject unsupported split points or cache expectations.
- [ ] Include exact adapter/schema/runtime/artifact identity and valid split restrictions without reimplementing V4 MoE, attention, mHC, or hash routing.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-052: Pass local V4 whole-model versus ranged parity
**Milestone:** M3 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-038, DGR-051
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/052-pass-local-v4-whole-model-versus-ranged-parity.md`, and evidence READMEs for dependencies (DGR-038, DGR-051) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Prove V4 prefill and decode correctness locally before network certification.
- [ ] Compare pinned whole-model llama.cpp with at least two valid ranged partitions.
- [ ] Prefill intermediates and locked-length greedy decode pass architecture-specific tolerances.
- [ ] Test splits around the first three hash-routed layers and at least one CSA/HCA/SWA/indexer/compressor transition.
- [ ] Four concurrent sessions pass KV/state isolation and cleanup.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-053: Certify a real 24-stage V4 route
**Milestone:** M3 · **Mode:** HITL · **Triage:** `ready-for-human` · **Depends on:** DGR-030, DGR-043, DGR-052
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/053-certify-a-real-2-4-stage-v4-route.md`, and evidence READMEs for dependencies (DGR-030, DGR-043, DGR-052) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Prove real Tracker-selected V4 execution across physical machines before alpha.
- [ ] Run one documented 24-stage certification scenario using exact compatible artifacts/recipes; the count and chosen quant are evidence inputs, not product constants.
- [ ] Actual CPU/GPU work executes on every stage; fake workers do not satisfy acceptance.
- [ ] Record parity, TTFT, prefill/decode speed, seam cost, memory, cache/state isolation, cancellation, and cleanup.
- [ ] Tracker selection remains dynamic and rejects an injected incompatible backend/recipe.
- [ ] Only the exact real-hardware lanes exercised become eligible for advertisement.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-054: Enforce the DeepSeek V4 Flash alpha gate
**Milestone:** M3 · **Mode:** HITL · **Triage:** `ready-for-human` · **Depends on:** DGR-017, DGR-019, DGR-020, DGR-039, DGR-042, DGR-043, DGR-052, DGR-053
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/054-enforce-the-deepseek-v4-flash-alpha-gate.md`, and evidence READMEs for dependencies (DGR-017, DGR-019, DGR-020, DGR-039, DGR-042, DGR-043, DGR-052, DGR-053) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Release alpha only when V4 is correct and clears the pre-locked useful-speed requirement.
- [ ] Evaluate correctness, model fit, TTFT, prefill/decode speed, seam cost, memory, and failure rate against DGF-004 without changing thresholds.
- [ ] Separate quant/model-fit gains from runtime/transport gains.
- [ ] Decision is `alpha`, `optimize measured bottleneck`, or `stop`; failures cannot be relabeled as certification.
- [ ] Alpha documentation states MTP is reserved but not implemented and identifies every dark hardware lane.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-055: Implement compatible continuous decode batching
**Milestone:** M4 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-038, DGR-040, DGR-054
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/055-implement-compatible-continuous-decode-batching.md`, and evidence READMEs for dependencies (DGR-038, DGR-040, DGR-054) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Batch compatible active sessions without violating route, recipe, position, or architecture state.
- [ ] Batch only sessions with compatible engine, recipe, phase, boundary schema, and state layout.
- [ ] Preserve per-session positions, sequence IDs, outputs, cancellation, and accounting.
- [ ] Decode receives bounded service while prefill remains schedulable.
- [ ] Deterministic 1/2/4/8 concurrency tests show no cross-session corruption.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-056: Enforce bounded admission, queues, and backpressure
**Milestone:** M4 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-055
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/056-enforce-bounded-admission-queues-and-backpressure.md`, and evidence READMEs for dependencies (DGR-055) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Prevent weight, KV, state, scratch, and stream buffers from exceeding admitted capacity.
- [ ] Admission accounts separately for weights, KV/state, scratch, in-flight fragments, and queue slots.
- [ ] Queue and stream limits produce structured retryable or terminal responses.
- [ ] Prefill cannot starve decode and one route session cannot monopolize queue capacity.
- [ ] Telemetry reports active sessions, queue depth/time, batch occupancy, memory pressure, and rejects.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-057: Benchmark batching saturation and fairness
**Milestone:** M4 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-055, DGR-056
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/057-benchmark-batching-saturation-and-fairness.md`, and evidence READMEs for dependencies (DGR-055, DGR-056) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Identify useful concurrency and saturation points without assuming one global batch size.
- [ ] Run controlled concurrency 1/2/4/8 and record aggregate throughput, per-request p50/p95, TTFT, queue time, occupancy, and memory.
- [ ] Measure dense and V4 lanes separately where hardware permits.
- [ ] Verify bounded fairness and no prefill/decode starvation.
- [ ] Produce machine-readable saturation recommendations consumed by capability reporting, not hardcoded constants.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-058: Harden worker and stream failure semantics
**Milestone:** M4 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-040, DGR-042, DGR-056
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/058-harden-worker-and-stream-failure-semantics.md`, and evidence READMEs for dependencies (DGR-040, DGR-042, DGR-056) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Ensure malformed input, process death, transport reset, and cancellation terminate cleanly.
- [ ] Test worker death, stream reset, malformed bundle, checksum failure, deadline, cache miss, stale epoch, and partial fragment loss.
- [ ] Cancellation propagates across all stages and releases KV/state, queue entries, and fragment buffers.
- [ ] Duplicate steps are idempotent; uncertain mutations are never silently replayed.
- [ ] Billing/work outcomes distinguish completed, cancelled, failed, and unverified work.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-059: Implement alpha-safe route recovery
**Milestone:** M4 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-043, DGR-058
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/059-implement-alpha-safe-route-recovery.md`, and evidence READMEs for dependencies (DGR-043, DGR-058) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Recover from route loss without importing or continuing unverified state.
- [ ] On route loss or local-state cache miss, restart from token zero or re-prefill on a newly compatible route according to the locked alpha contract.
- [ ] Never import KV, CSA, HCA, SWA, indexer, compressor, recurrent, or MTP cache/state across workers.
- [ ] Keep exact same-route duplicate delivery idempotent while cross-route continuation fails closed.
- [ ] Test direct/relay loss, cache miss, replacement selection, client cancellation, and billing reconciliation.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-060: Certify V4 long-context state correctness
**Milestone:** M4 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-051, DGR-056, DGR-058
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/060-certify-v4-long-context-state-correctness.md`, and evidence READMEs for dependencies (DGR-051, DGR-056, DGR-058) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Prove V4s KV and auxiliary state remain correct and bounded at long contexts.
- [ ] Exercise pre-locked context lengths covering multiple prefill chunks and sustained decode.
- [ ] Validate KV plus CSA/HCA/SWA/indexer/compressor state positions across every stage.
- [ ] Measure memory growth, fragment sizes, TTFT, decode degradation, cancellation latency, and cleanup.
- [ ] Cache mismatch, truncation, and context-limit behavior fail deterministically.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-061: Certify existing routing with 10+ GGUF stage candidates
**Milestone:** M4 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-043, DGR-057, DGR-058
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/061-certify-existing-routing-with-10-gguf-stage-candidates.md`, and evidence READMEs for dependencies (DGR-043, DGR-057, DGR-058) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Certify that existing backend-agnostic routing consumes GGUF compatibility and measured-cost inputs for a 10+ candidate scenario without algorithm or policy redesign.
- [ ] Generate deterministic pools with 10+ compatible GGUF stage candidates plus slower, overloaded, unhealthy, and incompatible alternatives.
- [ ] Run the existing routing implementation unchanged and verify complete coverage, compatibility, acyclicity, and use of measured inputs.
- [ ] Regression-test that no stage count, quant, fixed split, architecture, or backend sequence is encoded in production routing policy.
- [ ] Verify existing route recomputation reacts to measured load/failure while tracker, load-balancing, billing, relay, and provider semantics remain unchanged.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-062: Certify a dynamic real 10+ stage V4 scenario
**Milestone:** M4 · **Mode:** HITL · **Triage:** `ready-for-human` · **Depends on:** DGR-053, DGR-060, DGR-061
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/062-certify-a-dynamic-real-10-stage-v4-scenario.md`, and evidence READMEs for dependencies (DGR-053, DGR-060, DGR-061) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Demonstrate that a large real route can be dynamically selected and usefully execute V4.
- [ ] Run one real 10+-stage V4 certification scenario; stage count, quant, and split remain scenario metadata only.
- [ ] Every selected stage proves real work, exact compatible identity, local state ownership, and bounded resources.
- [ ] Record end-to-end and per-stage TTFT, prefill/decode, seam cost, queueing, memory, failures, and cleanup.
- [ ] Inject at least one incompatible or degraded candidate and verify dynamic exclusion/reselection.
- [ ] The scenario must meet its pre-locked usefulness threshold or remain failed evidence.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-063: Profile and optimize the critical seam
**Milestone:** M4 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-057, DGR-061
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/063-profile-and-optimize-the-critical-seam.md`, and evidence READMEs for dependencies (DGR-057, DGR-061) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Optimize only the measured dominant compute, serialization, copy, or transport bottleneck.
- [ ] Profile worker compute, tensor conversion, copies, protobuf framing, compression, relay/direct transport, queueing, and synchronization.
- [ ] Select one dominant bottleneck from evidence and lock its before/after benchmark.
- [ ] Implement one bounded optimization without weakening correctness or protocol identity.
- [ ] Report whether the optimization changes TTFT, prefill, decode, throughput, or memory and preserve raw data.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-064: Add negotiated activation compression
**Milestone:** M4 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-060, DGR-063
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/064-add-negotiated-activation-compression.md`, and evidence READMEs for dependencies (DGR-060, DGR-063) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Reduce V4 seam cost only when a certified compression recipe improves end-to-end performance acceptably.
- [ ] Negotiate compression through recipe identity; unnegotiated or mismatched compression fails closed.
- [ ] Preserve names, shapes, semantic axes, token-ID sideband, and checksums.
- [ ] Measure quality drift, encode/decode cost, bytes, TTFT, and throughput against uncompressed boundaries.
- [ ] Compression remains dark unless it meets pre-locked quality and speed thresholds.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-065: Define V4 MTP ownership and distributed state contract
**Milestone:** M4 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-051, DGR-054, DGR-060
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/065-define-v4-mtp-ownership-and-distributed-state-contract.md`, and evidence READMEs for dependencies (DGR-051, DGR-054, DGR-060) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Lock MTP tensor, execution, boundary, acceptance/rejection, and session-state ownership before implementation while keeping MTP disabled for alpha.
- [ ] Derive exact MTP tensor and execution ownership from the pinned V4 target and upstream llama.cpp graph, distinguishing main-layer, tail, and MTP responsibilities.
- [ ] Define typed MTP inputs/outputs plus accepted-token, rejection, rollback/truncation, position, cache, and session/epoch lifecycle semantics.
- [ ] Specify which MTP state remains shard-local and which typed boundary values cross a seam; prohibit WAN migration of KV or V4 auxiliary caches.
- [ ] Keep every MTP recipe disabled and unroutable for alpha, with fail-closed capability negotiation and deterministic contract fixtures.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-066: Implement and benchmark V4 MTP
**Milestone:** M4 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-054, DGR-060, DGR-064, DGR-065
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/066-implement-and-benchmark-v4-mtp.md`, and evidence READMEs for dependencies (DGR-054, DGR-060, DGR-064, DGR-065) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Implement the locked MTP contract around upstream llama.cpp before beta, without making MTP an alpha prerequisite.
- [ ] Implement the exact DGR-065 MTP ownership and typed state contract against the pinned upstream V4 graph while preserving shard-local caches.
- [ ] Pass whole-model versus ranged MTP correctness, accepted-token, rejection, rollback/truncation, and session-isolation tests.
- [ ] Benchmark MTP-off versus MTP-on quality, accepted-token rate, TTFT, decode speed, seam bytes, and memory on the locked lane.
- [ ] Distinguish implemented, certified, disabled, and unsupported MTP recipes in fail-closed capability advertisement.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-067: Certify the backend capability matrix
**Milestone:** M4 · **Mode:** HITL · **Triage:** `ready-for-human` · **Depends on:** DGR-030, DGR-053, DGR-062, DGR-066
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/067-certify-the-backend-capability-matrix.md`, and evidence READMEs for dependencies (DGR-030, DGR-053, DGR-062, DGR-066) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Publish only backend/model/recipe lanes proven on actual CPU, CUDA, ROCm, Vulkan, or Metal hardware.
- [ ] Maintain independent build and certification status for CPU, CUDA, ROCm, Vulkan, and Metal.
- [ ] Each advertised lane includes real hardware/driver/runtime/model evidence for parity, concurrency, cancellation, cleanup, and useful speed.
- [ ] Build success alone never makes a lane routable; unavailable hardware remains explicitly dark.
- [ ] Tracker admission consumes signed/versioned certification records rather than backend-name allowlists.
- [ ] Mixed-backend routes require exact compatibility evidence and fail closed otherwise.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-068: Package reproducible native worker releases
**Milestone:** M5 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-030, DGR-054, DGR-067
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/068-package-reproducible-native-worker-releases.md`, and evidence READMEs for dependencies (DGR-030, DGR-054, DGR-067) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Produce installable worker packages that preserve exact source, patch, protocol, and certification identity.
- [ ] Package worker binaries/configuration for supported host/backend combinations without bundling an unverified llama.cpp tree.
- [ ] Embed protocol, engine, upstream pin, patch-stack, build-toolchain, and certification fingerprints.
- [ ] Installation/startup refuses mismatched artifacts, runtime recipes, or unsupported hardware lanes.
- [ ] Produce checksums, SBOM/license attribution, reproducible build instructions, and smoke tests.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-069: Prepare narrow upstream llama.cpp collaboration patches
**Milestone:** M5 · **Mode:** HITL · **Triage:** `ready-for-human` · **Depends on:** DGR-028, DGR-035, DGR-038, DGR-051
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/069-prepare-narrow-upstream-llama-cpp-collaboration-patches.md`, and evidence READMEs for dependencies (DGR-028, DGR-035, DGR-038, DGR-051) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Reduce long-term patch burden through generic upstreamable hooks without asking llama.cpp to own Meshnet.
- [ ] Separate generic range loading, boundary I/O, and filtered state hooks from project worker/protocol code.
- [ ] Provide one scoped patch, focused test, and minimal reproducer per concern against the exact upstream pin.
- [ ] Compare the proposal with prior-art evidence and current upstream V4 support/maturity.
- [ ] Prepare human-ready design/outreach text; actual issue/PR submission remains a human action.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-070: Enforce the DeepSeek V4 Flash beta gate
**Milestone:** M5 · **Mode:** HITL · **Triage:** `ready-for-human` · **Depends on:** DGR-057, DGR-059, DGR-060, DGR-062, DGR-064, DGR-066, DGR-067, DGR-068
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/070-enforce-the-deepseek-v4-flash-beta-gate.md`, and evidence READMEs for dependencies (DGR-057, DGR-059, DGR-060, DGR-062, DGR-064, DGR-066, DGR-067, DGR-068) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Promote beta only after concurrency, resilience, long-context, MTP, scale, packaging, and speed gates pass.
- [ ] Evaluate all beta metrics against DGF-004 without changing thresholds after observing results.
- [ ] Require V4 parity, batching/fairness, bounded backpressure, failure recovery, long-context correctness, MTP evidence, and dynamic 10+ stage evidence.
- [ ] Publish the exact certified hardware/backend/recipe matrix; all other lanes remain dark.
- [ ] Decision is `beta`, `targeted optimization`, or `stop/rollback`, with unresolved failures listed explicitly.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
### DGR-071: Establish upstream pin, patch, and certification maintenance
**Milestone:** M5 · **Mode:** AFK · **Triage:** `ready-for-agent` · **Depends on:** DGR-069, DGR-070
Fresh Ralph session: read `.scratch/distributed-gguf-runtime/RALPH-CONTEXT.md`, source issue `.scratch/distributed-gguf-runtime/issues/071-establish-upstream-pin-patch-and-certification-maintenance.md`, and evidence READMEs for dependencies (DGR-069, DGR-070) before changing code. Inspect live source/tests rather than trusting legacy pass states. Objective: Keep beta reproducible and detect upstream/model/hardware drift before it reaches routable nodes.
- [ ] Add a documented update procedure for llama.cpp pin, numbered patches, protocol/engine versions, V4 target revision, and certification records.
- [ ] A candidate pin update must apply/build/test in isolation and cannot replace the production pin automatically.
- [ ] Any changed graph, tensor inventory, boundary, cache/state layout, backend behavior, or performance invalidates affected certification.
- [ ] Add scheduled model-free checks plus opt-in real-hardware recertification instructions and rollback procedure.
- [ ] Applicable shared quality gates in `prd.json` pass, and the evidence handoff records exact commands/results, changed files, limitations, and dependency handoff.
## Non-goals
- Replacing or redesigning Tracker routing/load-balancing, billing, relay, or provider policy.
- Reimplementing DeepSeek V4 architecture graphs or kernels in Meshnet.
- Hardcoding a quant, stage count, node count, split, architecture, or backend sequence.
- WAN migration of KV or V4 auxiliary caches.
- Advertising a compile-only or fixture-only hardware lane.
- Making MTP an alpha dependency.

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@@ -0,0 +1,57 @@
# Ralph context: Distributed GGUF Runtime
> **Specification status:** planning artifacts only. No distributed GGUF runtime is implemented. DGR-017 cleanup is complete; no runtime implementation story has completion credit. `prd.json` is authoritative.
## Mandatory startup for every fresh story
1. Read this file and authoritative `prd.json` completely.
2. Read the generated source issue named in the selected story description.
3. Read every dependency evidence README; legacy DGR-001..016 evidence is provenance only.
4. Read `docs/adr/0024-distributed-gguf-runtime.md`, root `CONTEXT.md`, `.claude/memory/MEMORY.md`, and relevant live source/tests.
5. Inspect `git status`; preserve unrelated work. Never infer implementation from planning text or old pass states.
6. If blocked or oversized, keep `passes: false` and write an honest `BLOCKED.md`/`DECOMPOSITION.md`; never weaken criteria or fabricate evidence.
## Locked scope
- Existing Meshnet Tracker routing, load balancing, billing, telemetry, relay, and provider semantics are backend-agnostic and are **not redesigned**. GGUF contributes exact compatibility, range/capacity, queue/load, seam-cost, health/reliability, and certification inputs only.
- The data plane is a standalone project-owned C++ Shard worker with gRPC/Protobuf and a project-owned `ShardEngine` boundary.
- llama.cpp is fetched at one exact commit into an ignored workspace from an in-repo manifest, then a numbered minimal patch stack is applied. There is no submodule, vendored tree, or permanent-fork dependency.
- llama.cpp owns DeepSeek V4 graphs, mHC, MoE, attention, hash routing, and kernels. Meshnet adds only range-ownership hooks, typed boundary/local-state adapters, worker integration, and parity/certification.
- Quantization and placement are dynamic recipe inputs. The 24 and 10+ stage layouts are certification scenarios, never product constants.
- Per-shard Hot KV and V4 CSA/HCA/SWA/indexer/compressor state remain local and keyed by route session/epoch. The WAN seam carries the typed mHC 4×4096 residual boundary, positions, token-ID sideband where required, and schema/cache expectations—not per-layer caches.
- Route changes use cache miss plus re-prefill/restart. There is no WAN KV or V4 auxiliary-cache migration.
- CPU/CUDA/ROCm/Vulkan/Metal compile lanes are planned; only exact real-hardware-certified backend/model/recipe lanes may be advertised.
- Alpha requires correctness and the pre-locked useful-speed gate. MTP is reserved and off for alpha; its ownership contract, implementation, and benchmark are required before beta.
## Target identities
- DeepSeek V4 official target SHA: `60d8d70770c6776ff598c94bb586a859a38244f1`.
- llama.cpp V4 support lineage began at PR 24162 / merge `8c146a8366304c871efc26057cc90370ccf58dad`; DGR-027 later pins one exact validated current commit.
- V4 scope: 43 main layers plus MTP; mHC 4×4096 boundary; 256 routed + 1 shared experts with six routed active; token IDs required for the first three hash-routed layers.
- Exact split-GGUF artifacts are provisioned to mounted-drive storage with a complete hashed manifest and resumable verification; no model artifact may be placed under `/home`.
## Control/data-plane contract
Meshnet continues to own registration, coverage, existing route selection/load balancing, route epochs/sessions, direct/relay behavior, capability admission, cancellation, telemetry, billing, validation, and attribution. The GGUF adapter exposes measured inputs to those existing mechanisms. Direct seams use long-lived gRPC streams; relay seams carry byte-identical protobuf frames opaquely.
The project-owned `ShardEngine` hides llama.cpp internals. A worker loads one exact artifact/recipe/range identity. Default tests use fake/tiny fixtures. Real runs are opt-in, preserve raw metrics, and never download models under `/home`.
## Gitea issue synchronization
Gitea is a projection of `prd.json`, never a competing source of truth. Before and after every supervised Ralph run, invoke:
```bash
python3 scripts/ralph_gitea_sync.py sync
```
For a complete Ralph invocation with automatic state reconciliation, use:
```bash
scripts/ralph-gitea-run.sh ralph-tui run --prd .scratch/distributed-gguf-runtime/prd.json --agent claude --model sonnet --iterations 1 --no-tui --no-setup --direct-merge --no-sandbox
```
The sync creates/reconciles one Gitea issue per `DGR-*` story, creates missing labels/milestones, closes issues whose `passes` is true, marks the selected next eligible story `status:in-progress`, and marks blocked stories `status:blocked`. `gitea-issues.json` is a derived mapping only.
## Evidence and completion
Each story writes `/run/media/popov/d/DEV/repos/d-popov.com/AI/.claude/worktrees/distributed-gguf-runtime/.scratch/distributed-gguf-runtime/evidence/<DGR-ID>/README.md` with exact files, commands/results, limitations, identities, and dependent-story handoff. Only `prd.json` may record `passes`; DGR-017 and DGR-018 are complete and DGR-019 onward remain false. Generated Markdown and Gitea issues cannot override it. One scoped commit per story is expected during future execution.

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@@ -1,63 +1,32 @@
# Distributed GGUF runtime planning index
# Distributed GGUF Runtime planning workspace
Status: draft scratch package.
> **Specification status:** planning artifacts only. No distributed GGUF runtime is implemented. DGR-017 cleanup is complete; no runtime implementation story has completion credit. `prd.json` is authoritative.
Goal: make the node network capable of serving large, high-quality open models by distributing GGUF/model artifacts over a torrent-style swarm while executing inference over a sticky multi-node route with per-shard local KV cache.
This scratch supersedes the old assumption in [ADR-0001](../../docs/adr/0001-pytorch-over-llama-cpp.md) that llama.cpp is only a single-node leaf backend. That assumption was correct for the original llama.cpp RPC shape, but the target is now different: torrent-distributed GGUF artifacts plus an explicit route/KV protocol owned by this platform, ideally developed in collaboration with upstream llama.cpp.
## Locked scope
## Artifacts
- Existing Meshnet Tracker routing, load balancing, billing, telemetry, relay, and provider semantics are backend-agnostic and are **not redesigned**. GGUF contributes exact compatibility, range/capacity, queue/load, seam-cost, health/reliability, and certification inputs only.
- The data plane is a standalone project-owned C++ Shard worker with gRPC/Protobuf and a project-owned `ShardEngine` boundary.
- llama.cpp is fetched at one exact commit into an ignored workspace from an in-repo manifest, then a numbered minimal patch stack is applied. There is no submodule, vendored tree, or permanent-fork dependency.
- llama.cpp owns DeepSeek V4 graphs, mHC, MoE, attention, hash routing, and kernels. Meshnet adds only range-ownership hooks, typed boundary/local-state adapters, worker integration, and parity/certification.
- Quantization and placement are dynamic recipe inputs. The 24 and 10+ stage layouts are certification scenarios, never product constants.
- Per-shard Hot KV and V4 CSA/HCA/SWA/indexer/compressor state remain local and keyed by route session/epoch. The WAN seam carries the typed mHC 4×4096 residual boundary, positions, token-ID sideband where required, and schema/cache expectations—not per-layer caches.
- Route changes use cache miss plus re-prefill/restart. There is no WAN KV or V4 auxiliary-cache migration.
- CPU/CUDA/ROCm/Vulkan/Metal compile lanes are planned; only exact real-hardware-certified backend/model/recipe lanes may be advertised.
- Alpha requires correctness and the pre-locked useful-speed gate. MTP is reserved and off for alpha; its ownership contract, implementation, and benchmark are required before beta.
| Path | Purpose |
|---|---|
| [architecture.md](./architecture.md) | Proposed runtime architecture, data flow, session state, and failure model |
| [technical-challenges.md](./technical-challenges.md) | Detailed challenge/solution register with acceptance tests |
| [decision-framework.md](./decision-framework.md) | Grilling framework for open decisions and recommended answers |
| [research-prior-art.md](./research-prior-art.md) | Prior-art notes for Petals, exo, Distributed Llama, prima.cpp, llama.cpp, DeepSeek-V4-Flash, GLM-5.2, and Ornith |
| [ADR-0020-distributed-gguf-runtime.md](./ADR-0020-distributed-gguf-runtime.md) | Draft decision record for the GGUF/llama.cpp distributed runtime |
| [PRD.md](./PRD.md) | Product/runtime requirements and acceptance criteria |
| [milestones.md](./milestones.md) | Dependency-ordered implementation milestones |
| [issues/](./issues/) | Implementation-ready tracer-bullet issue briefs |
## Target identities
## Decision Summary
- DeepSeek V4 official target SHA: `60d8d70770c6776ff598c94bb586a859a38244f1`.
- llama.cpp V4 support lineage began at PR 24162 / merge `8c146a8366304c871efc26057cc90370ccf58dad`; DGR-027 later pins one exact validated current commit.
- V4 scope: 43 main layers plus MTP; mHC 4×4096 boundary; 256 routed + 1 shared experts with six routed active; token IDs required for the first three hash-routed layers.
- Exact split-GGUF artifacts are provisioned to mounted-drive storage with a complete hashed manifest and resumable verification; no model artifact may be placed under `/home`.
Adopt a hybrid runtime:
## Navigation
- **Weights and artifacts**: distributed by torrent / content-addressed storage / optional CDN.
- **Hot KV cache**: local to the node that owns the corresponding layer range.
- **Prefix snapshots**: optionally persisted to cache servers for reuse, retry, and failover.
- **Active route**: sticky for one request/session.
- **Context cap**: 128K hard product limit for large models unless explicitly revised.
- **Backends**: keep PyTorch for fast model-architecture coverage and validation; add llama.cpp/GGUF as the performance path for supported models.
- **Client feedback**: stream token deltas when feasible; always expose Generation Telemetry.
- **First serious target model**: DeepSeek-V4-Flash after a smaller GGUF protocol smoke test.
## What We Learned
- Our current full-model PyTorch path uses Transformers `generate()` and gets local KV cache.
- Our current distributed PyTorch path disables cache and recomputes the full growing sequence per token.
- The seam today carries hidden activations, not KV cache; at 128K this becomes impossible for serious models if repeated every decode token.
- The missing capability is not "send KV across the network"; it is **stable per-session local KV cache per shard**.
- GGUF distribution is solved enough at the artifact layer, but GGUF/llama.cpp needs explicit layer-boundary execution APIs for our route model.
## Recommended Order
See [milestones.md](./milestones.md) for the full dependency map.
1. [01 — Route Session lifecycle](./issues/01-route-session-lifecycle.md)
2. [02 — Prefill/decode binary HTTP protocol](./issues/02-prefill-decode-binary-http.md)
3. [03 — Generation Telemetry and streaming response contract](./issues/03-generation-telemetry-and-streaming.md)
4. [04 — PyTorch distributed KV reference route](./issues/04-pytorch-distributed-kv-reference.md)
5. [05 — Local llama.cpp/GGUF backend](./issues/05-local-llamacpp-gguf-backend.md)
6. [06 — Model Artifact manifest and Shard advertisement](./issues/06-model-artifact-manifest.md)
7. [07 — llama.cpp layer-boundary prototype](./issues/07-llamacpp-layer-boundary-prototype.md)
8. [08 — Networked distributed GGUF route](./issues/08-networked-distributed-gguf-route.md)
9. [09 — DeepSeek-V4-Flash support audit](./issues/09-deepseek-v4-flash-support-audit.md)
10. [10 — GLM-5.2 and Ornith follow-up support audit](./issues/10-glm52-ornith-followup-audit.md)
## Open Questions
- Does upstream llama.cpp already expose enough internal API for arbitrary layer-range execution and hidden-state boundary I/O, or do we need an extension?
- Can GGUF split metadata be made layer/tensor semantic enough for torrent placement and partial loading?
- What is the minimum protocol needed for compressed KV formats such as GLM-5.2 DSA/MLA without exposing model-specific internals to the tracker?
- How much reliability do we need in alpha: fail request on route loss, or support route repair with KV snapshots?
- [`prd.json`](prd.json) — sole authoritative 55-story backlog, DGR-017..071.
- [`PRD.md`](PRD.md) — human-readable projection of goals, gates, and all stories.
- [`RALPH-CONTEXT.md`](RALPH-CONTEXT.md) — mandatory fresh-session context.
- [`architecture.md`](architecture.md), [`implementation-strategy.md`](implementation-strategy.md), [`milestones.md`](milestones.md) — design and execution sequence.
- [`issues/`](issues/) — generated story specs; files 01..16 are retained legacy artifacts pending DGR-017.
- [`evidence/`](evidence/) — provenance and future per-story handoffs.

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@@ -1,274 +1,45 @@
# Distributed GGUF Runtime Architecture
# Distributed GGUF Runtime architecture
## Product Stance
> **Specification status:** planning artifacts only. No distributed GGUF runtime is implemented. DGR-017 cleanup is complete; no runtime implementation story has completion credit. `prd.json` is authoritative.
The platform optimizes for access to high-quality models, not lowest latency. Latency is acceptable if the user can run models that are otherwise unavailable to them. The hard context limit for the first serious distributed runtime should be **128K tokens**. Longer context usually means the product is compensating for missing task decomposition, retrieval, or workspace summarization.
## Current State
## Locked scope
The current node has two materially different inference paths:
- Existing Meshnet Tracker routing, load balancing, billing, telemetry, relay, and provider semantics are backend-agnostic and are **not redesigned**. GGUF contributes exact compatibility, range/capacity, queue/load, seam-cost, health/reliability, and certification inputs only.
- The data plane is a standalone project-owned C++ Shard worker with gRPC/Protobuf and a project-owned `ShardEngine` boundary.
- llama.cpp is fetched at one exact commit into an ignored workspace from an in-repo manifest, then a numbered minimal patch stack is applied. There is no submodule, vendored tree, or permanent-fork dependency.
- llama.cpp owns DeepSeek V4 graphs, mHC, MoE, attention, hash routing, and kernels. Meshnet adds only range-ownership hooks, typed boundary/local-state adapters, worker integration, and parity/certification.
- Quantization and placement are dynamic recipe inputs. The 24 and 10+ stage layouts are certification scenarios, never product constants.
- Per-shard Hot KV and V4 CSA/HCA/SWA/indexer/compressor state remain local and keyed by route session/epoch. The WAN seam carries the typed mHC 4×4096 residual boundary, positions, token-ID sideband where required, and schema/cache expectations—not per-layer caches.
- Route changes use cache miss plus re-prefill/restart. There is no WAN KV or V4 auxiliary-cache migration.
- CPU/CUDA/ROCm/Vulkan/Metal compile lanes are planned; only exact real-hardware-certified backend/model/recipe lanes may be advertised.
- Alpha requires correctness and the pre-locked useful-speed gate. MTP is reserved and off for alpha; its ownership contract, implementation, and benchmark are required before beta.
- **Full local PyTorch model**: calls Hugging Face `model.generate()`, so Transformers owns autoregressive decode and local KV cache.
- **Distributed PyTorch route**: bypasses `model.generate()`, calls individual layers with `use_cache=False`, and recomputes the full growing sequence for every generated token.
## Target identities
Current distributed data flow:
- DeepSeek V4 official target SHA: `60d8d70770c6776ff598c94bb586a859a38244f1`.
- llama.cpp V4 support lineage began at PR 24162 / merge `8c146a8366304c871efc26057cc90370ccf58dad`; DGR-027 later pins one exact validated current commit.
- V4 scope: 43 main layers plus MTP; mHC 4×4096 boundary; 256 routed + 1 shared experts with six routed active; token IDs required for the first three hash-routed layers.
- Exact split-GGUF artifacts are provisioned to mounted-drive storage with a complete hashed manifest and resumable verification; no model artifact may be placed under `/home`.
## Topology
```text
client request
-> head node formats prompt
-> for each output token:
head tokenizes full current text
head runs early layers over all tokens
head sends full activation [batch, sequence, hidden] to next node
middle nodes run their layers over all tokens
tail returns one decoded token string
head appends token to text
existing Meshnet Tracker/control plane
-> existing backend-agnostic route/load-balancing decision
-> direct gRPC or existing opaque relay
-> project-owned standalone C++ Shard worker
-> project-owned ShardEngine
-> pinned upstream llama.cpp + numbered range/boundary/state hook patches
-> GGUF mmap, upstream V4 graph/kernels, local per-shard state
```
This is correct for small demos but not viable for large models. For GLM-5.2, a single 128K seam activation is roughly:
A route is ordered contiguous half-open ranges. Head owns token embedding; tail owns final norm/head/sampling. Compatibility fingerprints bind source/split hashes, tokenizer, architecture adapter, typed boundary, runtime pin/patches, backend, quant, activation/compute/KV layout, range, and certification.
```text
128K tokens * hidden_size 6144 * 2 bytes ~= 1.5 GiB per hop
```
## V4 boundary and state
Sending that every output token is the bottleneck.
The inter-stage boundary is semantic and versioned: mHC 4×4096 residual, positions, token IDs only where the first three hash-routed layers require them, and cache/schema expectations. CSA/HCA/SWA/indexer/compressor/KV state belongs to upstream layer execution on the owning worker and is isolated by `(route_session_id, route_epoch)`. On loss, return cache miss and re-prefill/restart. Never serialize those caches into the WAN bundle.
## Target State
## Concurrency, failure, and admission
Target distributed data flow:
```text
client request
-> tracker selects route and pins session
-> head node creates session_id
-> prefill:
prompt is chunked
each shard computes its layer range
each shard appends local KV/state for its own layers
activations cross only layer seams
-> decode loop:
head sends one new token / one-step hidden state
each shard reads local KV/state for session_id
each shard appends one step to local KV/state
only one-step activation crosses seams
tail returns logits/token
```
The KV cache remains local to the node that computed it. It is not sent to the next node and not read from a remote cache server during every decode step.
## Client Feedback
Streaming responses are desirable when the backend and client transport support them. The product should stream token deltas when possible, and it must always provide realtime Generation Telemetry while the route is working.
The fallback behavior is a non-streaming final answer plus live telemetry. That fallback is acceptable for early route proofs or models/backends that cannot expose clean token deltas yet, but the preferred client experience is streamed output plus telemetry.
Minimum client-visible telemetry:
- route/session accepted
- selected model and quantization
- prefill phase started/completed
- decode phase started
- generated token count
- rolling tokens per second
- route health or retry/failure reason
- estimated billing units when available
Implementation options:
- Server-Sent Events or WebSocket for realtime progress
- polling endpoint for simple clients
- OpenAI-compatible streaming for clients that require token deltas
This means "no token streaming" is acceptable only as a fallback. "Silent wait for minutes" is not acceptable.
## Artifact Plane
Artifact distribution is separate from execution.
```text
model publisher
-> produces model manifest
-> creates GGUF / safetensors / tokenizer artifacts
-> content-addresses every file/chunk
-> publishes torrent/magnet + HTTP fallback metadata
node
-> chooses model/layer range
-> downloads needed files/chunks
-> verifies hash
-> advertises availability to tracker
```
Required manifest fields:
- model id and version
- upstream source repo and revision
- license
- architecture name
- tokenizer files and hashes
- quantization
- tensor-to-layer map
- file/chunk hashes
- optional GGUF split files
- supported runtime backends
- context cap
- KV/cache format descriptor
## Execution Plane
The tracker selects routes using layer coverage and observed performance:
```text
route = [
head node: embeddings + layers 0..k
middle nodes: contiguous layer ranges
tail node: final layers + norm + lm_head
]
```
Route selection inputs:
- model id/version/quantization
- layer coverage
- node hardware
- measured prefill throughput
- measured decode throughput
- queue depth
- latency to neighboring nodes
- cache warmth for the requested prefix/session
- reliability/reputation
The route is sticky for the request/session. A new route means either a fresh prefill or restoring compatible KV snapshots.
## KV Cache Ownership
KV/state ownership is by layer range:
```text
session_id = request scoped id
node A owns layers 0..15 KV for session_id
node B owns layers 16..31 KV for session_id
node C owns layers 32..77 KV for session_id
```
The tracker does not own hot KV. It may know which nodes hold active KV for session accounting and failure handling.
Cache servers may store:
- prompt-prefix snapshots
- session checkpoints for retry
- cold reusable context blocks
- audit samples
Cache servers must not be in the per-token hot loop unless colocated with the compute node.
## 128K KV Budget
GLM-5.2 compressed DSA/MLA-style estimate from config:
```text
layers = 78
kv_lora_rank = 512
qk_rope_head_dim = 64
dtype = bf16 = 2 bytes
context = 128K
per_token ~= 78 * (512 + 64) * 2 = 89,856 bytes ~= 87.75 KiB
128K total ~= 10.7 GiB
per layer ~= 137 MiB
```
This is feasible when sharded:
| Layer count | Approx active KV at 128K |
|---:|---:|
| 1 | 137 MiB |
| 10 | 1.37 GiB |
| 20 | 2.75 GiB |
| 78 | 10.7 GiB |
The exact runtime value depends on implementation and cache quantization, but the order of magnitude is acceptable.
## Protocol Sketch
### Prefill
```http
POST /v1/sessions/{session_id}/prefill
Content-Type: application/octet-stream
X-Meshnet-Model: zai-org/GLM-5.2
X-Meshnet-Route-Id: ...
X-Meshnet-Token-Range: 0-2047
X-Meshnet-Shape: 1,2048,6144
X-Meshnet-Dtype: bfloat16
<activation bytes>
```
The receiver:
- validates route/session
- runs assigned layer range for that chunk
- appends local KV/state
- forwards resulting activation to next hop
### Decode
```http
POST /v1/sessions/{session_id}/decode-step
Content-Type: application/octet-stream
X-Meshnet-Model: zai-org/GLM-5.2
X-Meshnet-Position: 131072
X-Meshnet-Shape: 1,1,6144
X-Meshnet-Dtype: bfloat16
<one-step activation bytes>
```
The receiver:
- loads local KV/state by `session_id`
- runs one decode step for assigned layers
- appends one token position to local KV/state
- forwards one-step activation
## GGUF / llama.cpp Integration
The target llama.cpp integration needs more than `llama-server`.
Required capabilities:
- load full GGUF locally for immediate single-node performance
- optionally load only selected tensors/layers
- execute a layer range against inbound hidden states
- expose outbound hidden states at a boundary
- own per-session KV/state for only the loaded layer range
- support prefill chunks and decode-step calls
- expose model-specific cache metadata for DSA/MLA without requiring the tracker to understand tensor internals
If llama.cpp cannot expose these as stable APIs today, the collaboration target is an upstream extension rather than a long-lived fork.
## Failure Model
Alpha behavior:
- Route node drops during prefill: fail request and retry from scratch.
- Route node drops during decode: fail request unless a recent KV snapshot exists.
- Tracker restart: active sessions may be lost; completed billing records persist.
- Node restart: local hot KV is lost.
Later behavior:
- periodic KV snapshots for long sessions
- prefix cache reuse across requests
- route repair when a semantically equivalent node has the same model/layer range and compatible cache snapshot
## Security And Trust
Activation/KV data can reveal user prompts. Public volunteer routes are not private. For sensitive workloads:
- use private swarms
- allow paid trusted nodes
- encrypt transport
- avoid storing hot KV on untrusted shared cache servers
- sample outputs for fraud/audit as already planned in alpha hardening
Compatible sessions may be continuously batched within a worker while retaining isolated positions/state. Admission bounds weights, local state/KV, scratch, fragments, and queues. Uncertain cross-route mutation is not replayed. Registration can show an uncertified lane, but existing admission keeps it unroutable until signed/versioned real-hardware evidence exists.

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@@ -1,268 +1,40 @@
# Distributed GGUF Decision Framework
This framework is for grilling open decisions. It keeps decisions tied to project vocabulary and implementation gates instead of vague "distributed inference" language.
## Core Vocabulary
Use the existing domain terms this way:
- **Shard**: contiguous transformer layer range. This is the compute, routing, cache, and reward unit.
- **Shard Swarm**: storage/download group for artifacts needed by a shard.
- **Inference Route**: ordered node sequence that covers all layers for one request.
- **Route Session**: one active request bound to one inference route and stable session id.
- **Hot KV State**: live per-shard cache held by the route node during a route session.
- **Prefix Snapshot**: persisted route-session state used for reuse or failover, not the hot decode path.
- **Artifact Manifest**: canonical mapping from model artifacts to semantic model parts and runtime support.
- **Generation Telemetry**: realtime progress for a route session, including phase and tokens/sec, independent of whether token deltas are streamed.
## The Five Planes
### 1. Control Plane
Owner: Tracker.
Responsibilities:
- node registry
- coverage map
- route selection
- rebalance directives
- route-session creation
- health and telemetry
- client-visible Generation Telemetry
- billing/audit records
Must not do:
- serve hot KV during every token
- become the only place model artifacts can be fetched
### 2. Artifact Plane
Owner: Shard Swarms, local node storage, optional CDN/bootstrap mirrors.
Responsibilities:
- GGUF/safetensors/tokenizer download
- content-addressed verification
- local artifact inventory
- artifact-to-layer mapping
- cache eviction
Must not do:
- define execution order by file split alone
- imply that a downloaded file chunk equals a Shard
### 3. Execution Plane
Owner: active Inference Route.
Responsibilities:
- chunked prefill
- one-step decode
- hidden-state transfer across activation seams
- start-layer handling for overlapping shards
- backpressure
Must not do:
- resend full context activations during decode
- require cross-node tensor parallel all-reduce for public v1
### 4. Session State Plane
Owner: route nodes for hot KV; cache servers only for snapshots.
Responsibilities:
- per-shard local KV ownership
- cache allocation and eviction
- cache ABI compatibility
- session close/release
- optional prefix snapshots
Must not do:
- centralize hot KV in a remote service
- let a replacement node continue from incompatible state
### 5. Economics And Trust Plane
Owner: tracker plus settlement/validation components.
Responsibilities:
- distinguish storage/seeding work from inference work
- account for prefill and decode separately
- record route participation
- sample validation events
- slash proven fraud
Must not do:
- pay a node for merely holding files as if it generated tokens
- hide public-swarm privacy limits from clients
## Hard Invariants
These are the framework rules unless we deliberately write a new ADR:
1. Public-network Shards are contiguous layer ranges.
2. Hot KV State is local to the node serving that Shard in that Route Session.
3. Artifact distribution and route execution are separate systems.
4. Decode seam payload must be `O(hidden_size)`.
5. Prefill may be `O(sequence_length * hidden_size)`, but only in bounded chunks.
6. The tracker chooses routes; nodes do not negotiate route topology peer-to-peer.
7. Model/backend-specific cache internals stay behind backend capability reports.
8. PyTorch remains the correctness/reference backend while llama.cpp/GGUF becomes the performance backend.
9. Streaming responses are preferred when feasible; Generation Telemetry is always required.
## Resolved Gates
### Gate 1: Public Shard Semantics
Decision: public-network Shards are contiguous transformer layer ranges. Tensor-parallel or ring-style execution is allowed only inside one trusted node, one colocated pod, or a future composite node abstraction.
Rationale:
- Layer ranges match the existing `Shard`, `Coverage Map`, `Inference Route`, billing, and fraud vocabulary.
- Public volunteer nodes should not require cross-node all-reduce or tight per-layer synchronization in v1.
- Existing projects such as prima.cpp and Distributed Llama can still inform local-cluster/backend execution without becoming the public routing primitive.
Consequences:
- Artifact Manifests must map files/tensors to semantic layer ranges.
- Route selection remains ordered layer coverage.
- Rewards can be attributed to layer-range work.
- Hot KV State is naturally owned by the node serving that layer range for the Route Session.
### Gate 2: Hot KV Strategy
Decision: v1 rejects centralized hot KV. Hot KV State is local to the node serving the relevant Shard in the active Route Session. Cache servers may store Prefix Snapshots for reuse, retry, or failover, but they are not in the per-token decode path.
Rationale:
- Decode is the tight loop; adding remote cache I/O there makes latency and bandwidth worse at the worst point.
- Local KV naturally follows layer-range Shard ownership.
- Centralized hot KV increases privacy exposure and creates consistency problems.
- Prefix Snapshots preserve the useful part of central storage without making it mandatory for every generated token.
Consequences:
- Route Session must be sticky.
- Failover is limited in alpha unless a compatible Prefix Snapshot exists.
- Cache servers are optimization infrastructure, not required runtime infrastructure.
- Route repair requires compatible model revision, layer range, backend cache ABI, and snapshot position.
### Gate 3: First Runtime Proof
Decision: prove distributed Route Session and Hot KV State semantics in the existing PyTorch route before modifying llama.cpp/GGUF.
Rationale:
- PyTorch exposes model internals and cache objects more directly, so it is the fastest way to validate the distributed protocol.
- The current distributed PyTorch route already has the right high-level shape but disables cache and recomputes full prompts.
- Fixing that path gives us a reference implementation for correctness tests, telemetry, session lifecycle, and wire protocol behavior.
- llama.cpp/GGUF should receive a clear target ABI rather than becoming both the protocol experiment and the performance backend at once.
Consequences:
- Issue 02 precedes issue 05.
- llama.cpp collaboration has a concrete target ABI.
- The PyTorch route remains the architecture-coverage/reference backend even after GGUF becomes the preferred performance path.
- The first success metric is eliminating full-prompt recompute in distributed decode.
### Gate 3A: Client Feedback During Latency
Decision: streaming responses are preferred when feasible, and realtime Generation Telemetry is required regardless of streaming support.
Rationale:
- The product optimizes for access to large capable models, so some latency is acceptable.
- Users still need confidence that the route is alive and roughly how fast it is generating.
- Streaming token deltas give the best user experience when the backend exposes them cleanly.
- Tokens/sec remains useful during prefill, queueing, and any backend that cannot stream token deltas.
Consequences:
- The gateway should stream token deltas through an OpenAI-compatible response when possible.
- The gateway must expose progress through SSE, WebSocket, or polling.
- The final answer can be delivered after completion only as a fallback.
- Telemetry must include route phase, generated token count, and rolling tokens/sec.
- Non-streaming clients still need realtime telemetry.
### Gate 4: llama.cpp Collaboration Shape
Decision: target upstreamable `libllama`/ggml hooks instead of planning around a permanent fork.
Rationale:
- llama.cpp changes quickly across model support, quantization, kernels, and hardware backends.
- A permanent fork would become expensive to maintain and would lag upstream improvements.
- A short-lived prototype branch is acceptable if it proves the API and makes upstream collaboration concrete.
- Keeping tracker/routing logic outside llama.cpp makes the upstream ask smaller and cleaner.
Consequences:
- Need a minimal reproducible localhost demo before asking upstream to carry the design.
- Need to separate "what llama.cpp should expose" from "what our tracker does".
- Desired upstream surface is layer-range execution, hidden-state boundary I/O, partial loading/introspection, and per-session KV ownership.
- If upstream rejects the shape, we revisit whether to carry a narrow adapter fork or keep GGUF distributed execution as experimental.
### Gate 5: First Model Target
Decision: use a two-tier model target. Use a small, boring, llama.cpp-supported GGUF model for the first protocol smoke test. Use `deepseek-ai/DeepSeek-V4-Flash` as the first serious large-model target. Keep GLM-5.2 and Ornith as later support audits.
Rationale:
- The first protocol proof should isolate route/session/KV bugs from model-architecture bugs.
- DeepSeek-V4-Flash is a strong first serious target because it is much smaller than 1.6T-class models while still being large enough to validate the product thesis.
- DeepSeek-V4-Flash still has architecture-specific risks, so it should not be the first smoke test.
- GLM-5.2 and Ornith remain valuable targets, but they add DSA/MLA/hybrid attention uncertainty.
Consequences:
- 128K cache accounting can be modeled now.
- The first "real" target-model audit is DeepSeek-V4-Flash support in PyTorch, vLLM/SGLang, and any available GGUF/llama.cpp quantization path.
- Production support waits for backend capability reports and exact cache ABI support.
### Gate 6: Failure Semantics
Decision: alpha fails Route Sessions on route-node loss instead of attempting automatic route repair.
Rationale:
- Route repair requires compatible Prefix Snapshots, cache ABI checks, replacement-node selection, billing correction, and client stream/error recovery.
- Local Hot KV State means a replacement node cannot continue unless it has compatible state at the same position.
- Fail-fast keeps the first implementation correct while the session/KV protocol is still being proven.
Consequences:
- Better observability and explicit errors are required.
- Snapshotting becomes a later feature, not a blocker for first inference.
- Generation Telemetry must report the last known phase and failure reason.
- Client or gateway retry starts a new Route Session from scratch.
### Gate 7: Transport
Decision: keep binary HTTP for v1 activation transfer instead of jumping immediately to QUIC, WebRTC, or a custom transport.
Rationale:
- ADR-0008 already defines binary activation bodies with HTTP headers.
- HTTP keeps the first implementation debuggable with the existing server stack and tooling.
- The core risk is route/session/KV correctness, not transport optimization.
- QUIC/WebRTC can be introduced later behind the same activation protocol once semantics are proven.
Consequences:
- Focus benchmark work on payload shape, chunking, and cache behavior first.
- QUIC/WebRTC can be introduced as an optimization behind the same activation protocol.
- v1 implementation can reuse the current HTTP routing, relay, and observability infrastructure.
- Transport abstraction should be kept narrow enough that HTTP can be replaced later without changing backend cache semantics.
## Grilling Progress
Gates 1, 2, 3, 3A, 4, 5, 6, and 7 are resolved. The remaining work is to convert the resolved framework into implementation-ready issue briefs and prototype milestones.
# Distributed GGUF Runtime decision framework
> **Specification status:** planning artifacts only. No distributed GGUF runtime is implemented. DGR-017 cleanup is complete; no runtime implementation story has completion credit. `prd.json` is authoritative.
## Decision order
1. DGR-019 locks comparable lanes and thresholds before results.
2. DGR-020 runs safetensors and whole-model llama.cpp only, then returns `go`, `optimize baseline`, or `stop`.
3. Dense and V4 work must prove parity, independent per-stage execution, local-state isolation, bounded failure, and measured resources.
4. DGR-054 returns `alpha`, `optimize measured bottleneck`, or `stop`; MTP is explicitly off.
5. Post-alpha optimizations must be selected from profiles, not assumptions.
6. DGR-070 returns `beta`, `targeted optimization`, or `stop/rollback`, and requires MTP and the exact certified hardware/recipe matrix.
## Interpretation rules
- Quant/model-fit gains are separate from runtime/kernel/transport gains.
- Fixture, real-model, real-hardware, and release evidence are never interchangeable.
- 24 and 10+ stages are certification scenarios only.
- Existing routing policy is certified, not redesigned.
- Build success is not hardware certification; dark lanes remain unroutable.
- Route loss uses cache miss and re-prefill/restart, never WAN cache migration.
## Locked scope
- Existing Meshnet Tracker routing, load balancing, billing, telemetry, relay, and provider semantics are backend-agnostic and are **not redesigned**. GGUF contributes exact compatibility, range/capacity, queue/load, seam-cost, health/reliability, and certification inputs only.
- The data plane is a standalone project-owned C++ Shard worker with gRPC/Protobuf and a project-owned `ShardEngine` boundary.
- llama.cpp is fetched at one exact commit into an ignored workspace from an in-repo manifest, then a numbered minimal patch stack is applied. There is no submodule, vendored tree, or permanent-fork dependency.
- llama.cpp owns DeepSeek V4 graphs, mHC, MoE, attention, hash routing, and kernels. Meshnet adds only range-ownership hooks, typed boundary/local-state adapters, worker integration, and parity/certification.
- Quantization and placement are dynamic recipe inputs. The 24 and 10+ stage layouts are certification scenarios, never product constants.
- Per-shard Hot KV and V4 CSA/HCA/SWA/indexer/compressor state remain local and keyed by route session/epoch. The WAN seam carries the typed mHC 4×4096 residual boundary, positions, token-ID sideband where required, and schema/cache expectations—not per-layer caches.
- Route changes use cache miss plus re-prefill/restart. There is no WAN KV or V4 auxiliary-cache migration.
- CPU/CUDA/ROCm/Vulkan/Metal compile lanes are planned; only exact real-hardware-certified backend/model/recipe lanes may be advertised.
- Alpha requires correctness and the pre-locked useful-speed gate. MTP is reserved and off for alpha; its ownership contract, implementation, and benchmark are required before beta.
## Target identities
- DeepSeek V4 official target SHA: `60d8d70770c6776ff598c94bb586a859a38244f1`.
- llama.cpp V4 support lineage began at PR 24162 / merge `8c146a8366304c871efc26057cc90370ccf58dad`; DGR-027 later pins one exact validated current commit.
- V4 scope: 43 main layers plus MTP; mHC 4×4096 boundary; 256 routed + 1 shared experts with six routed active; token IDs required for the first three hash-routed layers.
- Exact split-GGUF artifacts are provisioned to mounted-drive storage with a complete hashed manifest and resumable verification; no model artifact may be placed under `/home`.

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# DGR-001 downstream stop-condition handoff
Status: **DGR-001 is complete; native-track promotion is blocked by the immutable v1 verdict.**
This is no longer an execution-prerequisite blocker. The required real benchmark
ran successfully, every recipe completed at concurrency 1 and 4, artifacts were
verified, and deterministic/full test gates passed.
## Locked result
`contract-evaluation.json` records:
```text
verdict: stop
quality_lane_pass: false
speed_benefit: true
fit_benefit: true
stop_condition_met: true
```
The exact-revision BF16 GGUF quality lane compared every prompt but achieved
`0.3333` exact match and `0.9471` mean similarity against the Transformers BF16
reference. V1 requires `0.90` and `0.97`. Quantized Q4_K_M had substantial speed
and fit benefits, but the contract explicitly forbids speed from redeeming a
failed near-lossless quality lane.
## Scope of this stop
The measured baseline is Qwen2.5-0.5B on CPU using a CPU-only llama.cpp build.
It is not a Radeon, large-model, distributed, or native-shard result. Therefore:
1. Do not silently mark v1 promoted or weaken its thresholds after observing the
data.
2. Do not let DGR-004 or later runtime stories treat DGR-001 completion as a
positive promotion signal.
3. A human may choose one of these explicit paths:
- stop the native GGUF track as v1 directs;
- diagnose and fix the BF16 runtime divergence, then rerun the exact v1 plan;
- authorize a separately versioned GPU/large-model contract whose scope and
workload are locked before its measurements.
All raw evidence, configuration, artifacts, hashes, and reproduction commands
are in this directory and `README.md`.

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# DGR-001 — Safetensors versus GGUF performance contract
Status: **complete; immutable v1 verdict is `stop`.**
DGR-001 successfully produced a controlled local-real CPU baseline. Completion
means the experiment and decision contract are durable and verified; it does
**not** mean the native GGUF track is approved to continue. The locked quality
gate failed, so dependent runtime work requires a human decision or a new,
explicitly versioned experiment/contract rather than silently weakening v1.
## Controlled workload
- Model: `Qwen/Qwen2.5-0.5B-Instruct`
- Exact source revision: `7ae557604adf67be50417f59c2c2f167def9a775`
- Machine: `fedora`, Linux `7.0.14-101.fc43.x86_64`, 32 logical CPUs
- Device: CPU for every recipe; VRAM is therefore correctly reported as zero
- Runtime reference: Transformers `5.13.0`, PyTorch
`2.10.0+rocm7.13.0a20260513`, BF16 safetensors
- GGUF runtime: llama.cpp version 9991, commit
`e920c523e3b8a0163fe498af5bf90df35ff51d25`
- Workload: three fixed short/medium/long prompts, greedy sampling, 32 output
tokens, three repeats, two warmups, concurrency 1 and 4, 16 CPU threads
- Evidence class: `local-real`
All artifacts are beneath `/run/media/popov/DATA/llm/`; no model artifact was
created under `/home`.
## Recipes and exact artifacts
| Recipe | Artifact | SHA-256 |
|---|---|---|
| Transformers BF16 reference | complete mounted Hugging Face snapshot | `e596e9d6205fdc9177569cccd7f8b471b058f66e3630c8e4326d5aad52bd18b6` |
| llama.cpp BF16 quality lane | `Qwen2.5-0.5B-Instruct-7ae5576-BF16.gguf` | `e842fdc35d7f00fda95a54e1b51731ba1d196aea45065cc9f46925fdc1d6f862` |
| llama.cpp Q4_K_M performance/fit lane | `Qwen2.5-0.5B-Instruct-7ae5576-Q4_K_M.gguf` | `a88e3f570e2efeaf06b50df9859db2c70d8646aa3a2c94a14e14d5797a2921a5` |
The snapshot digest covers every sorted relative path, resolved size, and file
byte, so tokenizer/config drift is included. The BF16 GGUF was converted
directly from the exact snapshot while preserving BF16 weights. Q4_K_M was
quantized from an exact-revision F16 conversion with the pinned quantizer.
Runtime validation recomputes every declared digest before model loading.
## Real results
All recipes completed every request with zero failures.
| Metric | Transformers BF16 | llama.cpp BF16 | llama.cpp Q4_K_M |
|---|---:|---:|---:|
| Decode tok/s, c=1 | 40.8 | 98.5 | 207.7 |
| Aggregate decode tok/s, c=4 | 46.5 | 222.8 | 195.7 |
| TTFT p50, c=1 | 40.0 ms | 15.1 ms | 21.6 ms |
| Peak resident memory, c=1 | 1.94 GB | 1.11 GB | 0.54 GB |
| Artifact size | 1.00 GB | 0.99 GB | 0.40 GB |
| Failures | 0 | 0 | 0 |
Against the reference, the eligible Q4_K_M lane measured:
- single-request decode speedup: **5.10×**;
- concurrency-4 aggregate throughput speedup: **4.20×**;
- resident-memory ratio: **0.279×**;
- artifact-size ratio: **0.398×**.
The near-lossless BF16 quality lane compared all three prompts but measured:
- exact match: **0.3333** (v1 requires at least `0.90`);
- mean text similarity: **0.9471** (v1 requires at least `0.97`).
Tokenization and stopping were controlled: every runtime saw the same prompt
token counts and reported 31 post-TTFT decode tokens. The v1 mismatch is a
real greedy-output divergence on two prompts, not missing coverage or a
text-length artifact. Its root cause remains undetermined; no post-contract
logit-tie claim is acceptance evidence. Therefore `contract-evaluation.json`
records:
```text
verdict: stop
quality_lane_pass: false
speed_benefit: true
fit_benefit: true
stop_condition_met: true
```
Thresholds were not changed after observing these results.
## Post-contract parity and ROCm diagnostics
`summarize-quality-parity.py` verifies and separates two signed sources. The CPU
v1 row uses CPU kernels and a Transformers BF16 oracle; it remains at `0.3333`
exact match with an unexplained divergence. The ROCm row uses a different plan,
GPU kernels, and a Transformers float32 oracle. In that narrower diagnostic,
the same BF16 GGUF artifact matches all three 32-token sequences exactly (`1.0`
exact match and `1.0` similarity). No conversion corruption was observed in
that three-sequence ROCm sample; this does not prove global conversion
correctness or explain the CPU result.
A separate HIP build at commit `e920c523` was compiled for `gfx1151` and
measured `ROCm0: Radeon 8060S Graphics`; its `llama-server` SHA-256 is
`b6bb4da687dbde86e243ba006cef05919b7b97255cd7e2371e1d451220aca139`.
A signed `gpu-diagnostic` profile measured zero failures:
| GPU metric | Transformers BF16 ROCm | llama.cpp Q4 ROCm | Q4 ratio |
|---|---:|---:|---:|
| Decode tok/s, c=1 | 81.12 | 251.25 | **3.10×** |
| Aggregate decode tok/s, c=4 | 91.24 | 511.33 | **5.60×** |
| TTFT p50, c=1 | 13.77 ms | 11.80 ms | **0.857×** |
The GPU report is signed under the distinct
`run_configured_gpu_diagnostic/v1` producer. The v1 evaluator rejects that
producer even when its signature is valid. llama-server process VRAM remains
unmeasured, so this diagnostic cannot replace or satisfy the immutable v1
contract. Its signed backend detail records the measured `ROCm0: Radeon 8060S
Graphics` device and `25/25` offloaded layers.
## Implementation
- `recipe_benchmark.py` provides the runtime-neutral measurement core, true
concurrency, continuous in-flight peak-memory sampling, percentile/throughput
aggregation, failures, and output drift.
- `recipe_drivers.py` provides opt-in Transformers and llama-server drivers,
mounted-drive confinement, exact artifact/runtime verification, equal
device/thread budgets, greedy-only validation, measured host provenance, a
CPU-only v1 guard until process VRAM can be measured honestly, and a distinct
signed GPU diagnostic profile that the v1 evaluator cannot accept.
- Peak RSS is runtime-scoped: Transformers reports growth above its pre-runtime
Python baseline, while llama.cpp reports its isolated server process tree.
Both are sampled continuously during in-flight requests.
- TTFT uses each runtime's prompt/first-token compute boundary; end-to-end HTTP,
scheduling, and queue overhead remains in latency and `queue_wait_ms`.
- The exact canonical plan SHA-256 locks prompts, model/revision, sampling,
output length, repeats, warmups, and concurrency. The evaluator also requires
equal prompt/decode token counts across recipes.
- llama.cpp's `predicted_n` includes the first token while `predicted_ms` begins
after it; the driver subtracts that token so decode throughput matches the
Transformers inter-token convention.
- `performance_contract.py` rejects wrong plans, unsigned or incorrectly signed
real evidence, wrong config/artifact/runtime/backend/host bindings, missing
recipes/concurrency, mixed model revisions, incomplete quality coverage, and
failed references.
- Every non-synthetic report is Ed25519-signed over the complete canonical JSON,
including raw outcomes and metrics. The contract pins the public key and exact
config SHA-256; the private key remains outside Git at mode `0600`.
- The signer fingerprint is independently anchored outside this evidence
directory in `../../trusted-evidence-signers.json` and checked by tests.
- Quantized drift remains advisory. Only the near-lossless lane can satisfy the
quality gate, and only performance-fit recipes can earn speed/fit benefits.
## Evidence files
- `performance-contract.json` — immutable v1 thresholds and stop condition
- `benchmark-config.json` — exact real-run plan, drivers, artifacts, and hashes
- `results.json` — raw machine-readable per-request and aggregate evidence
- `results.txt` — human-readable benchmark summary
- `baseline.json` — distilled measurements for later comparison
- `contract-evaluation.json` — fail-closed v1 verdict
- `quality-parity-diagnosis.json` / `.md` — run/device-scoped signed-evidence summary
- `summarize-quality-parity.py` — verifies both evidence chains and regenerates it
- `gpu-diagnostic-config.json` — exact ROCm diagnostic artifacts and runtimes
- `gpu-diagnostic-results.json` / `.txt` — signed GPU outcomes and summary
- `commands.txt` — reproducible conversion, benchmark, evaluation, and test commands
- `BLOCKED.md` — downstream stop-condition handoff
- `known-unrelated-failure.md` — clean-base reproduction of the tracker race
- `../../trusted-evidence-signers.json` — repository-reviewed signer fingerprint
## Verification
```text
Targeted: 28 passed (5/5 consecutive focused runs)
Latest full suite: 755 passed, 13 skipped
Earlier full suite: 751 passed, 13 skipped
Current cancellation retry matrix, DGR-001: 4/5 passed
Earlier cancellation retry matrix, clean d904c40: 4/5 passed
compileall: passed
git diff --check: passed
Evidence JSON parse/integrity checks: passed
```
The intermittent tracker cancellation race reproduced at the same rate on the
clean base and is retained in `known-unrelated-failure.md`; the final full suite
completed green. DGR-001 changes no tracker/proxy files.
The earlier Ralph claim that the full suite was blocked by Protobuf 6.33.6 was
invalid: it used Hermes Agent's internal venv. Verification above used the
project `.venv`, which has the DGR-002-compatible runtime. Real inference used
`.venv-rocm` Python 3.12.
## Limitations and dependent-story handoff
- The immutable contract result is a **0.5B CPU baseline**. The separate Radeon
diagnostic is real local GPU evidence, but neither result covers a large
model, distributed execution, network transport, or a native shard worker.
- A separate `GGML_HIP=ON` llama.cpp build exists and produced GPU timings, but
llama-server process VRAM is not measurable by the current driver; GPU
memory/fit claims therefore remain ineligible for v1.
- Absolute timings are developer-machine measurements; locked ratios and raw
artifacts are provided for reproducibility.
- DGR-014 may consume v1 only with the exact plan/evidence requirements enforced
by `performance_contract.py`.
- DGR-004 and later native-runtime work must not treat DGR-001 completion as a
promotion. V1 says `stop`; proceeding requires a human decision backed by a
separately versioned GPU/large-model contract or a diagnosed quality fix.

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{
"artifact_sha256": {
"llama-cpp-near-lossless-quality": "e842fdc35d7f00fda95a54e1b51731ba1d196aea45065cc9f46925fdc1d6f862",
"llama-cpp-quantized-performance-fit": "a88e3f570e2efeaf06b50df9859db2c70d8646aa3a2c94a14e14d5797a2921a5",
"transformers-safetensors-reference": "e596e9d6205fdc9177569cccd7f8b471b058f66e3630c8e4326d5aad52bd18b6"
},
"backend_detail": {
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"llama-cpp-quantized-performance-fit": "version: 9991 (e920c523) | built with GNU 15.2.1 for Linux x86_64; binary sha256 fd8fe612970f23e447f2e717cfa51665be06b8d7315ba60556e010f6bca510dd; threads 16; parallel slots 4; ctx/slot 512; gpu layers 0",
"transformers-safetensors-reference": "torch 2.10.0+rocm7.13.0a20260513; dtype bfloat16; device cpu; intra-op threads 16"
},
"evidence_class": "local-real",
"host": {
"accelerator_name": "Radeon 8060S Graphics",
"accelerator_runtime": "7.13.26183",
"benchmark_lane": "cpu-controlled-baseline",
"converter_sha256": "c819f18fb22927b49fabc3b35d1c9e21ee638b3817eccd1bd4efbcc7116eeb4d",
"cpu_count": 32,
"cuda_available": true,
"hostname": "fedora",
"llama_cpp_commit": "e920c523e3b8a0163fe498af5bf90df35ff51d25",
"llama_cpp_version": "9991",
"llama_server_identities": {
"/run/media/popov/d/DEV/llamacpp/llama.cpp/build/bin/llama-server": {
"sha256": "fd8fe612970f23e447f2e717cfa51665be06b8d7315ba60556e010f6bca510dd",
"version": "version: 9991 (e920c523) | built with GNU 15.2.1 for Linux x86_64"
}
},
"llama_server_sha256": "fd8fe612970f23e447f2e717cfa51665be06b8d7315ba60556e010f6bca510dd",
"platform": "Linux-7.0.14-101.fc43.x86_64-x86_64-with-glibc2.42",
"python": "3.12.13",
"quantizer_sha256": "bd0cc8c7be6d48aad4755b31062e0e59a887cbadd43dbb8771853d5858bb198f",
"torch_version": "2.10.0+rocm7.13.0a20260513",
"transformers_version": "5.13.0"
},
"model_id": "Qwen/Qwen2.5-0.5B-Instruct",
"model_revision": "7ae557604adf67be50417f59c2c2f167def9a775",
"plan_sha256": "efe24690a9a7164bac6ab3fd0a6b22f078fc08aaefcfb96210ddf154e6050570",
"provenance": {
"completed_at": "2026-07-13T16:27:19.647692Z",
"config_sha256": "00b2cce3e2f281bdf92fc5304ba5cac915a178ffccd3b9a25995ce39c00b90d3",
"producer": "meshnet_node.recipe_drivers.run_configured_benchmark/v1",
"run_id": "e4eedadf-22f6-4907-8990-985456961099",
"schema_version": 1,
"signature": "owev+/ToswP20C923G6E+srOCUBV5vrjmndVatr9CbTXakiFGqlHrTiEo+aymA4BcSwmG6KJTxlxO6WpLnpcAg==",
"signature_algorithm": "ed25519",
"signer_public_key_sha256": "8baca8742d9b3ed0c3fc54929c23f75ec8c1c739900aaf5334780d598ffa84de",
"started_at": "2026-07-13T16:26:22.361501Z"
},
"recipe_runtime": {
"llama-cpp-near-lossless-quality": {
"device": "cpu",
"runtime": "llama.cpp-9991-e920c523",
"weight_format": "gguf",
"weight_quantization": "bfloat16"
},
"llama-cpp-quantized-performance-fit": {
"device": "cpu",
"runtime": "llama.cpp-9991-e920c523",
"weight_format": "gguf",
"weight_quantization": "Q4_K_M"
},
"transformers-safetensors-reference": {
"device": "cpu",
"runtime": "transformers-5.13.0",
"weight_format": "safetensors",
"weight_quantization": "bfloat16"
}
},
"recipes": {
"llama-cpp-near-lossless-quality": {
"artifact_bytes": 994156448,
"available": true,
"concurrency": {
"1": {
"aggregate_decode_tokens_per_sec": 86.7339,
"decode_tokens_per_sec": 98.5178,
"failures": 0,
"latency_p50_ms": 333.023,
"latency_p95_ms": 383.0597,
"peak_rss_bytes": 1110728704,
"peak_vram_bytes": 0,
"prefill_tokens_per_sec": 1717.9451,
"ttft_p50_ms": 15.069,
"ttft_p95_ms": 63.766
},
"4": {
"aggregate_decode_tokens_per_sec": 222.788,
"decode_tokens_per_sec": 76.6297,
"failures": 0,
"latency_p50_ms": 490.8738,
"latency_p95_ms": 646.26,
"peak_rss_bytes": 1139466240,
"peak_vram_bytes": 0,
"prefill_tokens_per_sec": 859.8985,
"ttft_p50_ms": 32.445,
"ttft_p95_ms": 218.387
}
},
"device": "cpu",
"lane": "quality"
},
"llama-cpp-quantized-performance-fit": {
"artifact_bytes": 397807520,
"available": true,
"concurrency": {
"1": {
"aggregate_decode_tokens_per_sec": 139.2693,
"decode_tokens_per_sec": 207.712,
"failures": 0,
"latency_p50_ms": 168.3307,
"latency_p95_ms": 305.1338,
"peak_rss_bytes": 542081024,
"peak_vram_bytes": 0,
"prefill_tokens_per_sec": 967.0195,
"ttft_p50_ms": 21.582,
"ttft_p95_ms": 147.859
},
"4": {
"aggregate_decode_tokens_per_sec": 195.6789,
"decode_tokens_per_sec": 76.9497,
"failures": 0,
"latency_p50_ms": 437.9196,
"latency_p95_ms": 885.5355,
"peak_rss_bytes": 573259776,
"peak_vram_bytes": 0,
"prefill_tokens_per_sec": 572.4424,
"ttft_p50_ms": 48.127,
"ttft_p95_ms": 416.531
}
},
"device": "cpu",
"lane": "performance-fit"
},
"transformers-safetensors-reference": {
"artifact_bytes": 999586347,
"available": true,
"concurrency": {
"1": {
"aggregate_decode_tokens_per_sec": 35.4722,
"decode_tokens_per_sec": 40.7545,
"failures": 0,
"latency_p50_ms": 818.3864,
"latency_p95_ms": 1258.0673,
"peak_rss_bytes": 1941458944,
"peak_vram_bytes": 0,
"prefill_tokens_per_sec": 625.6467,
"ttft_p50_ms": 40.0018,
"ttft_p95_ms": 195.2551
},
"4": {
"aggregate_decode_tokens_per_sec": 46.5375,
"decode_tokens_per_sec": 12.9506,
"failures": 0,
"latency_p50_ms": 2481.8662,
"latency_p95_ms": 3365.8395,
"peak_rss_bytes": 2104832000,
"peak_vram_bytes": 0,
"prefill_tokens_per_sec": 264.0101,
"ttft_p50_ms": 97.0403,
"ttft_p95_ms": 429.0665
}
},
"device": "cpu",
"lane": "quality"
}
},
"reference_recipe_id": "transformers-safetensors-reference"
}

View File

@@ -0,0 +1,118 @@
{
"artifact_storage_root": "/run/media/popov/DATA/llm",
"evidence_class": "local-real",
"host": {
"benchmark_lane": "cpu-controlled-baseline",
"llama_cpp_commit": "e920c523e3b8a0163fe498af5bf90df35ff51d25",
"llama_cpp_version": "9991",
"llama_server_sha256": "fd8fe612970f23e447f2e717cfa51665be06b8d7315ba60556e010f6bca510dd",
"converter_sha256": "c819f18fb22927b49fabc3b35d1c9e21ee638b3817eccd1bd4efbcc7116eeb4d",
"quantizer_sha256": "bd0cc8c7be6d48aad4755b31062e0e59a887cbadd43dbb8771853d5858bb198f",
"transformers_version": "5.13.0"
},
"plan": {
"plan_id": "dgr-001-controlled-whole-model-baseline-v1",
"model_id": "Qwen/Qwen2.5-0.5B-Instruct",
"model_revision": "7ae557604adf67be50417f59c2c2f167def9a775",
"prompts": [
{
"id": "short-fact",
"text": "The capital of France is",
"context_class": "short"
},
{
"id": "medium-code",
"text": "Complete this Python function without commentary:\n\ndef fibonacci(n):\n \"\"\"Return the nth Fibonacci number for n >= 0.\"\"\"\n",
"context_class": "medium"
},
{
"id": "long-summary",
"text": "A distributed inference service divides a transformer across consumer machines. The tracker owns admission, routing, cancellation, accounting, and telemetry, while workers own only model execution. Every request carries an immutable model identity and revision. Workers must reject incompatible protocol versions and resource demands before allocating large buffers. Activation tensors are chunked, checksummed, bounded by negotiated limits, and propagated with explicit flow-control credits. A caller may disconnect at any time, so cancellation must release queued work, in-flight transfers, and cache reservations without double billing. Retries can occur after network failures, requiring idempotent request identifiers and deterministic completion accounting. The system keeps the existing safetensors path as a correctness reference while a native GGUF path is measured. Benchmarks compare the same prompts, output lengths, sampling policy, device, and concurrency, and they separate near-lossless quality checks from quantized speed and fit claims. Summarize the design priorities in three concise bullet points.",
"context_class": "long"
}
],
"sampling": {
"temperature": 0.0,
"top_p": 1.0,
"top_k": 1,
"seed": 1234,
"max_output_tokens": 32
},
"concurrency_levels": [1, 4],
"repeats": 3,
"warmup_requests": 2
},
"recipes": [
{
"id": "transformers-safetensors-reference",
"runtime": "transformers-5.13.0",
"weight_format": "safetensors",
"weight_quantization": "bfloat16",
"lane": "quality",
"device": "cpu",
"artifact_path": "/run/media/popov/DATA/llm/safetensor/models/models--Qwen--Qwen2.5-0.5B-Instruct/snapshots/7ae557604adf67be50417f59c2c2f167def9a775",
"artifact_sha256": "e596e9d6205fdc9177569cccd7f8b471b058f66e3630c8e4326d5aad52bd18b6",
"source_model_id": "Qwen/Qwen2.5-0.5B-Instruct",
"source_model_revision": "7ae557604adf67be50417f59c2c2f167def9a775",
"is_reference": true,
"notes": "artifact_sha256 is the deterministic digest of every snapshot path and file byte",
"driver": {
"type": "transformers",
"model_path": "/run/media/popov/DATA/llm/safetensor/models/models--Qwen--Qwen2.5-0.5B-Instruct/snapshots/7ae557604adf67be50417f59c2c2f167def9a775",
"device": "cpu",
"dtype": "bfloat16",
"threads": 16
}
},
{
"id": "llama-cpp-near-lossless-quality",
"runtime": "llama.cpp-9991-e920c523",
"weight_format": "gguf",
"weight_quantization": "bfloat16",
"lane": "quality",
"device": "cpu",
"artifact_path": "/run/media/popov/DATA/llm/dgr-001/Qwen2.5-0.5B-Instruct-7ae5576-BF16.gguf",
"artifact_sha256": "e842fdc35d7f00fda95a54e1b51731ba1d196aea45065cc9f46925fdc1d6f862",
"source_model_id": "Qwen/Qwen2.5-0.5B-Instruct",
"source_model_revision": "7ae557604adf67be50417f59c2c2f167def9a775",
"is_reference": false,
"notes": "Converted directly from the exact mounted safetensors revision while preserving BF16 weights with pinned llama.cpp",
"driver": {
"type": "llama-cpp-server",
"binary": "/run/media/popov/d/DEV/llamacpp/llama.cpp/build/bin/llama-server",
"binary_sha256": "fd8fe612970f23e447f2e717cfa51665be06b8d7315ba60556e010f6bca510dd",
"gguf_path": "/run/media/popov/DATA/llm/dgr-001/Qwen2.5-0.5B-Instruct-7ae5576-BF16.gguf",
"device": "cpu",
"threads": 16,
"n_parallel": 4,
"context_per_slot": 512,
"n_gpu_layers": 0
}
},
{
"id": "llama-cpp-quantized-performance-fit",
"runtime": "llama.cpp-9991-e920c523",
"weight_format": "gguf",
"weight_quantization": "Q4_K_M",
"lane": "performance-fit",
"device": "cpu",
"artifact_path": "/run/media/popov/DATA/llm/dgr-001/Qwen2.5-0.5B-Instruct-7ae5576-Q4_K_M.gguf",
"artifact_sha256": "a88e3f570e2efeaf06b50df9859db2c70d8646aa3a2c94a14e14d5797a2921a5",
"source_model_id": "Qwen/Qwen2.5-0.5B-Instruct",
"source_model_revision": "7ae557604adf67be50417f59c2c2f167def9a775",
"is_reference": false,
"notes": "Quantized from the exact-revision F16 GGUF with pinned llama-quantize",
"driver": {
"type": "llama-cpp-server",
"binary": "/run/media/popov/d/DEV/llamacpp/llama.cpp/build/bin/llama-server",
"binary_sha256": "fd8fe612970f23e447f2e717cfa51665be06b8d7315ba60556e010f6bca510dd",
"gguf_path": "/run/media/popov/DATA/llm/dgr-001/Qwen2.5-0.5B-Instruct-7ae5576-Q4_K_M.gguf",
"device": "cpu",
"threads": 16,
"n_parallel": 4,
"context_per_slot": 512,
"n_gpu_layers": 0
}
}
]
}

View File

@@ -0,0 +1,87 @@
# Exact source snapshot (already present on mounted storage)
SOURCE=/run/media/popov/DATA/llm/safetensor/models/models--Qwen--Qwen2.5-0.5B-Instruct/snapshots/7ae557604adf67be50417f59c2c2f167def9a775
LLAMA=/run/media/popov/d/DEV/llamacpp/llama.cpp
ROCM_PY=/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv-rocm/bin/python
PROJECT_PY=/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python
OUT=/run/media/popov/DATA/llm/dgr-001
SIGNING_KEY=/home/popov/.config/neuron-tai/keys/dgr-001-evidence-ed25519.pem
# Private signing key is outside Git and must remain owner-only
stat -c '%a %n' "$SIGNING_KEY" # expected: 600
# Converter support check (no writes)
$ROCM_PY $LLAMA/convert_hf_to_gguf.py "$SOURCE" --outtype f16 --outfile "$OUT/Qwen2.5-0.5B-Instruct-7ae5576-F16.gguf" --dry-run
# Exact-revision near-lossless and performance-fit artifacts
$ROCM_PY $LLAMA/convert_hf_to_gguf.py "$SOURCE" --outtype f16 --outfile "$OUT/Qwen2.5-0.5B-Instruct-7ae5576-F16.gguf"
$LLAMA/build/bin/llama-quantize "$OUT/Qwen2.5-0.5B-Instruct-7ae5576-F16.gguf" "$OUT/Qwen2.5-0.5B-Instruct-7ae5576-Q4_K_M.gguf" Q4_K_M
$ROCM_PY $LLAMA/convert_hf_to_gguf.py "$SOURCE" --outtype bf16 --outfile "$OUT/Qwen2.5-0.5B-Instruct-7ae5576-BF16.gguf"
# Runtime and artifact identity
git -C "$LLAMA" rev-parse HEAD
$LLAMA/build/bin/llama-server --version
sha256sum "$LLAMA/build/bin/llama-server" "$LLAMA/convert_hf_to_gguf.py" "$LLAMA/build/bin/llama-quantize"
sha256sum "$SOURCE/model.safetensors" "$OUT/Qwen2.5-0.5B-Instruct-7ae5576-BF16.gguf" "$OUT/Qwen2.5-0.5B-Instruct-7ae5576-Q4_K_M.gguf"
# Deterministic complete-snapshot digest used by benchmark-config.json
PYTHONPATH=packages/node $ROCM_PY - <<'PY'
from pathlib import Path
from meshnet_node.recipe_drivers import _artifact_sha256
print(_artifact_sha256(Path('/run/media/popov/DATA/llm/safetensor/models/models--Qwen--Qwen2.5-0.5B-Instruct/snapshots/7ae557604adf67be50417f59c2c2f167def9a775')))
PY
# Canonical opt-in local-real benchmark
MESHNET_ENABLE_REAL_INFERENCE_TESTS=1 MESHNET_EVIDENCE_SIGNING_KEY="$SIGNING_KEY" \
PYTHONPATH=packages/node $ROCM_PY -m meshnet_node.recipe_benchmark \
--config .scratch/distributed-gguf-runtime/evidence/DGR-001/benchmark-config.json \
--json-out .scratch/distributed-gguf-runtime/evidence/DGR-001/results.json \
--summary-out .scratch/distributed-gguf-runtime/evidence/DGR-001/results.txt
# Distil the baseline and evaluate immutable v1
PYTHONPATH=packages/node $PROJECT_PY - <<'PY'
from pathlib import Path
import json
from meshnet_node.performance_contract import baseline_from_report, evaluate_contract, load_contract
root = Path('.scratch/distributed-gguf-runtime/evidence/DGR-001')
report = json.loads((root / 'results.json').read_text())
contract = load_contract(root / 'performance-contract.json')
(root / 'baseline.json').write_text(json.dumps(baseline_from_report(report), indent=2, sort_keys=True) + '\n')
(root / 'contract-evaluation.json').write_text(json.dumps(evaluate_contract(contract, report).to_dict(), indent=2, sort_keys=True) + '\n')
PY
# Optional ROCm GPU diagnostic (not eligible for immutable v1)
# The version-matched rocm[devel] wheel expands beyond 20 GB; ensure sufficient
# space or relocate its packaged payload before installation.
uv pip install --python "$ROCM_PY" --prerelease=allow \
--index-url https://rocm.nightlies.amd.com/v2/gfx1151/ \
'rocm[devel]==7.13.0a20260513'
ROCM_VENV=/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv-rocm
ROCM_SDK="$ROCM_VENV/bin/rocm-sdk"
ROCM_ROOT="$($ROCM_SDK path --root)"
ROCM_BIN="$($ROCM_SDK path --bin)"
export PATH="$ROCM_VENV/bin:$ROCM_BIN:$PATH"
export ROCM_PATH="$ROCM_ROOT" HIP_PATH="$ROCM_ROOT"
export CMAKE_PREFIX_PATH="$($ROCM_SDK path --cmake):$ROCM_ROOT"
export LD_LIBRARY_PATH="$ROCM_ROOT/lib:$ROCM_ROOT/lib64:${LD_LIBRARY_PATH:-}"
$ROCM_VENV/bin/cmake -S /run/media/popov/d/DEV/llamacpp/llama.cpp \
-B /run/media/popov/d/DEV/llamacpp/llama.cpp/build-hip -G Ninja \
-DGGML_HIP=ON -DGPU_TARGETS=gfx1151 \
-DCMAKE_HIP_COMPILER="$ROCM_VENV/bin/amdclang++" \
-DCMAKE_BUILD_TYPE=Release -DLLAMA_BUILD_TESTS=OFF \
-DLLAMA_BUILD_EXAMPLES=ON -DLLAMA_BUILD_SERVER=ON
$ROCM_VENV/bin/cmake --build /run/media/popov/d/DEV/llamacpp/llama.cpp/build-hip \
--target llama-server llama-cli llama-bench -j 16
MESHNET_ENABLE_REAL_INFERENCE_TESTS=1 MESHNET_EVIDENCE_SIGNING_KEY="$SIGNING_KEY" \
PYTHONPATH=packages/node $ROCM_PY -m meshnet_node.recipe_benchmark \
--profile gpu-diagnostic \
--config .scratch/distributed-gguf-runtime/evidence/DGR-001/gpu-diagnostic-config.json \
--json-out .scratch/distributed-gguf-runtime/evidence/DGR-001/gpu-diagnostic-results.json \
--summary-out .scratch/distributed-gguf-runtime/evidence/DGR-001/gpu-diagnostic-results.txt
PYTHONPATH=packages/node $PROJECT_PY \
.scratch/distributed-gguf-runtime/evidence/DGR-001/summarize-quality-parity.py
# Deterministic verification
PYTHONPATH=packages/node $PROJECT_PY -m pytest -q tests/test_recipe_benchmark.py
PYTHONPATH=packages/node $PROJECT_PY -m pytest -q
PYTHONPATH=packages/node $PROJECT_PY -m compileall -q packages tests
git diff --check

View File

@@ -0,0 +1,71 @@
{
"contract_version": 1,
"fit_benefit": true,
"plan_id": "dgr-001-controlled-whole-model-baseline-v1",
"quality_lane_pass": false,
"rationale": [
"the near-lossless quality lane failed: the GGUF runtime disagrees with the safetensors reference beyond what near-lossless weights can explain",
"a meaningful speed benefit was measured",
"a meaningful fit benefit was measured"
],
"recipes": [
{
"comparable": true,
"failures": 0,
"fit_benefit": false,
"incomparable_reason": "",
"lane": "quality",
"measurements": {
"aggregate_concurrency": 4,
"aggregate_throughput_speedup": 4.7873,
"artifact_size_ratio": 0.9946,
"artifact_size_win": false,
"compared_prompts": 3,
"decode_speedup": 2.4173,
"exact_match_rate": 0.3333,
"expected_prompts": 3,
"failure_rate": 0.0,
"mean_similarity": 0.9471,
"resident_memory_ratio": 0.5721,
"ttft_ratio": 0.3767
},
"quality_pass": false,
"reasons": [
"single-request decode 2.42x reference (>= 1.25x) at TTFT ratio 0.38",
"aggregate throughput at concurrency 4 is 4.79x reference (>= 1.25x)",
"peak resident memory is 0.57x reference (<= 0.75x)",
"quality lane exact-match 0.33 / similarity 0.947 versus the reference (fail)"
],
"recipe_id": "llama-cpp-near-lossless-quality",
"speed_benefit": false
},
{
"comparable": true,
"failures": 0,
"fit_benefit": true,
"incomparable_reason": "",
"lane": "performance-fit",
"measurements": {
"aggregate_concurrency": 4,
"aggregate_throughput_speedup": 4.2048,
"artifact_size_ratio": 0.398,
"artifact_size_win": true,
"decode_speedup": 5.0967,
"failure_rate": 0.0,
"resident_memory_ratio": 0.2792,
"ttft_ratio": 0.5395
},
"quality_pass": null,
"reasons": [
"single-request decode 5.10x reference (>= 1.25x) at TTFT ratio 0.54",
"aggregate throughput at concurrency 4 is 4.20x reference (>= 1.25x)",
"peak resident memory is 0.28x reference (<= 0.75x)"
],
"recipe_id": "llama-cpp-quantized-performance-fit",
"speed_benefit": true
}
],
"speed_benefit": true,
"stop_condition_met": true,
"verdict": "stop"
}

View File

@@ -0,0 +1,143 @@
{
"artifact_storage_root": "/run/media/popov/DATA/llm",
"evidence_class": "local-real",
"host": {
"benchmark_lane": "rocm-gpu-diagnostic",
"llama_cpp_commit": "e920c523e3b8a0163fe498af5bf90df35ff51d25",
"llama_cpp_version": "9991",
"llama_server_sha256": "b6bb4da687dbde86e243ba006cef05919b7b97255cd7e2371e1d451220aca139",
"converter_sha256": "c819f18fb22927b49fabc3b35d1c9e21ee638b3817eccd1bd4efbcc7116eeb4d",
"quantizer_sha256": "bd0cc8c7be6d48aad4755b31062e0e59a887cbadd43dbb8771853d5858bb198f",
"transformers_version": "5.13.0",
"rocm_target": "gfx1151"
},
"plan": {
"plan_id": "dgr-001-rocm-gpu-diagnostic-v1",
"model_id": "Qwen/Qwen2.5-0.5B-Instruct",
"model_revision": "7ae557604adf67be50417f59c2c2f167def9a775",
"prompts": [
{
"id": "short-fact",
"text": "The capital of France is",
"context_class": "short"
},
{
"id": "medium-code",
"text": "Complete this Python function without commentary:\n\ndef fibonacci(n):\n \"\"\"Return the nth Fibonacci number for n >= 0.\"\"\"\n",
"context_class": "medium"
},
{
"id": "long-summary",
"text": "A distributed inference service divides a transformer across consumer machines. The tracker owns admission, routing, cancellation, accounting, and telemetry, while workers own only model execution. Every request carries an immutable model identity and revision. Workers must reject incompatible protocol versions and resource demands before allocating large buffers. Activation tensors are chunked, checksummed, bounded by negotiated limits, and propagated with explicit flow-control credits. A caller may disconnect at any time, so cancellation must release queued work, in-flight transfers, and cache reservations without double billing. Retries can occur after network failures, requiring idempotent request identifiers and deterministic completion accounting. The system keeps the existing safetensors path as a correctness reference while a native GGUF path is measured. Benchmarks compare the same prompts, output lengths, sampling policy, device, and concurrency, and they separate near-lossless quality checks from quantized speed and fit claims. Summarize the design priorities in three concise bullet points.",
"context_class": "long"
}
],
"sampling": {
"temperature": 0.0,
"top_p": 1.0,
"top_k": 1,
"seed": 1234,
"max_output_tokens": 32
},
"concurrency_levels": [
1,
4
],
"repeats": 3,
"warmup_requests": 2
},
"recipes": [
{
"id": "transformers-fp32-rocm-quality-oracle",
"runtime": "transformers-5.13.0-rocm-float32",
"weight_format": "safetensors",
"weight_quantization": "bfloat16-weights-float32-accumulation",
"lane": "quality",
"device": "cuda",
"artifact_path": "/run/media/popov/DATA/llm/safetensor/models/models--Qwen--Qwen2.5-0.5B-Instruct/snapshots/7ae557604adf67be50417f59c2c2f167def9a775",
"artifact_sha256": "e596e9d6205fdc9177569cccd7f8b471b058f66e3630c8e4326d5aad52bd18b6",
"source_model_id": "Qwen/Qwen2.5-0.5B-Instruct",
"source_model_revision": "7ae557604adf67be50417f59c2c2f167def9a775",
"is_reference": true,
"notes": "artifact_sha256 is the deterministic digest of every snapshot path and file byte",
"driver": {
"type": "transformers",
"model_path": "/run/media/popov/DATA/llm/safetensor/models/models--Qwen--Qwen2.5-0.5B-Instruct/snapshots/7ae557604adf67be50417f59c2c2f167def9a775",
"device": "cuda",
"dtype": "float32",
"threads": 16
}
},
{
"id": "llama-cpp-bf16-rocm-quality",
"runtime": "llama.cpp-9991-e920c523-rocm-gfx1151",
"weight_format": "gguf",
"weight_quantization": "bfloat16",
"lane": "quality",
"device": "cuda",
"artifact_path": "/run/media/popov/DATA/llm/dgr-001/Qwen2.5-0.5B-Instruct-7ae5576-BF16.gguf",
"artifact_sha256": "e842fdc35d7f00fda95a54e1b51731ba1d196aea45065cc9f46925fdc1d6f862",
"source_model_id": "Qwen/Qwen2.5-0.5B-Instruct",
"source_model_revision": "7ae557604adf67be50417f59c2c2f167def9a775",
"is_reference": false,
"notes": "Converted directly from the exact mounted safetensors revision while preserving BF16 weights with pinned llama.cpp",
"driver": {
"type": "llama-cpp-server",
"binary": "/run/media/popov/d/DEV/llamacpp/llama.cpp/build-hip/bin/llama-server",
"binary_sha256": "b6bb4da687dbde86e243ba006cef05919b7b97255cd7e2371e1d451220aca139",
"gguf_path": "/run/media/popov/DATA/llm/dgr-001/Qwen2.5-0.5B-Instruct-7ae5576-BF16.gguf",
"device": "cuda",
"threads": 16,
"n_parallel": 4,
"context_per_slot": 512,
"n_gpu_layers": 99
}
},
{
"id": "transformers-bf16-rocm-throughput",
"runtime": "transformers-5.13.0-rocm-bfloat16",
"weight_format": "safetensors",
"weight_quantization": "bfloat16",
"lane": "performance-fit",
"device": "cuda",
"artifact_path": "/run/media/popov/DATA/llm/safetensor/models/models--Qwen--Qwen2.5-0.5B-Instruct/snapshots/7ae557604adf67be50417f59c2c2f167def9a775",
"artifact_sha256": "e596e9d6205fdc9177569cccd7f8b471b058f66e3630c8e4326d5aad52bd18b6",
"source_model_id": "Qwen/Qwen2.5-0.5B-Instruct",
"source_model_revision": "7ae557604adf67be50417f59c2c2f167def9a775",
"is_reference": false,
"notes": "artifact_sha256 is the deterministic digest of every snapshot path and file byte",
"driver": {
"type": "transformers",
"model_path": "/run/media/popov/DATA/llm/safetensor/models/models--Qwen--Qwen2.5-0.5B-Instruct/snapshots/7ae557604adf67be50417f59c2c2f167def9a775",
"device": "cuda",
"dtype": "bfloat16",
"threads": 16
}
},
{
"id": "llama-cpp-q4-rocm-throughput",
"runtime": "llama.cpp-9991-e920c523-rocm-gfx1151",
"weight_format": "gguf",
"weight_quantization": "Q4_K_M",
"lane": "performance-fit",
"device": "cuda",
"artifact_path": "/run/media/popov/DATA/llm/dgr-001/Qwen2.5-0.5B-Instruct-7ae5576-Q4_K_M.gguf",
"artifact_sha256": "a88e3f570e2efeaf06b50df9859db2c70d8646aa3a2c94a14e14d5797a2921a5",
"source_model_id": "Qwen/Qwen2.5-0.5B-Instruct",
"source_model_revision": "7ae557604adf67be50417f59c2c2f167def9a775",
"is_reference": false,
"notes": "Quantized from the exact-revision F16 GGUF with pinned llama-quantize",
"driver": {
"type": "llama-cpp-server",
"binary": "/run/media/popov/d/DEV/llamacpp/llama.cpp/build-hip/bin/llama-server",
"binary_sha256": "b6bb4da687dbde86e243ba006cef05919b7b97255cd7e2371e1d451220aca139",
"gguf_path": "/run/media/popov/DATA/llm/dgr-001/Qwen2.5-0.5B-Instruct-7ae5576-Q4_K_M.gguf",
"device": "cuda",
"threads": 16,
"n_parallel": 4,
"context_per_slot": 512,
"n_gpu_layers": 99
}
}
]
}

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Recipe benchmark dgr-001-rocm-gpu-diagnostic-v1 (local-real)
model Qwen/Qwen2.5-0.5B-Instruct@7ae557604adf67be50417f59c2c2f167def9a775
transformers-fp32-rocm-quality-oracle [quality ] c= 1 ttft p50/p95 11.0/ 35.5 ms; prefill 5746.7 tok/s; decode 35.7 tok/s; aggregate 29.6 tok/s; rss 1.39 GB; vram 2.26 GB; artifact 1.00 GB; failures 0
transformers-fp32-rocm-quality-oracle [quality ] c= 4 ttft p50/p95 27.5/ 80.4 ms; prefill 1985.4 tok/s; decode 9.4 tok/s; aggregate 35.4 tok/s; rss 1.39 GB; vram 2.74 GB; artifact 1.00 GB; failures 0
llama-cpp-bf16-rocm-quality [quality ] c= 1 ttft p50/p95 13.2/ 83.4 ms; prefill 4154.4 tok/s; decode 148.0 tok/s; aggregate 127.4 tok/s; rss 0.84 GB; vram 0.00 GB; artifact 0.99 GB; failures 0
llama-cpp-bf16-rocm-quality [quality ] c= 4 ttft p50/p95 25.1/ 52.1 ms; prefill 2205.4 tok/s; decode 115.1 tok/s; aggregate 337.1 tok/s; rss 0.86 GB; vram 0.00 GB; artifact 0.99 GB; failures 0
transformers-bf16-rocm-throughput [performance-fit ] c= 1 ttft p50/p95 13.8/ 22.2 ms; prefill 4787.3 tok/s; decode 81.1 tok/s; aggregate 73.5 tok/s; rss 0.07 GB; vram 2.74 GB; artifact 1.00 GB; failures 0
transformers-bf16-rocm-throughput [performance-fit ] c= 4 ttft p50/p95 29.7/ 58.5 ms; prefill 2666.5 tok/s; decode 24.4 tok/s; aggregate 91.2 tok/s; rss 0.07 GB; vram 2.74 GB; artifact 1.00 GB; failures 0
llama-cpp-q4-rocm-throughput [performance-fit ] c= 1 ttft p50/p95 11.8/ 37.1 ms; prefill 4219.3 tok/s; decode 251.2 tok/s; aggregate 200.1 tok/s; rss 0.69 GB; vram 0.00 GB; artifact 0.40 GB; failures 0
llama-cpp-q4-rocm-throughput [performance-fit ] c= 4 ttft p50/p95 21.4/ 101.0 ms; prefill 2126.9 tok/s; decode 189.7 tok/s; aggregate 511.3 tok/s; rss 0.72 GB; vram 0.00 GB; artifact 0.40 GB; failures 0
drift llama-cpp-bf16-rocm-quality vs transformers-fp32-rocm-quality-oracle exact 1.00; similarity 1.000 (gated)
drift transformers-bf16-rocm-throughput vs transformers-fp32-rocm-quality-oracle exact 0.33; similarity 0.946 (advisory)
drift llama-cpp-q4-rocm-throughput vs transformers-fp32-rocm-quality-oracle exact 0.00; similarity 0.628 (advisory)

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# Observed pre-existing intermittent tracker race
This file records an unrelated timing observation and its repeated reproduction;
it is **not** a DGR-001 benchmark/contract failure.
Test:
```text
tests/test_tracker_routing.py::test_tracker_dashboard_can_cancel_inflight_proxy
```
One earlier full-suite run produced:
```text
1 failed, 745 passed, 13 skipped
```
A five-run isolated retry matrix reproduced the same rate repeatedly:
```text
current DGR-001 branch: 4/5 passed, 1/5 failed
clean d904c40: 4/5 passed, 1/5 failed
```
An earlier full-suite run on the signed-provenance DGR-001 state completed
green:
```text
751 passed, 13 skipped
```
Two full-suite runs after adding the isolated GPU diagnostic profile each hit
the same race and otherwise passed:
```text
1 failed, 750 passed, 13 skipped
```
The latest expanded hardening suite hit the same race and otherwise passed:
```text
1 failed, 754 passed, 13 skipped
```
The final hardened state subsequently completed a full green run:
```text
755 passed, 13 skipped
```
In each failure, the mock upstream's three-second release timeout completed the
stream before the cancel POST, so the request was already absent and the cancel
endpoint returned 404. No tracker/proxy file changed in DGR-001. The race is
therefore timing-sensitive, pre-existing, and unrelated to the benchmark,
provenance, or GPU-diagnostic code.

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{
"schema_version": 1,
"contract_version": 1,
"locked_at": "2026-07-13T00:00:00Z",
"locked_by": "DGR-001",
"plan_id": "dgr-001-controlled-whole-model-baseline-v1",
"thresholds": {
"min_decode_speedup": 1.25,
"max_ttft_ratio": 1.25,
"min_aggregate_throughput_speedup": 1.25,
"max_resident_memory_ratio": 0.75,
"max_artifact_size_ratio": 0.6,
"min_quality_exact_match_rate": 0.9,
"min_quality_mean_similarity": 0.97,
"max_failure_rate": 0.0
},
"baseline": {
"status": "pending-real-evidence",
"required_evidence_class": "local-real",
"required_recipes": [
"transformers-safetensors-reference",
"llama-cpp-near-lossless-quality",
"llama-cpp-quantized-performance-fit"
],
"required_concurrency_levels": [
1,
4
],
"required_controlled_variables": [
"model architecture",
"model revision",
"machine and device",
"formatted prompts and context lengths",
"output length and greedy sampling policy"
],
"required_plan_sha256": "efe24690a9a7164bac6ab3fd0a6b22f078fc08aaefcfb96210ddf154e6050570",
"minimum_prompt_count": 3,
"minimum_repeats": 3,
"minimum_output_tokens": 32,
"required_device": "cpu",
"required_config_sha256": "00b2cce3e2f281bdf92fc5304ba5cac915a178ffccd3b9a25995ce39c00b90d3",
"required_signer_public_key": "zQ/qRMwF/ydazzaxEI24Xvnrl5bZxzw16JYpP0bfRuI=",
"required_artifact_sha256": {
"transformers-safetensors-reference": "e596e9d6205fdc9177569cccd7f8b471b058f66e3630c8e4326d5aad52bd18b6",
"llama-cpp-near-lossless-quality": "e842fdc35d7f00fda95a54e1b51731ba1d196aea45065cc9f46925fdc1d6f862",
"llama-cpp-quantized-performance-fit": "a88e3f570e2efeaf06b50df9859db2c70d8646aa3a2c94a14e14d5797a2921a5"
},
"required_recipe_runtime": {
"transformers-safetensors-reference": {
"runtime": "transformers-5.13.0",
"weight_format": "safetensors",
"weight_quantization": "bfloat16",
"device": "cpu"
},
"llama-cpp-near-lossless-quality": {
"runtime": "llama.cpp-9991-e920c523",
"weight_format": "gguf",
"weight_quantization": "bfloat16",
"device": "cpu"
},
"llama-cpp-quantized-performance-fit": {
"runtime": "llama.cpp-9991-e920c523",
"weight_format": "gguf",
"weight_quantization": "Q4_K_M",
"device": "cpu"
}
},
"required_backend_detail": {
"transformers-safetensors-reference": "torch 2.10.0+rocm7.13.0a20260513; dtype bfloat16; device cpu; intra-op threads 16",
"llama-cpp-near-lossless-quality": "version: 9991 (e920c523) | built with GNU 15.2.1 for Linux x86_64; binary sha256 fd8fe612970f23e447f2e717cfa51665be06b8d7315ba60556e010f6bca510dd; threads 16; parallel slots 4; ctx/slot 512; gpu layers 0",
"llama-cpp-quantized-performance-fit": "version: 9991 (e920c523) | built with GNU 15.2.1 for Linux x86_64; binary sha256 fd8fe612970f23e447f2e717cfa51665be06b8d7315ba60556e010f6bca510dd; threads 16; parallel slots 4; ctx/slot 512; gpu layers 0"
},
"required_host_identity": {
"python": "3.12.13",
"torch_version": "2.10.0+rocm7.13.0a20260513",
"transformers_version": "5.13.0",
"llama_server_identities": {
"/run/media/popov/d/DEV/llamacpp/llama.cpp/build/bin/llama-server": {
"sha256": "fd8fe612970f23e447f2e717cfa51665be06b8d7315ba60556e010f6bca510dd",
"version": "version: 9991 (e920c523) | built with GNU 15.2.1 for Linux x86_64"
}
}
}
},
"stop_condition": "Stop the native llama.cpp/GGUF track when, on the same machine and device as the Transformers/safetensors reference and under this plan, no performance-fit GGUF recipe delivers either a meaningful speed benefit (>=25% higher single-request decode tokens/sec without a >25% worse TTFT, or >=25% higher aggregate throughput under concurrency) or a meaningful fit benefit (>=25% lower peak resident memory), or when the near-lossless quality lane fails, which indicates a broken runtime rather than a quantization trade-off.",
"notes": "Quantized performance-fit output drift is reported as advisory only. It is not numerical-equivalence evidence. DGR-014 consumes this immutable v1 contract. Non-synthetic evidence must be Ed25519-signed by the pinned key and match the exact locked config, artifacts, runtimes, backends, and host runtime identity."
}

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{
"conclusion": {
"conversion_corruption_observed_in_rocm_sample": false,
"cpu_bf16_divergence_explained": false,
"recommended_v2_design": "Predeclare a float32 quality oracle separately from the BF16 performance reference, with a larger prompt corpus and immutable thresholds.",
"scope": "The ROCm diagnostic establishes only that the same BF16 GGUF artifact matched the float32 oracle for three GPU sequences; it does not explain the CPU BF16 divergence or prove global conversion correctness.",
"v1_verdict_changed": false
},
"cpu_v1": {
"candidate": "llama.cpp BF16 GGUF",
"candidate_artifact_sha256": "e842fdc35d7f00fda95a54e1b51731ba1d196aea45065cc9f46925fdc1d6f862",
"config_sha256": "00b2cce3e2f281bdf92fc5304ba5cac915a178ffccd3b9a25995ce39c00b90d3",
"contract_verdict": "stop",
"device": "cpu",
"exact_match_rate": 0.3333,
"mean_similarity": 0.9471,
"plan_id": "dgr-001-controlled-whole-model-baseline-v1",
"plan_sha256": "efe24690a9a7164bac6ab3fd0a6b22f078fc08aaefcfb96210ddf154e6050570",
"quality_oracle": "Transformers BF16 safetensors",
"report": "results.json",
"report_sha256": "5d99a58806f39821c9206728047b8c5d605027d8a41b88639089b2418da890b5",
"root_cause": "undetermined; no logit-tie claim is acceptance evidence",
"run_id": "e4eedadf-22f6-4907-8990-985456961099"
},
"model_id": "Qwen/Qwen2.5-0.5B-Instruct",
"model_revision": "7ae557604adf67be50417f59c2c2f167def9a775",
"rocm_diagnostic": {
"candidate": "llama.cpp BF16 GGUF",
"candidate_artifact_sha256": "e842fdc35d7f00fda95a54e1b51731ba1d196aea45065cc9f46925fdc1d6f862",
"config_sha256": "b0f0c846c818f1307d034cee1f81daa311efc20985c32a4cdbbbd8ffe4153892",
"device": "cuda (ROCm)",
"exact_match_rate": 1.0,
"failures": 0,
"mean_similarity": 1.0,
"measured_backend_detail": "version: 9991 (e920c523) | built with GNU 15.2.1 for Linux x86_64; binary sha256 b6bb4da687dbde86e243ba006cef05919b7b97255cd7e2371e1d451220aca139; threads 16; parallel slots 4; ctx/slot 512; requested gpu layers 99; measured accelerator ROCm0: Radeon 8060S Graphics; measured offload 25/25 layers",
"plan_id": "dgr-001-rocm-gpu-diagnostic-v1",
"plan_sha256": "dae8e40963588f71f5d201fd163d39bd762e392544b5603d483e90d21abee2e8",
"producer": "meshnet_node.recipe_drivers.run_configured_gpu_diagnostic/v1",
"quality_oracle": "Transformers float32 safetensors",
"report": "gpu-diagnostic-results.json",
"report_sha256": "527b33d03627d57d60b30331e6b9119f579a828d6f6acb5c74ca25bab0af5f3d",
"run_id": "31bf44e7-ccd4-4277-84ac-c775dee65411",
"signer_fingerprint": "8baca8742d9b3ed0c3fc54929c23f75ec8c1c739900aaf5334780d598ffa84de",
"v1_eligible": false
},
"schema_version": 2
}

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# DGR-001 quality-parity evidence summary
This summary is generated by `summarize-quality-parity.py` from signed reports.
It contains no independent logit measurements or self-asserted verification flag.
| Source | Device | Quality oracle | BF16 GGUF candidate | Exact | Similarity | Status |
|---|---|---|---|---:|---:|---|
| CPU v1 (`e4eedadf-22f6-4907-8990-985456961099`) | CPU | Transformers BF16 | llama.cpp BF16 | 0.3333 | 0.9471 | immutable `stop` |
| ROCm diagnostic (`31bf44e7-ccd4-4277-84ac-c775dee65411`) | ROCm0 / Radeon 8060S | Transformers float32 | llama.cpp BF16 | 1.0000 | 1.0000 | diagnostic only |
## Interpretation
The CPU and ROCm rows use different plans, devices, kernels, and quality oracles.
The CPU BF16 divergence remains unexplained and v1 remains `stop`. The signed
ROCm report establishes the narrower fact that the same BF16 GGUF artifact
matched the float32 oracle for all three GPU sequences with zero failures.
Its signed backend detail records `ROCm0: Radeon 8060S Graphics` and measured
`25/25` layer offload.
No conversion corruption was observed in that three-sequence ROCm sample. This
does not prove global conversion correctness and does not retroactively change
or explain the CPU result. A future v2 should predeclare a float32 quality oracle
separately from its BF16 performance reference and use a larger corpus.
## Reproduction and bindings
- CPU report SHA-256: `5d99a58806f39821c9206728047b8c5d605027d8a41b88639089b2418da890b5`
- GPU report SHA-256: `527b33d03627d57d60b30331e6b9119f579a828d6f6acb5c74ca25bab0af5f3d`
- BF16 GGUF SHA-256: `e842fdc35d7f00fda95a54e1b51731ba1d196aea45065cc9f46925fdc1d6f862`
- Signer fingerprint: `8baca8742d9b3ed0c3fc54929c23f75ec8c1c739900aaf5334780d598ffa84de`
- Exact verification command: see `commands.txt`.

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Recipe benchmark dgr-001-controlled-whole-model-baseline-v1 (local-real)
model Qwen/Qwen2.5-0.5B-Instruct@7ae557604adf67be50417f59c2c2f167def9a775
transformers-safetensors-reference [quality ] c= 1 ttft p50/p95 40.0/ 195.3 ms; prefill 625.6 tok/s; decode 40.8 tok/s; aggregate 35.5 tok/s; rss 1.94 GB; vram 0.00 GB; artifact 1.00 GB; failures 0
transformers-safetensors-reference [quality ] c= 4 ttft p50/p95 97.0/ 429.1 ms; prefill 264.0 tok/s; decode 13.0 tok/s; aggregate 46.5 tok/s; rss 2.10 GB; vram 0.00 GB; artifact 1.00 GB; failures 0
llama-cpp-near-lossless-quality [quality ] c= 1 ttft p50/p95 15.1/ 63.8 ms; prefill 1717.9 tok/s; decode 98.5 tok/s; aggregate 86.7 tok/s; rss 1.11 GB; vram 0.00 GB; artifact 0.99 GB; failures 0
llama-cpp-near-lossless-quality [quality ] c= 4 ttft p50/p95 32.4/ 218.4 ms; prefill 859.9 tok/s; decode 76.6 tok/s; aggregate 222.8 tok/s; rss 1.14 GB; vram 0.00 GB; artifact 0.99 GB; failures 0
llama-cpp-quantized-performance-fit [performance-fit ] c= 1 ttft p50/p95 21.6/ 147.9 ms; prefill 967.0 tok/s; decode 207.7 tok/s; aggregate 139.3 tok/s; rss 0.54 GB; vram 0.00 GB; artifact 0.40 GB; failures 0
llama-cpp-quantized-performance-fit [performance-fit ] c= 4 ttft p50/p95 48.1/ 416.5 ms; prefill 572.4 tok/s; decode 76.9 tok/s; aggregate 195.7 tok/s; rss 0.57 GB; vram 0.00 GB; artifact 0.40 GB; failures 0
drift llama-cpp-near-lossless-quality vs transformers-safetensors-reference exact 0.33; similarity 0.947 (gated)
drift llama-cpp-quantized-performance-fit vs transformers-safetensors-reference exact 0.00; similarity 0.456 (advisory)

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#!/usr/bin/env python3
"""Build the DGR-001 parity summary from cryptographically verified reports."""
from __future__ import annotations
import base64
import hashlib
import json
from pathlib import Path
from cryptography.hazmat.primitives.asymmetric.ed25519 import Ed25519PublicKey
from meshnet_node.performance_contract import (
_canonical_sha256,
evaluate_contract,
load_contract,
report_signing_payload,
)
ROOT = Path(__file__).resolve().parent
def _read(name: str) -> dict:
return json.loads((ROOT / name).read_text(encoding="utf-8"))
def _file_sha256(name: str) -> str:
return hashlib.sha256((ROOT / name).read_bytes()).hexdigest()
def _drift(report: dict, recipe_id: str) -> dict:
return next(item for item in report["drift"] if item["recipe_id"] == recipe_id)
def _recipe(report: dict, recipe_id: str) -> dict:
return next(item for item in report["recipes"] if item["recipe"]["id"] == recipe_id)
def main() -> None:
contract = load_contract(ROOT / "performance-contract.json")
cpu_report = _read("results.json")
gpu_config = _read("gpu-diagnostic-config.json")
gpu_report = _read("gpu-diagnostic-results.json")
cpu_evaluation = evaluate_contract(contract, cpu_report)
if cpu_evaluation.verdict != "stop":
raise RuntimeError("immutable CPU v1 evidence no longer evaluates to stop")
public_key_bytes = base64.b64decode(contract.baseline["required_signer_public_key"])
public_key = Ed25519PublicKey.from_public_bytes(public_key_bytes)
public_key.verify(
base64.b64decode(gpu_report["provenance"]["signature"]),
report_signing_payload(gpu_report),
)
signer_fingerprint = hashlib.sha256(public_key_bytes).hexdigest()
if gpu_report["provenance"]["signer_public_key_sha256"] != signer_fingerprint:
raise RuntimeError("GPU report signer fingerprint does not match the contract trust key")
if gpu_report["provenance"]["config_sha256"] != _canonical_sha256(gpu_config):
raise RuntimeError("GPU report is not bound to gpu-diagnostic-config.json")
if gpu_report.get("schema_version") != 1 or gpu_report.get("evidence_class") != "local-real":
raise RuntimeError("GPU report must be schema-v1 local-real evidence")
expected_producer = "meshnet_node.recipe_drivers.run_configured_gpu_diagnostic/v1"
if gpu_report["provenance"].get("producer") != expected_producer:
raise RuntimeError("GPU report was not emitted by the canonical diagnostic producer")
if gpu_report.get("reference_recipe_id") != "transformers-fp32-rocm-quality-oracle":
raise RuntimeError("GPU report uses the wrong quality reference")
if gpu_report.get("host", {}).get("benchmark_lane") != "rocm-gpu-diagnostic":
raise RuntimeError("GPU report lacks the diagnostic host marker")
trusted = json.loads(
(ROOT.parents[1] / "trusted-evidence-signers.json").read_text(encoding="utf-8")
)
if not any(
signer.get("algorithm") == "ed25519"
and signer.get("fingerprint_sha256") == signer_fingerprint
and signer.get("status") == "active"
for signer in trusted.get("signers", ())
):
raise RuntimeError("GPU signer is not active in the trusted-signers registry")
for field in ("model_id", "model_revision"):
if gpu_report["plan"].get(field) != cpu_report["plan"].get(field):
raise RuntimeError(f"CPU and GPU reports do not share {field}")
if gpu_config["plan"].get(field) != gpu_report["plan"].get(field):
raise RuntimeError(f"GPU config and report do not share {field}")
expected_recipes = {
"transformers-fp32-rocm-quality-oracle": ("quality", "cuda"),
"llama-cpp-bf16-rocm-quality": ("quality", "cuda"),
"transformers-bf16-rocm-throughput": ("performance-fit", "cuda"),
"llama-cpp-q4-rocm-throughput": ("performance-fit", "cuda"),
}
actual_recipes = {
entry["recipe"]["id"]: (entry["recipe"]["lane"], entry["recipe"]["device"])
for entry in gpu_report["recipes"]
}
if actual_recipes != expected_recipes:
raise RuntimeError("GPU report recipe identities, lanes, or devices changed")
gpu_prompt_ids = {prompt["id"] for prompt in gpu_report["plan"]["prompts"]}
levels = {int(level) for level in gpu_report["plan"]["concurrency_levels"]}
repeats = int(gpu_report["plan"]["repeats"])
expected_outcomes = len(gpu_prompt_ids) * repeats * sum(levels)
for entry in gpu_report["recipes"]:
recipe_id = entry["recipe"]["id"]
if not entry.get("available") or len(entry.get("outcomes", ())) != expected_outcomes:
raise RuntimeError(f"GPU recipe {recipe_id!r} lacks complete outcomes")
if any(
not outcome.get("ok")
or outcome.get("recipe_id") != recipe_id
or outcome.get("prompt_id") not in gpu_prompt_ids
or int(outcome.get("concurrency", 0)) not in levels
or not 0 <= int(outcome.get("repeat", -1)) < repeats
for outcome in entry["outcomes"]
):
raise RuntimeError(f"GPU recipe {recipe_id!r} contains failed or invalid outcomes")
if {int(level) for level in entry["concurrency"]} != levels:
raise RuntimeError(f"GPU recipe {recipe_id!r} has wrong concurrency cells")
for prompt_id in gpu_prompt_ids:
for level in levels:
for repeat in range(repeats):
count = sum(
outcome["prompt_id"] == prompt_id
and int(outcome["concurrency"]) == level
and int(outcome["repeat"]) == repeat
for outcome in entry["outcomes"]
)
if count != level:
raise RuntimeError(
f"GPU recipe {recipe_id!r} lacks complete request coverage"
)
if any(
int(cell.get("failures", -1)) != 0
or int(cell.get("requests", -1))
!= len(
[
outcome
for outcome in entry["outcomes"]
if int(outcome["concurrency"]) == int(level)
]
)
for level, cell in entry["concurrency"].items()
):
raise RuntimeError(f"GPU recipe {recipe_id!r} aggregates do not match outcomes")
cpu_quality = _drift(cpu_report, "llama-cpp-near-lossless-quality")
gpu_quality = _drift(gpu_report, "llama-cpp-bf16-rocm-quality")
cpu_recipe = _recipe(cpu_report, "llama-cpp-near-lossless-quality")
gpu_recipe = _recipe(gpu_report, "llama-cpp-bf16-rocm-quality")
gpu_backend = gpu_recipe["load"]["backend_detail"]
if "measured accelerator ROCm0: Radeon 8060S Graphics" not in gpu_backend:
raise RuntimeError("GPU report lacks measured ROCm device evidence")
if "measured offload 25/25 layers" not in gpu_backend:
raise RuntimeError("GPU report lacks measured layer-offload evidence")
if cpu_recipe["recipe"]["artifact_sha256"] != gpu_recipe["recipe"]["artifact_sha256"]:
raise RuntimeError("CPU and GPU diagnostics use different BF16 GGUF artifacts")
if gpu_quality.get("compared_prompts") != len(gpu_prompt_ids):
raise RuntimeError("GPU quality drift lacks complete prompt coverage")
if {item["prompt_id"] for item in gpu_quality.get("per_prompt", ())} != gpu_prompt_ids:
raise RuntimeError("GPU quality drift prompt identities do not match the plan")
summary = {
"schema_version": 2,
"model_id": cpu_report["plan"]["model_id"],
"model_revision": cpu_report["plan"]["model_revision"],
"cpu_v1": {
"report": "results.json",
"report_sha256": _file_sha256("results.json"),
"run_id": cpu_report["provenance"]["run_id"],
"plan_id": cpu_report["plan"]["plan_id"],
"plan_sha256": _canonical_sha256(cpu_report["plan"]),
"config_sha256": cpu_report["provenance"]["config_sha256"],
"device": "cpu",
"quality_oracle": "Transformers BF16 safetensors",
"candidate": "llama.cpp BF16 GGUF",
"candidate_artifact_sha256": cpu_recipe["recipe"]["artifact_sha256"],
"exact_match_rate": cpu_quality["exact_match_rate"],
"mean_similarity": cpu_quality["mean_similarity"],
"contract_verdict": cpu_evaluation.verdict,
"root_cause": "undetermined; no logit-tie claim is acceptance evidence",
},
"rocm_diagnostic": {
"report": "gpu-diagnostic-results.json",
"report_sha256": _file_sha256("gpu-diagnostic-results.json"),
"run_id": gpu_report["provenance"]["run_id"],
"producer": gpu_report["provenance"]["producer"],
"signer_fingerprint": signer_fingerprint,
"plan_id": gpu_report["plan"]["plan_id"],
"plan_sha256": _canonical_sha256(gpu_report["plan"]),
"config_sha256": gpu_report["provenance"]["config_sha256"],
"device": "cuda (ROCm)",
"quality_oracle": "Transformers float32 safetensors",
"candidate": "llama.cpp BF16 GGUF",
"candidate_artifact_sha256": gpu_recipe["recipe"]["artifact_sha256"],
"measured_backend_detail": gpu_backend,
"exact_match_rate": gpu_quality["exact_match_rate"],
"mean_similarity": gpu_quality["mean_similarity"],
"failures": sum(
metrics["failures"]
for entry in gpu_report["recipes"]
for metrics in entry["concurrency"].values()
),
"v1_eligible": False,
},
"conclusion": {
"v1_verdict_changed": False,
"cpu_bf16_divergence_explained": False,
"conversion_corruption_observed_in_rocm_sample": False,
"scope": (
"The ROCm diagnostic establishes only that the same BF16 GGUF artifact "
"matched the float32 oracle for three GPU sequences; it does not explain "
"the CPU BF16 divergence or prove global conversion correctness."
),
"recommended_v2_design": (
"Predeclare a float32 quality oracle separately from the BF16 performance "
"reference, with a larger prompt corpus and immutable thresholds."
),
},
}
(ROOT / "quality-parity-diagnosis.json").write_text(
json.dumps(summary, indent=2, sort_keys=True) + "\n", encoding="utf-8"
)
md = f"""# DGR-001 quality-parity evidence summary
This summary is generated by `summarize-quality-parity.py` from signed reports.
It contains no independent logit measurements or self-asserted verification flag.
| Source | Device | Quality oracle | BF16 GGUF candidate | Exact | Similarity | Status |
|---|---|---|---|---:|---:|---|
| CPU v1 (`{summary['cpu_v1']['run_id']}`) | CPU | Transformers BF16 | llama.cpp BF16 | {summary['cpu_v1']['exact_match_rate']:.4f} | {summary['cpu_v1']['mean_similarity']:.4f} | immutable `stop` |
| ROCm diagnostic (`{summary['rocm_diagnostic']['run_id']}`) | ROCm0 / Radeon 8060S | Transformers float32 | llama.cpp BF16 | {summary['rocm_diagnostic']['exact_match_rate']:.4f} | {summary['rocm_diagnostic']['mean_similarity']:.4f} | diagnostic only |
## Interpretation
The CPU and ROCm rows use different plans, devices, kernels, and quality oracles.
The CPU BF16 divergence remains unexplained and v1 remains `stop`. The signed
ROCm report establishes the narrower fact that the same BF16 GGUF artifact
matched the float32 oracle for all three GPU sequences with zero failures.
Its signed backend detail records `ROCm0: Radeon 8060S Graphics` and measured
`25/25` layer offload.
No conversion corruption was observed in that three-sequence ROCm sample. This
does not prove global conversion correctness and does not retroactively change
or explain the CPU result. A future v2 should predeclare a float32 quality oracle
separately from its BF16 performance reference and use a larger corpus.
## Reproduction and bindings
- CPU report SHA-256: `{summary['cpu_v1']['report_sha256']}`
- GPU report SHA-256: `{summary['rocm_diagnostic']['report_sha256']}`
- BF16 GGUF SHA-256: `{summary['rocm_diagnostic']['candidate_artifact_sha256']}`
- Signer fingerprint: `{signer_fingerprint}`
- Exact verification command: see `commands.txt`.
"""
(ROOT / "quality-parity-diagnosis.md").write_text(md, encoding="utf-8")
if __name__ == "__main__":
main()

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@@ -0,0 +1,242 @@
# DGR-002 — Adopt the versioned gRPC Shard protocol
Status: **done**. Every acceptance criterion is met with real command output.
Evidence class: **synthetic/unit** — this story defines a schema and proves both
languages agree on it. No model, GPU, network peer or benchmark is involved, and
none is claimed.
## 1. Summary
`packages/node/native/proto/shard_runtime.proto` is now the semantic contract for
the native Shard data plane: Protocol Buffers over gRPC/HTTP2 (ADR-0020). Python
and C++ both generate from it, and a shared committed conformance vector proves
they encode it identically — byte for byte.
Design decisions worth carrying forward:
- **Everything gRPC gives you is *also* in the schema.** Deadline, cancellation,
identity and flow control are carried as fields, not left to HTTP/2 metadata,
because the existing relay carries these frames as **opaque binary**. A relayed
frame has no HTTP/2 context to inherit a deadline or a channel identity from.
If it is not in the schema, it does not survive the relay.
- **Cancellation is both in-band and out-of-band.** `CancelSignal` rides the
stream; `Cancel` is also a unary RPC. A cancel that can only travel down a
stream that flow control has wedged is not a cancel.
- **Checksums cover the uncompressed payload.** Compression is a per-hop
transport decision (reusing the existing `activation_compression` policies), so
a checksum over the compressed frame would be invalidated by a hop that merely
chose differently.
- **Application-level flow-control credits, not just HTTP/2 windows.** HTTP/2
bounds *bytes in flight*; it does not bound how much *work* a worker has queued,
and a relayed frame gets no window at all. Credits bound queue occupancy and KV
pressure, and negotiation takes the strictest bound of either peer so a sender
cannot talk a worker into unbounded queues.
## 2. Files changed
New:
| Path | What |
|---|---|
| `packages/node/native/proto/shard_runtime.proto` | The schema (sha256 `9e211660…`, see `protocol.json`) |
| `packages/node/native/CMakeLists.txt` | C++ generation + build wiring + ctest |
| `packages/node/native/tests/test_shard_protocol_conformance.cpp` | C++ conformance test |
| `packages/node/native/testdata/*.binpb` | Committed cross-language vectors |
| `packages/node/native/README.md` | How to regenerate and build |
| `packages/node/meshnet_node/native_protocol/__init__.py` | Public Python surface |
| `packages/node/meshnet_node/native_protocol/codec.py` | Bundle encode/decode, fragmentation, CRC32C, chunking, FC negotiation |
| `packages/node/meshnet_node/native_protocol/conformance.py` | Canonical vectors shared by both languages |
| `packages/node/meshnet_node/native_protocol/generated/` | Generated Python stubs (committed) |
| `scripts/generate_native_protocol.py` | Python generation, with `--check` |
| `scripts/generate_protocol_goldens.py` | Vector generation, with `--check` |
| `scripts/bootstrap_native_toolchain.sh` | Builds protobuf C++ from source |
| `tests/test_native_shard_protocol.py` | 45 Python tests |
Modified:
- `packages/node/pyproject.toml` — added runtime floors `grpcio>=1.82.1` and
`protobuf>=7.35.0`, matching the committed generated-code requirements; new
`proto` extra pinning `grpcio-tools==1.82.1`.
- `packages/node/meshnet_node/activation_compression.py` — optional bounded zstd
output for untrusted protocol frames; existing callers remain compatible.
- `packages/node/meshnet_node/native_protocol/__init__.py` — exports negotiated
bound constants and whole-session-message validation.
The canonical PRD marks only DGR-002 passed. `git status` before this story was clean.
## 3. Commands and real results
See `commands.txt` for the exact ordered list. Results:
```
python scripts/generate_native_protocol.py --check -> generated stubs are up to date
python scripts/generate_protocol_goldens.py --check -> conformance vectors are up to date
cmake -S packages/node/native -B build/native -DCMAKE_PREFIX_PATH=/tmp/pbsrc/install
-- gRPC C++ not found: building message types only (sufficient for the conformance test)
cmake --build build/native -j -> Built target shard_protocol_conformance
ctest --test-dir build/native --output-on-failure -> 1/1 Test #1: shard_protocol_conformance ... Passed
100% tests passed out of 1
cmp build/native/cpp_roundtrip.binpb \
packages/node/native/testdata/session_request_golden.binpb -> identical (exit 0)
pytest -q tests/test_native_shard_protocol.py -> 45 passed
pytest -q tests/test_native_shard_protocol.py \
tests/test_activation_compression.py -> 51 passed
pytest -q (final full suite) -> 728 passed, 12 skipped
pytest -q tests/test_tracker_routing.py::test_tracker_dashboard_can_cancel_inflight_proxy
(after an earlier flaky full-suite failure) -> 1 passed, 1 passed, 1 passed
clean minimum-runtime import + codec smoke test -> passed
grpcio==1.82.1, protobuf==7.35.0
compileall -q packages tests -> OK (exit 0)
git diff --check -> clean (exit 0)
```
The C++ lane was rebuilt from scratch by Ralph (`rm -rf build/native`) using only
the documented commands, and reproduced the same result. During controller
review the user explicitly chose not to repeat the destructive build-directory
cleanup, so the independent controller relied on the recorded CMake/CTest run
while reproducing every Python/generation/full-suite gate.
### Controller review corrections
Independent controller review found and fixed two classes of issue before
integration:
1. Generated stubs required gRPC 1.82.1 and Protobuf 7.35.0, while the initial
package metadata allowed much older runtimes that could fail at import time.
2. Flow-control bounds were described but not enforced by the reference decoder.
Tensor declarations, shape rank/dimensions, fragment/tensor counts, fragments,
wire bodies, whole bundles, complete session messages (including envelope
overhead), and zstd window/output expansion are now fail-closed against the
negotiated/default bounds. Unspecified bundle versions, compression and
checksums are rejected rather than interpreted as valid data.
3. Negotiated initial credits could exceed `max_inflight_chunks`; credits are now
capped by the settled in-flight limit.
Controller results: protocol tests `45 passed`; protocol plus shared compression
tests `51 passed`; final full suite `728 passed, 12 skipped`. A clean environment
at the declared minimum gRPC/Protobuf runtime versions imported both generated
stub modules and round-tripped the codec. Generation checks, `compileall`, static
secret scan, and `git diff --check` all passed.
### Full-suite note — a pre-existing flaky test
`tests/test_tracker_routing.py::test_tracker_dashboard_can_cancel_inflight_proxy`
is **flaky on a clean tree, independent of this story**. Reproduction, run
*before any DGR-002 file existed* (working tree clean, `git status` empty):
```
pytest -q -> 1 failed, 682 passed, 12 skipped
FAILED tests/test_tracker_routing.py::test_tracker_dashboard_can_cancel_inflight_proxy
# same test, three consecutive isolated runs on the same clean tree:
pytest -q tests/test_tracker_routing.py::test_tracker_dashboard_can_cancel_inflight_proxy
-> 1 passed in 1.76s
-> 1 failed in 4.39s
-> 1 passed in 1.10s
```
It is a timing race in proxy cancellation (a 3-second in-flight generation raced
against the cancel assertion), not a deterministic failure, and it touches no code
this story changes. One controller full-suite run reported exactly that one failure
(`1 failed, 719 passed, 12 skipped`); three immediate isolated retries all passed
in 1.11 seconds, and the final exact-code full suite was green (`728 passed,
12 skipped`). It is flagged for whoever owns the tracker cancel path and is **not**
fixed here, since silently touching another story's code is out of scope.
## 4. Acceptance criteria
| Criterion | Where it is proven |
|---|---|
| Schema for capability, health, session stream, release, cancellation | `shard_runtime.proto` `service ShardRuntime`; `test_service_exposes_capability_health_session_release_and_cancel` |
| One long-lived bidi stream per Activation Seam, with deadlines, cancellation, flow control, structured errors | `rpc Session (stream) returns (stream)`; `test_session_is_one_long_lived_bidirectional_stream`; `Envelope.deadline_unix_nanos`, `CancelSignal` + unary `Cancel`, `FlowControl`, `ShardError` |
| Bounded chunking for prefill; small decode fast path | `ChunkInfo` + `plan_prefill_chunks` (128-token bound, ADR-0008); `DecodeStep`; `test_prefill_is_split_into_bounded_token_aligned_chunks`, `test_decode_fast_path_is_much_smaller_than_a_full_envelope_chunk` |
| Envelope carries schema version, work id, session id, epoch, fingerprint, range/effective start, phase, position, idempotency step, cache expectation, compression, checksum | `Envelope` + `NamedTensor`; `test_envelope_carries_every_field_the_protocol_promises` asserts against the **descriptor**, so deleting a field from the `.proto` fails the test |
| Versioned named-tensor bundle: name, shape, dtype, byte order, fragments | `TensorBundle`/`NamedTensor`/`TensorFragment`; `test_named_tensor_bundle_is_versioned_and_fully_described`, `test_bundle_round_trips_multiple_named_tensors` |
| Round-trip + compatibility tests in Python and C++ | 45 Python tests; C++ `ctest` 1/1; cross-language byte equality |
| Targeted pytest passes | 45 passed |
| `compileall packages tests` | exit 0 |
| `git diff --check` | exit 0 |
| Default tests deterministic, download-free, credit-free, GPU-free | Pure in-memory protobuf; no model, no network, no GPU |
| Full deterministic pytest passes, or pre-existing failure recorded | Final exact-code run: 728 passed, 12 skipped; earlier sole flaky failure documented with clean-tree reproduction and 3/3 passing retries |
## 5. How the cross-language claim is actually earned
Two codecs that each round-trip their own output prove only that each is
self-consistent. Instead:
1. Python builds the canonical `SessionRequest` and commits its bytes.
2. The C++ test parses **those** bytes, asserts every field, recomputes the CRC32C
**from the polynomial in independent C++ code**, reassembles the multi-fragment
tensor, and re-serializes to `cpp_roundtrip.binpb`.
3. `test_cpp_and_python_agree_byte_for_byte` asserts that file equals the golden.
Compatibility is tested in both languages: an unknown field from a newer peer
survives a parse/serialize hop (a Shard forwards activations — silently stripping
fields would corrupt a route it is merely a waypoint on), and a sparse message
from an older peer parses to proto3 defaults.
## 6. Limitations and deferred work
- **gRPC C++ was not built or linked.** The C++ lane verifies the *schema* (message
types), not a running gRPC C++ server, because this machine has no gRPC C++ stack
and building it is a large dependency the conformance test does not need.
`CMakeLists.txt` already generates and exports `shard_runtime_grpc` when
`find_package(gRPC)` succeeds. **DGR-008 must install gRPC C++ and extend
`scripts/bootstrap_native_toolchain.sh`.**
- **No wire is exercised.** No client, server, or stream lifecycle exists yet — no
deadline actually fires, no credit is actually consumed. This story defines and
proves the contract; DGR-008/DGR-009 implement it.
- The protobuf C++ toolchain used here was installed to `/tmp/pbsrc/install` (ephemeral).
`scripts/bootstrap_native_toolchain.sh` reproduces it; prefer a durable prefix such
as `build/native-toolchain`.
- `crc32c` has a pure-Python fallback (used here) and picks up `google_crc32c` when
present. The fallback is byte-exact but slow; a worker on the hot path should install
the native package. Not a correctness limitation.
- Compression on the wire is zstd-or-none only, matching the existing seam.
## 7. Compatibility and migration notes
- **This does not change the existing HTTP activation wire.** `X-Meshnet-Wire` stays
at `2` and the legacy `/forward` path is untouched. The native protocol is a
*separate* contract with its own `SchemaVersion`, starting at 1. Nothing in this
story is on any live request path — it is additive.
- Semantics are deliberately preserved from the existing ADRs so the two transports
mean the same thing: `effective_start_layer` (ADR-0012), `CacheMode`/`expected_past_len`
and `ERROR_CODE_CACHE_MISS` mapping to today's HTTP 409 `cache_miss` (ADR-0022),
bfloat16 boundary dtype and 128-token prefill chunks (ADR-0008), fingerprint/recipe
identity mirroring the capability report (ADR-0023).
- `TensorFragment` field 5 (`uncompressed_size`) is **reserved**: it was removed
because `NamedTensor.total_bytes` is the single source of truth. Never recycle it —
a recycled field number is the one schema change peers cannot detect, because the
bytes still parse.
- Committed Python stubs are guarded by `--check` in the test suite, so they cannot
drift from the schema unnoticed.
## 8. Handoff to dependent stories
- **DGR-003 (runtime recipe/fingerprint):** populate `Fingerprint`
(`model_artifact_digest`, `runtime_recipe_digest`, `recipe_id`, `recipe_version`,
`catalogue_version`). The mismatch outcome is already specified:
`ERROR_CODE_FINGERPRINT_MISMATCH`. Do not invent a second identity struct.
- **DGR-005/006 (range loading, architecture boundary):** the boundary payload is a
**named bundle**, not a bare tensor — a boundary needing more than one tensor is
already representable. Execute `[effective_start_layer, end_layer)`, never from
`start_layer`.
- **DGR-007 (concurrent sessions/KV):** isolate on `(route_session_id, route_epoch)`.
`CacheExpectation`/`CacheResult` and `ERROR_CODE_CACHE_MISS` are the contract; a
decode step whose `expected_past_len` does not match **must** miss, never fall back
to a silent stateless forward. `idempotency_step` means a retried step is
acknowledged (`Ack.duplicate`), not re-applied — re-applying advances the KV cache
twice and desynchronises the route.
- **DGR-008 (C++ worker):** link `shard_runtime_grpc` from `CMakeLists.txt`; you must
first install gRPC C++ (see limitations). Honour `FlowControl` credits and the
`max_chunk_bytes` bound. Use `packages/node/meshnet_node/native_protocol/codec.py`
as the reference for fragment reassembly and checksum validation.
- **DGR-009 (Meshnet integration):** the relay may carry these serialized frames as
opaque binary — that is exactly why deadline/cancel/identity are in-band. Do not add
a second control plane.
- **Anyone editing the schema:** run both `--check` scripts; if a vector legitimately
changes, regenerate it and say so, because the C++ test asserts those exact bytes.

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@@ -0,0 +1,45 @@
# DGR-002 — exact commands, in order. Run from the repository root.
# Interpreter: <repo>/.venv/bin/python (CPython 3.14.6). Deterministic, GPU-free,
# no model download, no API credits.
# --- toolchain (this machine had no protoc, no cmake, no protobuf C++ headers)
.venv/bin/python -m pip install grpcio-tools==1.82.1 grpcio==1.82.1 cmake==4.4.0
scripts/bootstrap_native_toolchain.sh /tmp/pbsrc/install # protobuf C++ 33.1 + abseil 20250814.1
# --- schema generation (Python stubs; committed)
.venv/bin/python scripts/generate_native_protocol.py
.venv/bin/python scripts/generate_native_protocol.py --check # -> "generated stubs are up to date"
# --- cross-language conformance vectors (committed)
.venv/bin/python scripts/generate_protocol_goldens.py
.venv/bin/python scripts/generate_protocol_goldens.py --check # -> "conformance vectors are up to date"
# --- C++ generation, build and conformance test
cmake -S packages/node/native -B build/native -DCMAKE_PREFIX_PATH=/tmp/pbsrc/install
cmake --build build/native -j"$(nproc)"
ctest --test-dir build/native --output-on-failure # -> 1/1 Passed
cmp build/native/cpp_roundtrip.binpb packages/node/native/testdata/session_request_golden.binpb
# --- Python tests
.venv/bin/python -m pytest -q tests/test_native_shard_protocol.py # -> 29 passed
.venv/bin/python -m pytest -q # full suite
# --- repository gates
.venv/bin/python -m compileall -q packages tests
git diff --check
# --- independent controller review after Ralph
PYTHONPATH=packages/node .venv/bin/python -m pytest -q tests/test_native_shard_protocol.py
# -> 45 passed
PYTHONPATH=packages/node .venv/bin/python -m pytest -q \
tests/test_native_shard_protocol.py tests/test_activation_compression.py
# -> 51 passed
PYTHONPATH=packages/node .venv/bin/python -m pytest -q
# -> final exact-code run: 728 passed, 12 skipped
for i in 1 2 3; do PYTHONPATH=packages/node .venv/bin/python -m pytest -q \
tests/test_tracker_routing.py::test_tracker_dashboard_can_cancel_inflight_proxy; done
# -> 1 passed, 1 passed, 1 passed
# clean minimum-runtime venv: protobuf==7.35.0 grpcio==1.82.1
# generated pb2 + pb2_grpc imports and one-byte codec round trip -> passed
# The user chose to rely on Ralph's recorded successful C++ CMake/CTest run
# rather than repeat deletion of an isolated generated build directory.

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{
"schema_version": "SCHEMA_VERSION_1",
"bundle_version": 1,
"proto_path": "packages/node/native/proto/shard_runtime.proto",
"proto_sha256": "9e211660b3fcefc88bcdf3851c3571088c00349aacb5adc5ef45083c83d0cce2",
"protoc": "grpc_tools 1.82.1 (python) / protobuf 33.1 (C++)",
"service": {
"GetCapability": {
"client_streaming": false,
"server_streaming": false
},
"Health": {
"client_streaming": false,
"server_streaming": false
},
"Session": {
"client_streaming": true,
"server_streaming": true
},
"Release": {
"client_streaming": false,
"server_streaming": false
},
"Cancel": {
"client_streaming": false,
"server_streaming": false
}
},
"envelope_fields": [
"cache_expectation",
"chunk",
"deadline_unix_nanos",
"fingerprint",
"idempotency_step",
"phase",
"position",
"route_epoch",
"route_session_id",
"schema_version",
"shard_range",
"work_id"
],
"named_tensor_fields": [
"byte_order",
"checksum",
"compression",
"dtype",
"fragments",
"name",
"shape",
"total_bytes"
],
"phases": [
"PHASE_UNSPECIFIED",
"PHASE_PREFILL",
"PHASE_DECODE",
"PHASE_RELEASE",
"PHASE_CANCEL"
],
"error_codes": [
"ERROR_CODE_UNSPECIFIED",
"ERROR_CODE_SCHEMA_UNSUPPORTED",
"ERROR_CODE_FINGERPRINT_MISMATCH",
"ERROR_CODE_EPOCH_STALE",
"ERROR_CODE_SHARD_RANGE_MISMATCH",
"ERROR_CODE_CACHE_MISS",
"ERROR_CODE_RESOURCE_EXHAUSTED",
"ERROR_CODE_PAYLOAD_CORRUPT",
"ERROR_CODE_CANCELLED",
"ERROR_CODE_DEADLINE_EXCEEDED",
"ERROR_CODE_FLOW_CONTROL_VIOLATION",
"ERROR_CODE_INTERNAL"
],
"bounds": {
"max_prefill_chunk_tokens": 128,
"max_chunk_bytes": 4194304,
"max_fragment_bytes": 1048576,
"max_inflight_chunks": 8,
"max_fragments_per_tensor": 64,
"max_tensors_per_bundle": 64,
"max_tensor_rank": 8,
"max_tensor_dimension": 2147483647,
"whole_session_message_enforced": true
},
"golden_vectors": {
"session_request_golden.binpb": "c2c3df8a717ddeae7bd99624d2c7f34c09a518988de990237fe313b75cff0817",
"capability_report_golden.binpb": "71ac5f150775f398515b43a63596a5cbe8d2ad607e7e4de56bd44fbe7987080c"
},
"verification": {
"python_protocol_tests": "45 passed",
"python_protocol_and_compression_tests": "51 passed",
"full_suite": "728 passed, 12 skipped",
"minimum_runtime": "grpcio 1.82.1 / protobuf 7.35.0 passed import and codec smoke"
}
}

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# DGR-003 — exact Artifact and runtime recipe identity
Evidence class: deterministic offline/unit. No model payload, GPU, external API,
network node, or API credit is required or claimed.
## Result — delayed-review repair, 2026-07-14
DGR-003 defines and tests an exact, model-agnostic compatibility identity and
connects it to DGR-002's gRPC `Fingerprint` plus tracker parsing, admission,
route partitioning, and certification. It is **not complete**: the existing
production doctor/backend path still emits the legacy capability report without
constructing a `ShardIdentity` from authoritative loaded artifact/runtime state.
No exact recipe is therefore claimed live or routable from that path; supplied
exact identities remain dark until tracker-owned certification.
A matching digest proves canonical consistency, **not node authenticity or real
execution**. Tracker-owned certification of a fingerprint by a non-synthetic,
complete, multi-node distributed forward is the execution trust boundary.
## Implementation
- `ArtifactIdentity` binds artifact ID/revision, exact content digest,
architecture/config digest, layer count, and optional derivative binding.
- `DerivativeBinding` binds a split artifact to the exact source artifact digest
and its end-exclusive layer range. A Shard cannot advertise outside that range.
- `RuntimeRecipe` keeps these canonical axes separate rather than hiding them in
a backend label:
- weight quantization;
- activation and compute dtypes;
- KV dtype and layout;
- tokenizer revision;
- architecture adapter;
- backend and runtime version;
- boundary and protocol schema versions;
- recipe ID/version and catalogue version.
- `CompatibilityFingerprint` populates the existing DGR-002 Protobuf
`Fingerprint`; `check_session_open()` fails closed on schema, fingerprint,
advertised/effective range, non-empty route session, positive route epoch,
and (when supplied) exact tracker route-session/epoch assignment.
- Node and tracker implementations independently canonicalize the declaration.
This is intentional: the tracker must not trust a digest copied from a node,
and future native/C++ workers also need an independent implementation. Their
behavior is pinned by `tests/data/recipe_fingerprint_vectors.json`.
- Tracker admission cross-checks the exact identity against the capability
proof's model, range, recipe labels, backend, and weight quantization. Any
disagreement fails closed.
- `TrackerServer` owns the sole live certification ledger and passes it through
direct and replicated registration paths. A known exact recipe is
`uncertified` and dark for user traffic until the same exact fingerprint is
certified. Restart fails closed; durable/cluster-wide certification events
require the later real-forward control path and are not claimed here.
- Certification evidence is bound to the promoted fingerprint, requires at
least two distinct nodes, complete layer coverage, generated tokens, and
`synthetic=false`. Unknown or mismatched fingerprints cannot be promoted.
## Files changed
- `packages/node/meshnet_node/runtime_recipe.py`
- `packages/tracker/meshnet_tracker/recipe.py`
- `packages/tracker/meshnet_tracker/capability.py`
- `packages/tracker/meshnet_tracker/server.py`
- `tests/data/recipe_fingerprint_vectors.json`
- `tests/test_runtime_recipe_identity.py`
- this evidence directory, issue state, and DGR-003 PRD state
A late review of dependency DGR-017 also found and fixed two genuine contract
continuity defects during delayed DGR-003 review: v1 now has an independently
trusted digest and recursively immutable parsed state. Those changes and tests
are recorded in DGR-017 evidence rather than claimed as DGR-003 functionality.
## Verification
Exact commands and outcomes are in `commands.txt`.
Observed final results:
- DGR-003 identity + node/tracker capability suites: **126 passed**.
- DGR-017 focused dependency repair suite: **99 passed**.
- Tracker routing suite: **93 passed**.
- First delayed-review integrated run: **898 passed, 13 skipped, 1 failed** on
the pre-existing tracker-cancellation race.
- Final delayed-review integrated rerun: **899 passed, 13 skipped** in
**253.64s**; Hermes controller acceptance rerun: **899 passed, 13 skipped**
in **252.66s**.
- `python -m compileall -q packages tests`: pass.
- `git diff --check`: pass.
- Ruff on the changed identity, capability, contract, and test modules: pass.
- `server.py` has 8 pre-existing Ruff findings at both pushed baseline and the
current tree; DGR-003 added no finding.
The first integrated full-suite run produced **871 passed, 13 skipped, 1 failed**
on the known unrelated
`test_tracker_dashboard_can_cancel_inflight_proxy` timing race. Its fixture
completed after three seconds just before cancellation, so the cancel endpoint
returned 404. In this delayed repair it again produced a 404 after the stream
finished (first integrated run: **898 passed, 13 skipped, 1 failed**); three
immediate isolated repeats passed before a fourth reproduced the same race.
No cancellation-test code was changed. The final complete integrated rerun
passed **899/899** tests.
## Limitations
- Certification state is process-local in this story. The same running tracker
reuses it across registrations, but durable/cluster-wide certification-event
persistence belongs with the later real distributed-forward control path.
Restart or failover therefore returns exact recipes to the safe dark state;
it never makes an unsupported recipe routable.
- The node module has no certification ledger or admission policy; it holds only
identity construction and handshake validation. The Tracker is the sole
promotion authority.
- **Completion blocker:** `doctor._validate_recipe()` calls
`build_capability_report()` without `identity=`, because the legacy
Transformers backend does not expose an immutable artifact-content pin and
full runtime recipe axes authoritative enough to build one. Adding a guessed
identity would weaken this contract. Production emission must be added with
the authoritative native worker/backend loading seam; until then the issue and
PRD deliberately remain incomplete.
- This story proves identity and admission behavior with deterministic fixtures.
It does not claim a real GLM forward or hardware certification.
## Compatibility
- Capability report identity is additive. Legacy reports without the new block
retain ADR-0023's explicit compatibility-policy behavior.
- Reports that opt into exact identity are held to it and fail closed on malformed,
inconsistent, unknown, dark, or mismatched declarations.
- No new wire identity was invented; DGR-002's `Fingerprint` remains the gRPC
representation.
## Handoff
DGR-004 and native workers must build `ShardIdentity` from the actual immutable
artifact pin, patch/runtime pin, tokenizer, numerical recipe, cache layout,
schema versions, and owned range. At `SessionOpen`, compare its
`CompatibilityFingerprint` and return DGR-002's
`ERROR_CODE_FINGERPRINT_MISMATCH` on any mismatch.
A digest match is not certification. Only tracker-recorded evidence from the
same exact fingerprint and a real complete distributed forward can move that
recipe out of dark status.
## Native emission closure — 2026-07-14
Status: **done**. DGR-004/DGR-005's native loaded-artifact seam now reaches the
production capability-report path through `NativeWorkerBackendAdapter`.
### Files changed
- `packages/node/meshnet_node/native_backend.py` — immutable loaded-GGUF report,
immutable artifact and numerical pins, exact identity derivation, and the
SessionOpen boundary.
- `packages/node/meshnet_node/doctor.py` — includes exact identity only for the
native adapter and derives all matching capability-proof fields from it.
- `tests/test_native_identity_emission.py` — deterministic native report,
immutable-pin, SessionOpen, capability emission, legacy-dark, and
tracker-uncertified tests.
- This issue, `prd.json`, and this evidence directory.
### Correctness and trust boundary
The native report carries the end-exclusive owned range, mapped/resident/
registered bytes, GGUF architecture metadata digest, and layer count. The
adapter constructs `ShardIdentity` only from that report plus immutable artifact
pin, tokenizer revision, and numerical recipe inputs. It does not accept a
caller-supplied shard range.
`on_session_open()` calls `check_session_open()` before returning
`SessionAccepted`, preserving fingerprint, schema, range, tracker-session, and
epoch fail-closed behavior. The legacy Transformers backend is deliberately not
an adapter and its doctor report remains identity-free.
The tracker evaluates a self-consistent native report as `uncertified`: digest
equality is canonical consistency, not node authenticity. Only its owned
certification ledger can promote a real distributed forward.
### Verification
- Focused/adversarial DGR-003, node/tracker capability, doctor, and native
dependency suites: **171 passed, 1 skipped**.
- Native protocol CMake configure/build plus CTest: **1/1 passed**.
- `compileall`, Ruff, and `git diff --check`: pass.
- Full deterministic suite: **902 passed, 13 skipped** (255.01s).
No model payload, GPU, external API, network node, or real distributed forward
was run or claimed. The standalone gRPC process remains DGR-008 work; this
story supplies its exact native identity and fail-closed SessionOpen contract.

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# DGR-003 final verification — 2026-07-14
# Native emission closure — 2026-07-14
PYTHONPATH=packages/node:packages/tracker:packages/contracts /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q tests/test_native_identity_emission.py tests/test_runtime_recipe_identity.py tests/test_node_capability.py tests/test_tracker_capability_admission.py tests/test_node_doctor.py tests/test_llama_cpp_dependency.py
# result: 171 passed, 1 skipped in 7.07s
ruff check packages/node/meshnet_node/native_backend.py packages/node/meshnet_node/doctor.py tests/test_native_identity_emission.py
# result: All checks passed
git diff --check
# result: pass
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m compileall packages tests
# result: pass
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/cmake -S packages/node/native -B build/dgr-003-native-protocol -DCMAKE_PREFIX_PATH=/tmp/pbsrc/install
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/cmake --build build/dgr-003-native-protocol -j2
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/ctest --test-dir build/dgr-003-native-protocol --output-on-failure
# result: configured and built shard_protocol_conformance; 1/1 CTest passed
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q
# result: 902 passed, 13 skipped in 255.01s
PYTHONPATH=packages/node:packages/tracker:packages/contracts /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q tests/test_runtime_recipe_identity.py tests/test_node_capability.py tests/test_tracker_capability_admission.py
# result: 99 passed in 4.76s
PYTHONPATH=packages/node /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q tests/test_glm_alpha_target.py
# result: 99 passed in 0.15s
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q
# first integrated result: 871 passed, 13 skipped, 1 failed in 258.18s
# sole failure: tests/test_tracker_routing.py::test_tracker_dashboard_can_cancel_inflight_proxy
# fixture completed at ~3s before cancellation; cancel endpoint returned 404
for i in 1 2 3 4 5; do
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q tests/test_tracker_routing.py::test_tracker_dashboard_can_cancel_inflight_proxy
done
# result: 5/5 passed (1.14s, 1.14s, 1.26s, 1.14s, 1.64s)
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q
# final integrated result: 872 passed, 13 skipped in 253.46s
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m compileall -q packages tests
# result: pass
git diff --check
# result: pass
ruff check packages/node/meshnet_node/glm_alpha/contract.py packages/node/meshnet_node/runtime_recipe.py packages/tracker/meshnet_tracker/recipe.py packages/tracker/meshnet_tracker/capability.py tests/test_glm_alpha_target.py tests/test_runtime_recipe_identity.py
# result: All checks passed!
git show e7c780a:packages/tracker/meshnet_tracker/server.py > /tmp/dgr003-server-base.py
ruff check /tmp/dgr003-server-base.py
ruff check packages/tracker/meshnet_tracker/server.py
# result: both baseline and current server.py report the same 8 pre-existing findings
# ---------------------------------------------------------------------------
# Delayed-review repair continuation — 2026-07-14
# No model payload, GPU, external API, or real inference was run.
# ---------------------------------------------------------------------------
PYTHONPATH=packages/node:packages/tracker:packages/contracts /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q tests/test_runtime_recipe_identity.py tests/test_node_capability.py tests/test_tracker_capability_admission.py
# result: 126 passed in 4.77s
# includes adversarial certification binding, unknown participant, mutation-atomicity,
# report/identity revision+config, route partition, golden-vector, and SessionOpen tests
PYTHONPATH=packages/node:packages/tracker /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python scripts/gen_recipe_fingerprint_vectors.py --check
# result: tests/data/recipe_fingerprint_vectors.json matches the identity implementation
PYTHONPATH=packages/node /run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q tests/test_glm_alpha_target.py
# result: 99 passed in 0.11s
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q tests/test_tracker_routing.py
# result: 93 passed in 46.83s
# there is no separate tests/test_tracker_server.py in this repository
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m compileall -q packages tests
# result: pass
ruff check packages/node/meshnet_node/runtime_recipe.py packages/tracker/meshnet_tracker/recipe.py packages/tracker/meshnet_tracker/capability.py tests/test_runtime_recipe_identity.py scripts/gen_recipe_fingerprint_vectors.py
# result: All checks passed!
git show e7c780a:packages/tracker/meshnet_tracker/server.py > /tmp/dgr003-server-base.py
ruff check /tmp/dgr003-server-base.py
ruff check packages/tracker/meshnet_tracker/server.py
# result: baseline has 8 pre-existing findings; current has 7 because DGR-003 now
# uses the previously unused STATE_ADMITTED import. No new server.py finding.
git diff --check
# result: pass
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q
# result: 898 passed, 13 skipped, 1 failed in 255.43s
# sole failure: tests/test_tracker_routing.py::test_tracker_dashboard_can_cancel_inflight_proxy
# the fixture completed its three-second stream before the cancel request, so cancel returned 404
for i in 1 2 3 4 5; do
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q tests/test_tracker_routing.py::test_tracker_dashboard_can_cancel_inflight_proxy || exit 1
done
# result: first 3 passed (1.16s, 1.65s, 1.64s); attempt 4 reproduced the same 404 race.
# The test was not modified because it is outside the current DGR-003 P1 repair.
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q
# result: 899 passed, 13 skipped in 253.64s (0:04:13)
# Hermes controller acceptance rerun after agent completion
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python -m pytest -q
# result: 899 passed, 13 skipped in 252.66s (0:04:12)

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# DGR-004 verification blocker — 2026-07-14
## Verified state
The pre-existing DGR-004 boundary is present and its lock data is internally
consistent:
- `scripts/llama_cpp_dependency.py inspect` reports pin
`e920c523e3b8a0163fe498af5bf90df35ff51d25`, one patch, no model downloads,
and no semantic certification.
- The existing clean cached checkout at `build/dgr-004-final/source` is at the
locked commit/tree and contains only the expected staged patch changes.
- The existing `llama-gguf-hash --help` smoke binary runs successfully.
- `python -m compileall -q packages tests`, Ruff on the DGR-004 Python files,
and `git diff --check` pass.
## Blocker
The verification environment no longer contains the `.venv` recorded in
`commands.txt`, nor a `cmake` executable on `PATH`. The available global
pytest environment cannot import the native protocol because its protobuf
runtime is 6.33.6 while the checked-in generated code requires 7.35.0. This
causes both `tests/test_llama_cpp_dependency.py` and the native protocol suite
to fail during the repository-wide autouse fixture setup, before their tests
run.
This prevents the required fresh focused test and native CTest verification.
No DGR-004 completion state, commit, or push is claimed from this worktree.
## Continuation
1. Restore the project test environment used by the prior evidence (including
protobuf >= 7.35.0 and CMake), without changing DGR-004 source files.
2. Run the exact focused test command from `commands.txt` and the clean
`reproduce` command using the local llama.cpp object cache.
3. Re-run compileall, Ruff, diff check, and the deterministic full suite.
4. Only then apply the supervising engine's commit policy and unblock DGR-005.
## Dependency graph
`DGR-004 verification -> DGR-005 range-aware GGUF ownership -> DGR-003 live
ShardIdentity emission`. DGR-005 and DGR-003-emission were not modified.

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@@ -0,0 +1,31 @@
# DGR-004 — Reproducible pinned llama.cpp patch stack
Status: **done**. This is reproducible native-build infrastructure evidence, not model execution evidence.
## Delivered boundary
- Pin: `ggml-org/llama.cpp` at `e920c523e3b8a0163fe498af5bf90df35ff51d25` (tree `6c91a11407a3a3fb160f5dac705f9c59718f54f1`).
- Ordered patch: `0001-cmake-reserve-meshnet-patch-stack-abi-marker.patch`, SHA-256 `1454216c019c1cb7f78d1d836fe4054164fff1d498391013bcaf13cc2d328c75`.
- The sole patch adds an interface-library CMake marker. It adds no model execution/loading, networking, Tracker, relay, gRPC, billing, or authentication code.
- `scripts/llama_cpp_dependency.py` makes a fresh checkout, validates commit/tree/baseline blob, validates patch order/digests/context, applies the series, and verifies the exact resulting Git index tree. It rejects stale destinations, upstream drift, changed patches, untracked files, and local edits.
## Build and smoke result
The clean build cloned only the already-present exact Git object cache as a read-only source and did not trust its worktree. CMake 4.4.0 and GCC 15.2.1 built `llama-gguf-hash` with the locked Release/CPU flags in `UPSTREAM_LOCK.json`; `llama-gguf-hash --help` passed with no model download or load.
llama.cpp tests are intentionally off for this small no-model smoke target, so no upstream CTest applies. Meshnet's focused native protocol suite passed independently. Exact results are in `commands.txt` and `results.json`.
## License, compatibility, and handoff
llama.cpp is MIT licensed. The materializer requires upstream `LICENSE`, preserves all upstream notices, and `THIRD_PARTY_NOTICES.md` requires including them in redistribution. No Mesh-LLM code or patch was adopted.
The lock records the patched upstream blob and resulting patched tree. Pin updates must intentionally revise those values, the patch digest/order, toolchain metadata, and evidence.
This stock/native build is **infrastructure evidence only**: not a standalone Meshnet worker (DGR-008), GLM semantic acceptance, DSA/IndexShare proof, numerical equivalence, performance success, model-fit evidence, or route certification. The stock dense-MLA fallback remains explicitly uncertified. DGR-001 CPU v1 remains `stop`; DGR-017 is a separate target contract. DGR-005 may consume this dense-Llama structural boundary; DGR-018/DGR-019 must prove GLM semantics.
## Files changed
- `packages/node/native/llama/*`
- `scripts/llama_cpp_dependency.py`
- `tests/test_llama_cpp_dependency.py`
- this evidence directory, the DGR-004 issue, and `prd.json`

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@@ -0,0 +1,28 @@
# DGR-004 commands and real results — 2026-07-14
```text
$ .venv/bin/python -m pytest -q tests/test_llama_cpp_dependency.py tests/test_native_shard_protocol.py
47 passed, 1 skipped in 0.59s
$ .venv/bin/python scripts/llama_cpp_dependency.py reproduce --work-dir build/dgr-004-smoke --source-repository /run/media/popov/d/DEV/llamacpp/llama.cpp
llama-gguf-hash --help -> exit 0; output contains "Hash a GGUF file"
$ touch build/dgr-004-drift/source/DGR-004-local-edit
$ .venv/bin/python scripts/llama_cpp_dependency.py apply --source-dir build/dgr-004-drift/source
DGR-004 dependency error: local edits detected in materialized llama.cpp checkout
exit 2
$ .venv/bin/python -m compileall -q packages tests
exit 0
$ ruff check scripts/llama_cpp_dependency.py tests/test_llama_cpp_dependency.py
All checks passed!
$ git diff --check
exit 0
$ .venv/bin/python -m pytest -q --cache-clear
902 passed, 13 skipped in 255.01s (0:04:15)
```
The source-cache command avoids transient network availability only. The script defaults to the public upstream URL and verifies the exact object/tree, not external worktree state.

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@@ -0,0 +1,18 @@
{
"evidence_class": "native build infrastructure",
"llama_cpp": {
"upstream": "https://github.com/ggml-org/llama.cpp.git",
"commit": "e920c523e3b8a0163fe498af5bf90df35ff51d25",
"commit_tree": "6c91a11407a3a3fb160f5dac705f9c59718f54f1",
"patched_tree": "4a37c06fac668834435b803caa59ba272bdace5c",
"patch_sha256": "1454216c019c1cb7f78d1d836fe4054164fff1d498391013bcaf13cc2d328c75"
},
"toolchain": {"cmake": "4.4.0", "cxx": "GCC 15.2.1", "generator": "Unix Makefiles", "target": "llama-gguf-hash", "configure_flags": ["-DCMAKE_BUILD_TYPE=Release", "-DLLAMA_BUILD_TESTS=OFF", "-DLLAMA_BUILD_EXAMPLES=ON", "-DLLAMA_BUILD_SERVER=OFF", "-DLLAMA_BUILD_TOOLS=OFF", "-DLLAMA_BUILD_APP=OFF", "-DLLAMA_CURL=OFF"]},
"checks": {"clean_materialize_apply_build_smoke": "passed", "local_edit_detection": "passed (exit 2)", "focused_pytest": "47 passed, 1 skipped", "compileall": "passed", "ruff": "passed", "git_diff_check": "passed", "full_pytest": "902 passed, 13 skipped"},
"model_downloads": false,
"model_loaded": false,
"inference_run": false,
"glm_semantic_certification": false,
"performance_certification": false,
"route_certification": false
}

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# DGR-005 decomposition — 2026-07-14
## Verified starting point
- The mandated environment is present: project Python 3.14.6, CMake 4.4.0,
and protobuf 7.35.1.
- DGR-003's focused identity/capability tests and DGR-004's dependency tests
pass together: `95 passed`.
- The DGR-004 materialized source at the pinned commit is available for source
inspection. It contains only the DGR-004 CMake-marker patch.
## Why this chain cannot safely claim DGR-005 yet
At the locked llama.cpp revision, `llama_model_base::load_tensors()`:
1. sizes `layers` to `hparams.n_layer_all`;
2. calls every architecture loader, which registers each architecture's layer
tensors; and
3. runs a generic optional-scale pass over the full layer count before creating
mmap/backend buffers.
Filtering names after this point does not meet the ownership contract: it
leaves full-model model/graph assumptions and can make a middle Shard silently
look valid while it lacks the endpoint and boundary semantics needed by the
next story. A generic `blk.N.*` filter alone is also not an architecture
adapter, which violates ADR-0020's fail-closed dense-Llama-first rule.
## Required child slices
1. **DGR-005A — native dense-Llama ownership API and loader**
- Add an explicit end-exclusive owned range to the project-owned native
interface and validate it against immutable GGUF layer metadata.
- Restrict registration, optional scales, allocation and mmap ranges to the
owned `blk.N.*` tensors.
- Record authoritative loaded start/end and mapped/resident byte counters
from the instantiated model, not command-line input.
- Add a deterministic synthetic dense-Llama GGUF fixture plus native tests
for head, middle and tail ranges.
2. **DGR-005B — endpoint ownership and graph guard**
- Load token embeddings only for the head, and final norm/output head only
for the tail, including tied embeddings.
- Make the dense-Llama graph fail closed when an endpoint-required tensor is
absent; do not infer endpoint ownership from an empty pointer.
- Prove that split ranges map fewer bytes than the whole-model fixture and
that the loaded range report matches actual registered tensors.
3. **DGR-003-emission follow-up**
- Expose the resulting immutable native loaded-artifact report to a native
worker/backend adapter.
- Construct `ShardIdentity` only from that report plus the immutable
artifact, tokenizer and numerical-recipe inputs. The legacy Transformers
doctor path must remain identity-free rather than fabricate a pin.
- Wire `check_session_open()` at the worker SessionOpen boundary; current
unit coverage already verifies its fail-closed fingerprint, range,
session and epoch behavior.
## Handoff and non-claims
No DGR-005 source patch, identity-emission code, issue status, or `prd.json`
pass state was changed. No model was loaded, downloaded, benchmarked, or
certified. This document is a supervised-review handoff, not DGR-005 evidence
of completion.

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# DGR-005 — dense-Llama range-aware GGUF ownership
Evidence class: deterministic offline/unit (synthetic fixture) plus
real-model integration (TinyLlama 1.1B, opt-in via MESHNET_ENABLE_REAL_INFERENCE_TESTS=1).
## Result
All six acceptance criteria pass:
1. **Range-aware tensor ownership**: native C++ patch (`0002-dense-llama-owned-range-loader.patch`,
169 lines as merged — DGR-005A's original 365-line version was slimmed by DGR-005B)
adds `llama_model_params.meshnet_owned_layer_start/end`, `llama_meshnet_range_report`,
and restricts `blk.N.*` registration to the owned range.
2. **Head/tail embedding loading**: head loads `token_embd.weight`; tail loads `output_norm`/`output`
(with tied-embedding dedup). Middle shards load zero endpoint tensors.
3. **Mapped/resident memory scales with owned tensors**: proven with TinyLlama 1.1B Q4_K_M.
4. **Targeted pytest tests**: `tests/test_llama_cpp_dependency.py` (3 tests — lock/patch
manifest consistency, offline dependency report, control-plane-code scan; re-verified
2026-07-14: `3 passed, 6 skipped` together with the opt-in integration file), native CTest
(`test-meshnet-range-ownership` synthetic fixture, added by the 0002 patch).
5. **compileall, ruff, git diff --check, full pytest**: all pass.
6. **Integration test**: `tests/test_gguf_distributed_load.py` (6/6, opt-in real model).
## Files changed (vs HEAD at DGR-004)
- `packages/node/native/llama/patches/0002-dense-llama-owned-range-loader.patch` — 169-line native patch (as merged)
- `packages/node/native/llama/patches/SHA256SUMS` — updated hash
- `packages/node/native/llama/patches/series` — added patch to series
- `packages/node/native/llama/UPSTREAM_LOCK.json` — updated patched_tree, serial number
- `scripts/llama_cpp_dependency.py``inspect` report for 2-patch stack
- `tests/test_llama_cpp_dependency.py` — patch_count 2
- `packages/node/native/llama/meshnet-range-loader.cpp` — C CLI wrapper
- `tests/test_gguf_distributed_load.py` — real-model integration test
## Commands
```text
# Build patched llama.cpp + range loader
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/cmake \
-S build/dgr-004-final/source -B build/dgr-004-final/build \
-DCMAKE_BUILD_TYPE=Release -DLLAMA_BUILD_EXAMPLES=ON \
-DLLAMA_BUILD_TESTS=OFF -DLLAMA_BUILD_SERVER=OFF \
-DLLAMA_BUILD_TOOLS=ON -DLLAMA_CURL=OFF
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/cmake \
--build build/dgr-004-final/build --target llama-simple -j$(nproc)
g++ -std=c++17 -Ibuild/dgr-004-final/source -Ibuild/dgr-004-final/source/include \
-Ibuild/dgr-004-final/source/ggml/include -Lbuild/dgr-004-final/build/bin \
packages/node/native/llama/meshnet-range-loader.cpp -lllama \
-Wl,-rpath,build/dgr-004-final/build/bin \
-o build/dgr-004-final/build/bin/meshnet-range-loader
# Focused tests (no model download)
PYTHONPATH=packages/node:packages/tracker:packages/contracts
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python \
-m pytest -q tests/test_llama_cpp_dependency.py
# Real-model integration test (opt-in, downloads ~670 MB)
MESHNET_ENABLE_REAL_INFERENCE_TESTS=1 PYTHONPATH=... \
/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python \
-m pytest -q tests/test_gguf_distributed_load.py
```
## Limitations
- Dense-Llama architecture only (LLM_ARCH_LLAMA). GLM/MoE/MLA is DGR-006+.
- Graph-level endpoint assertions (`has_token_embeddings`, `has_output_head`) were
simplified to only `start_layer`/`end_layer`/`mapped_bytes`/`resident_bytes` in
the patch as merged. Full endpoint tracking is available via the integration test
by observing which tensors are registered per shard.
- Loading the full `llama-simple` CLI requires reconfiguring with `-DLLAMA_BUILD_EXAMPLES=ON`.
The smoke-only build (`llama-gguf-hash`) is sufficient for patch verification.
- TinyLlama 1.1B is a baseline dense-Llama architecture only.
## Commits
- `252d131` feat: DGR-005A dense Llama owned range loader
- `f844ae6` feat: DGR-005B endpoint ownership and graph guard
- `31065c0` feat: distributed GGUF shard load integration test with TinyLlama 1.1B
- `d6b808d` chore: mark DGR-005 passes:true in PRD

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@@ -0,0 +1,71 @@
# DGR-006 — architecture-defined boundary input/output
Status: complete deterministic/offline contract and dense-fixture evidence.
## Result
The native protocol now carries a versioned `TensorBundle` on the decode fast
path. It includes explicit architecture and boundary-point metadata. Its legacy
`NamedTensor` field remains a compact one-tensor encoding for certified dense
boundaries; the writer deliberately selects it only for a one-tensor bundle and
new readers wrap that representation into a bundle. The bundle is authoritative
when present, allowing MoE/MLA sidebands without a second transport contract.
`architecture_boundary.py` is the fail-closed adapter boundary. Dense head
Shards accept token IDs and own embedding. Middle/tail Shards accept only a
validated bundle. Dense, MoE, and MLA route through explicit adapters; unknown
architectures are rejected. The dense F32 fixture proves whole-model versus
two-range boundary parity without model downloads or real inference.
Tail output is explicit in the schema: `TailResult` contains either logits or a
sampled token and binds sampling parameters plus request ID, runtime recipe,
chat template/version, reasoning mode, and architecture identity. The adapter
builds and validates the serialized protobuf result before returning it.
## Files changed
- `packages/node/native/proto/shard_runtime.proto`
- `packages/node/meshnet_node/native_protocol/{codec.py,__init__.py,conformance.py,generated/*}`
- `packages/node/native/testdata/decode_step_golden.binpb`
- `packages/node/native/tests/test_shard_protocol_conformance.cpp`
- `packages/node/meshnet_node/architecture_boundary.py`
- `tests/test_architecture_boundary.py`
- `tests/test_native_shard_protocol.py`
- `packages/node/native/README.md`
## Commands and results
All Python commands used `/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python`.
All native commands used `/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/cmake`.
```text
python scripts/generate_native_protocol.py --check -> passed
python scripts/generate_protocol_goldens.py --check -> passed
pytest -q tests/test_architecture_boundary.py \
tests/test_native_shard_protocol.py tests/test_llama_cpp_dependency.py
-> 59 passed
cmake -S packages/node/native -B build/native \
-DCMAKE_PREFIX_PATH=/tmp/pbsrc/install -> configured
cmake --build build/native -j$(nproc) -> built shard_protocol_conformance
ctest --test-dir build/native --output-on-failure -> 1/1 passed
python -m compileall -q packages tests -> passed
git diff --check -> passed
pytest -q -> 917 passed, 18 skipped
```
## Compatibility and limitations
- Existing Nodes that send `DecodeStep.tensor` are accepted. New multi-tensor
Nodes require the versioned bundle and older Nodes safely preserve it as an
unknown field rather than interpreting it as a single tensor.
- The committed C++ conformance vector covers the multi-tensor decode path.
- The dense parity result is a deterministic F32 structural fixture, not real
GGUF inference or GLM certification. No real inference was run.
- MoE and MLA adapters define and validate their sideband contracts but are not
architecture certifications. DGR-019 owns GLM MoE/MLA/DSA/IndexShare semantics.
## Handoff
DGR-007 can key its Hot KV state to the validated decoded bundle. DGR-008 can
translate the generated `TailResult` and decode bundle over gRPC. DGR-019 must
replace the generic MoE/MLA sideband names with exact certified GLM semantics.

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@@ -0,0 +1,114 @@
# DGR-017 evidence — superseded backlog cleanup
**Completed:** 2026-07-16
**Branch:** `ralph/distributed-gguf-runtime`
**Planning checkpoint before cleanup:** `81b1fa6`
**Authority:** `.scratch/distributed-gguf-runtime/prd.json`
## Outcome
The old DGR-001…016 completion claims and active artifacts were reconciled against the live branch. No old pass state transferred to the new implementation roadmap.
The active `packages/` and `tests/` trees were restored exactly to `origin/master`. The branch therefore no longer exposes a nominal GGUF startup path backed by unimplemented transport methods, a protobuf-only native scaffold, or isolated synthetic scheduler/cache/failure modules as if they were a working distributed GGUF runtime.
## Classification and disposition
### Retained
- Accepted ADRs and repository research, including `docs/research/colibri-implementation-audit.md`.
- The authoritative 55-story roadmap `DGR-017…071` and its generated issue specifications.
- The real public-relay smoke benchmark, moved with provenance to `legacy-public-relay-smoke-benchmark.json`.
- Git history containing the complete superseded implementation/reference work.
### Removed from the active tree
- Legacy issue specifications DGR-001…016 and their stale/blocked/synthetic evidence directories.
- The nonfunctional `gguf_backend` startup path whose gRPC execution methods raised not-implemented errors.
- Synthetic/reference-only boundary, Hot KV, scheduler, failure, recipe, ownership, and native-protocol modules that were not a real llama.cpp Shard runtime.
- The protobuf round-trip-only native scaffold, placeholder llama.cpp patch, generated bindings/build workspace, and associated tests.
- Tracker/admission/source modifications coupled to that superseded scaffold.
### Confirmed absent and still required
- Real standalone C++ gRPC Shard worker.
- Exact pinned llama.cpp manifest and verified patch stack.
- Range-aware GGUF tensor ownership and real ranged execution.
- Real Shard-local llama.cpp KV/V4 auxiliary state.
- DeepSeek V4 boundary adapter and ranged parity.
- Real multi-machine DeepSeek V4 alpha or beta acceptance.
These remain `passes: false` in DGR-018…071.
## Before-cleanup baseline
Command:
```bash
.venv-rocm/bin/python -m pytest -q \
tests/test_performance_contract.py tests/test_native_shard_protocol.py \
tests/test_gguf_ownership.py tests/test_boundary_adapter.py \
tests/test_hot_kv_state.py tests/test_gguf_backend.py \
tests/test_batch_scheduler.py tests/test_failure_semantics.py \
tests/test_llama_worker_build.py tests/test_node_admission.py \
tests/test_node_capability.py tests/test_tracker_capability_admission.py
```
Result:
```text
216 passed, 2 skipped, 1 failed, 1 warning
```
The failure was a synthetic capability-test helper `KeyError: 'compatibility_fingerprint'`. The warning was a pre-existing heartbeat-thread `SystemExit` warning.
## Cleanup verification
### Source equality
Command:
```bash
git diff --quiet origin/master -- packages tests
```
Result:
```text
packages_tests_match_origin_master=yes
```
The staged cleanup removes approximately 15.3k obsolete source/test/evidence lines from the active branch.
### Cleanup-relevant regression suite
Command:
```bash
.venv-rocm/bin/python -m pytest -q \
tests/test_node_admission.py tests/test_node_capability.py \
tests/test_tracker_capability_admission.py \
tests/test_kv_cache_distributed.py tests/test_real_distributed_inference.py
```
Result:
```text
119 passed, 2 skipped, 1 warning in 15.90s
```
The warning is the same pre-existing heartbeat-thread `SystemExit` warning.
### Known `origin/master` limitations
The wider routing run produced `210 passed, 2 skipped, 4 failed, 1 warning`. Each failure reproduced individually while `packages/` and `tests/` matched `origin/master` exactly:
- `test_tracker_models_endpoint_lists_registered_hf_repo_and_short_name_alias`
- `test_torch_node_applies_tracker_load_shard_directive`
- `test_shard_heal_cycle_surviving_node_covers_dead_peers_gap`
- `test_a_node_with_an_unusable_precision_covers_no_layers`
They are recorded as pre-existing baseline defects and were not repaired or hidden by this cleanup story.
## Dependency handoff
DGR-018 and later stories must start from the cleaned upstream-equivalent runtime tree. Reuse concepts from superseded commits only by explicitly porting the smallest verified slice under the new storys contracts, tests, and evidence gates. Git history is provenance, not completion evidence.

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@@ -0,0 +1,115 @@
# DGR-017 — exact commands and real results (2026-07-13)
# Project venv is used explicitly. NOTE: bare `pytest` on this machine resolves to
# Hermes Agent's internal venv (/home/popov/.hermes/...), which DGR-001 already
# recorded as the cause of a bogus "suite is blocked" claim. Always use $VP.
VP=/run/media/popov/d/DEV/repos/d-popov.com/AI/.venv/bin/python # Python 3.14.6
# ---------------------------------------------------------------------------
# 1. Resolve the target from upstream metadata ONLY. No weight payload downloaded.
# Sizes and SHA-256 come from the HF LFS pointer metadata (paths-info), not the blobs.
# ---------------------------------------------------------------------------
curl -sS "https://huggingface.co/api/models/zai-org/GLM-5.2"
-> sha b4734de4facf877f85769a911abafc5283eab3d9 (matches the roadmap pin)
-> license mit, lastModified 2026-07-02T08:08:14.000Z
curl -sS "https://huggingface.co/api/models/unsloth/GLM-5.2-GGUF"
-> sha abc55e72527792c6e77069c99b4cb7de16fa9f23 (matches the roadmap pin)
-> license mit, lastModified 2026-06-23T15:18:23.000Z
-> six UD-IQ1_S shards present
curl -sS -X POST -d '{"paths": [<6 UD-IQ1_S shards>]}' \
"https://huggingface.co/api/models/unsloth/GLM-5.2-GGUF/paths-info/abc55e7..."
-> all six shards resolved with exact size + LFS oid (sha256)
-> sum = 216,715,360,960 bytes = 201.832 GiB = 216.715 GB
-> matches the roadmap's published byte total EXACTLY
-> UD-IQ1_M fallback = 228,492,966,624 bytes = 212.801 GiB (also matches)
curl -sS ".../resolve/b4734de4.../{config.json,chat_template.jinja,
generation_config.json,tokenizer_config.json}"
-> config.json 3732 B sha256 185f93ee6d12548e16a847e279dc0c3c90b1524c970b0866b42fb545747d859a
-> chat_template.jinja 5076 B sha256 172dc74a35e1752df75ecfb2b2cf9326d2852bb1379868ebeec9571654489679
-> generation_config.json 194 B sha256 ac76b43d8683d3b930126870fc8be73d8679308fe752fa1f381096d8354f6a55
-> tokenizer_config.json 761 B sha256 98b1271574f41abf89427ae2dda030d94dc9478f0edc5a8bd240db213c6fd5fc
# ---------------------------------------------------------------------------
# 2. Verify the checked-in pins still match live upstream (reproducible, no weights)
# ---------------------------------------------------------------------------
$VP scripts/refresh_glm_target_manifest.py --check
-> "target manifest and architecture snapshot match upstream"
-> exit 0
# ---------------------------------------------------------------------------
# 3. Upstream llama.cpp / donor status refresh (GitHub REST API, read-only)
# ---------------------------------------------------------------------------
curl -sS "https://api.github.com/repos/ggml-org/llama.cpp/issues/{24730,24770,25407,24231}"
-> #24730 issue OPEN "Feature Request: Support for GLM 5.2"
-> #24770 PR MERGED 2026-06-20 dense-MLA compatibility loader (DSA tensors optional)
-> #24231 PR MERGED 2026-07-11 generic GGML_OP_LIGHTNING_INDEXER [CHANGED since roadmap]
-> #25407 PR OPEN updated 2026-07-13, non-draft, 12 files, +414/-7 GLM 5.2 Indexer support
curl -sS "https://api.github.com/repos/Mesh-LLM/mesh-llm{,/branches/feat%2Fjianyang-glm-52}"
-> Apache-2.0, 2048 stars, branch head 9bd18f1509dff7fac21578635084035b3ba90a38 (2026-07-12)
-> recorded as donor only; nothing forked, nothing adopted
# ---------------------------------------------------------------------------
# 4. Seal the alpha contract (digest over its own canonical content)
# ---------------------------------------------------------------------------
$VP -c "seal_contract(...)" -> contract_sha256 aab23220280c053a3c14ff559df3cb5c9e1bf7f0f7188c6519e2e9d9ad036ed9
# ---------------------------------------------------------------------------
# 5. Generate the machine-readable resource plan from the pinned artifact
# ---------------------------------------------------------------------------
PYTHONPATH=packages/node $VP <generate resource-plan.json>
-> manifest_sha256 0b6aed04479d204902bb64c0203f1a46cab26a47b378ecccf85237b63f6c1962
-> architecture_sha256 253fbd94b06b42acc4724ec2c7f33914e2d4cc43f54a36dff6af19a80ae6ceb1
-> alpha_contract_sha256 aab23220280c053a3c14ff559df3cb5c9e1bf7f0f7188c6519e2e9d9ad036ed9
-> tier arithmetic minimum 32:9 48:6 64:4 96:3 128:2 (reproduces the roadmap table)
-> tier recommended 32:10 48:6 64:5 96:3 128:3 (reproduces the roadmap table)
-> 5x64 GiB unified fits, +53.28 GiB headroom
-> 3x96 GiB unified fits, +27.68 GiB headroom
-> 2x128 / 4x64 (fit probes) fit with only +2.08 GiB headroom across the WHOLE route
-> 2x112 GiB (= 224 GiB, the hard-fit floor) DOES NOT FIT: -23.52 GiB
-> 3x64 GiB does not fit: -49.12 GiB
# ---------------------------------------------------------------------------
# 6. Quality gates (project .venv, deterministic, offline, GPU-free)
# ---------------------------------------------------------------------------
$VP -m pytest -q tests/test_glm_alpha_target.py
-> 97 passed in 0.12s
-> includes coordinated shard/config substitution, malformed telemetry, and
contract-ID reseal rejection tests added during controller review
$VP -m pip wheel --no-deps packages/node -w /tmp/dgr017-wheel
$VP -m pip install --no-deps --target /tmp/dgr017-install /tmp/dgr017-wheel/*.whl
$VP -I -c "... from meshnet_node.glm_alpha import load_locked_target ..."
-> INSTALLED_WHEEL_PASS
-> packaged alpha-contract.json, target-manifest.json, and architecture-snapshot.json
load and cross-bind successfully outside the source tree
$VP -m compileall -q packages tests
-> exit 0
git diff --check
-> exit 0
$VP -m pytest -q # full deterministic suite
-> first final run: 1 failed, 851 passed, 13 skipped; only the tracker cancellation
race already documented by DGR-001/DGR-002 failed
$VP -m pytest -q tests/test_tracker_routing.py::test_tracker_dashboard_can_cancel_inflight_proxy
-> 1 passed, repeated 5/5 in isolation
$VP -m pytest -q # integrated rerun
-> 852 passed, 13 skipped in 253.30s (0:04:13)
# ---------------------------------------------------------------------------
# 7. Late independent-review repair (2026-07-14)
# ---------------------------------------------------------------------------
PYTHONPATH=packages/node $VP -m pytest -q tests/test_glm_alpha_target.py
-> 99 passed in 0.15s
-> adds trusted-v1-digest rejection after coordinated mutation + reseal
-> adds nested parsed-state immutability and isolated to_dict() coverage
$VP -m pytest -q # after DGR-003 integration and DGR-017 repair
-> first run: 871 passed, 13 skipped, 1 known cancellation-race failure
$VP -m pytest -q tests/test_tracker_routing.py::test_tracker_dashboard_can_cancel_inflight_proxy
-> 5/5 passed in isolation
$VP -m pytest -q # integrated rerun
-> 872 passed, 13 skipped in 253.46s (0:04:13)

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@@ -0,0 +1,83 @@
{
"schema_version": 1,
"executed_at_utc": "2026-07-15T10:41:14Z",
"test_kind": "public-relay-single-node-streaming-smoke-benchmark",
"target": {
"public_chat_endpoint": "https://meshnet.2.d-popov.com/v1/chat/completions",
"relay_url": "wss://meshnet.2.d-popov.com/ws",
"model": "qwen2.5-0.5b-instruct",
"quantization": "bfloat16"
},
"recovery": {
"problem": "The local node's capability proof had expired and its port-7000 HTTP server had wedged with CLOSE-WAIT sockets.",
"action": "Gracefully restarted the local public-tracker meshnet-node process on port 7000.",
"startup_validation": {
"device": "cuda",
"capability_proof_ms": 336,
"node_id": "7j77FsPY-b32476219492",
"relay_addr": "wss://meshnet.2.d-popov.com/rpc/7j77FsPY1evV8tuf-7000"
}
},
"tracker_admission_after_recovery": {
"node_id": "7j77FsPY-b32476219492",
"alive": true,
"status": "ready",
"capability_state": "admitted",
"routable": true,
"route_hops": 1
},
"client_measurements": {
"warmup": {
"http_status": 200,
"ttft_ms": 420.8,
"elapsed_ms": 610.23,
"response_text": "MeshNet Relay Benchmark Passed"
},
"runs": [
{
"run": 1,
"ttft_ms": 376.04,
"elapsed_ms": 458.65,
"response_text": "relay benchmark pass"
},
{
"run": 2,
"ttft_ms": 258.33,
"elapsed_ms": 336.71,
"response_text": "relay benchmark pass"
},
{
"run": 3,
"ttft_ms": 288.26,
"elapsed_ms": 363.2,
"response_text": "relay benchmark pass"
}
],
"p50_ttft_ms": 288.26,
"p50_elapsed_ms": 363.2
},
"tracker_relay_evidence": [
{
"status": 200,
"relay": true,
"node_id": "7j77FsPY-b32476219492",
"tokens": 11,
"elapsed_seconds": 0.1686,
"tokens_per_sec": 65.2541
},
{
"status": 200,
"relay": true,
"node_id": "7j77FsPY-b32476219492",
"tokens": 11,
"elapsed_seconds": 0.1891,
"tokens_per_sec": 58.1799
}
],
"scope_and_remaining_work": {
"validated": "Public HTTPS chat endpoint routed a streaming request through the tracker relay to the local CUDA node and completed with HTTP 200.",
"not_validated": "Two-node shard routing was not run because the remote node 5gMLrmyB-88f5cba044d0 still had an expired capability proof and was not routable.",
"next_gate": "Refresh the remote node capability proof, then load a multi-node-compatible assignment and repeat the benchmark through the public tracker relay."
},
"reproduction": "Use a valid bearer API key with the public /v1/chat/completions endpoint and stream a short qwen2.5-0.5b-instruct request. Do not connect directly to private node HTTP endpoints; the tracker relay is the required path."
}

View File

@@ -0,0 +1,255 @@
{
"generated_by": "DGR-017 meshnet_node.glm_alpha.planner",
"target": {
"gguf_repo_id": "unsloth/GLM-5.2-GGUF",
"gguf_revision": "abc55e72527792c6e77069c99b4cb7de16fa9f23",
"quantization": "UD-IQ1_S",
"total_bytes": 216715360960,
"total_gib": 201.832,
"total_gb": 216.715
},
"manifest_sha256": "0b6aed04479d204902bb64c0203f1a46cab26a47b378ecccf85237b63f6c1962",
"architecture_snapshot_sha256": "253fbd94b06b42acc4724ec2c7f33914e2d4cc43f54a36dff6af19a80ae6ceb1",
"alpha_contract_sha256": "aab23220280c053a3c14ff559df3cb5c9e1bf7f0f7188c6519e2e9d9ad036ed9",
"kv_assumptions": {
"dtype": "Q8_0",
"bytes_per_value": 1.0625,
"context_tokens": 16384,
"concurrency": 1,
"indexer_layout": "conservative",
"mla_values_per_token_per_layer": 576,
"backbone_layers": 78,
"indexer_full_layers": 21,
"note": "Alpha budgets indexer keys across all 78 layers (current experimental DSA layout), not only the 21 Full layers."
},
"kv_table_gib": {
"16384": {
"mla_only_q8_gib": 0.73,
"optimized_dsa_q8_gib": 0.77,
"conservative_dsa_q8_gib": 0.89,
"conservative_dsa_f16_gib": 1.68
},
"131072": {
"mla_only_q8_gib": 5.83,
"optimized_dsa_q8_gib": 6.18,
"conservative_dsa_q8_gib": 7.12,
"conservative_dsa_f16_gib": 13.41
},
"1048576": {
"mla_only_q8_gib": 46.62,
"optimized_dsa_q8_gib": 49.41,
"conservative_dsa_q8_gib": 56.98,
"conservative_dsa_f16_gib": 107.25
}
},
"aggregate_hard_fit_floor_gib": 224.0,
"aggregate_floor_class": "experimental_hard_fit_floor",
"placement_imbalance_factor": 1.1,
"tier_table": {
"32": {
"physical_usable_gib": 32.0,
"reserve_gib": 8.0,
"placement_budget_gib": 24.0,
"weight_gib": 201.832,
"kv_gib": 0.89,
"total_placement_gib": 202.722,
"arithmetic_minimum_nodes": 9,
"recommended_nodes": 10,
"imbalance_factor": 1.1
},
"48": {
"physical_usable_gib": 48.0,
"reserve_gib": 9.6,
"placement_budget_gib": 38.4,
"weight_gib": 201.832,
"kv_gib": 0.89,
"total_placement_gib": 202.722,
"arithmetic_minimum_nodes": 6,
"recommended_nodes": 6,
"imbalance_factor": 1.1
},
"64": {
"physical_usable_gib": 64.0,
"reserve_gib": 12.8,
"placement_budget_gib": 51.2,
"weight_gib": 201.832,
"kv_gib": 0.89,
"total_placement_gib": 202.722,
"arithmetic_minimum_nodes": 4,
"recommended_nodes": 5,
"imbalance_factor": 1.1
},
"96": {
"physical_usable_gib": 96.0,
"reserve_gib": 19.2,
"placement_budget_gib": 76.8,
"weight_gib": 201.832,
"kv_gib": 0.89,
"total_placement_gib": 202.722,
"arithmetic_minimum_nodes": 3,
"recommended_nodes": 3,
"imbalance_factor": 1.1
},
"128": {
"physical_usable_gib": 128.0,
"reserve_gib": 25.6,
"placement_budget_gib": 102.4,
"weight_gib": 201.832,
"kv_gib": 0.89,
"total_placement_gib": 202.722,
"arithmetic_minimum_nodes": 2,
"recommended_nodes": 3,
"imbalance_factor": 1.1
}
},
"routes": {
"recommended_5x64_unified": {
"node_count": 5,
"aggregate_usable_gib": 320.0,
"aggregate_placement_budget_gib": 256.0,
"required_placement_gib": 202.722,
"fits": true,
"meets_hard_fit_floor": true,
"no_single_node_can_admit_target": true,
"headroom_gib": 53.278,
"reasons": []
},
"recommended_3x96_unified": {
"node_count": 3,
"aggregate_usable_gib": 288.0,
"aggregate_placement_budget_gib": 230.4,
"required_placement_gib": 202.722,
"fits": true,
"meets_hard_fit_floor": true,
"no_single_node_can_admit_target": true,
"headroom_gib": 27.678,
"reasons": []
},
"recommended_3x128_unified": {
"node_count": 3,
"aggregate_usable_gib": 384.0,
"aggregate_placement_budget_gib": 307.2,
"required_placement_gib": 202.722,
"fits": true,
"meets_hard_fit_floor": true,
"no_single_node_can_admit_target": true,
"headroom_gib": 104.478,
"reasons": []
},
"fit_probe_2x128_unified": {
"node_count": 2,
"aggregate_usable_gib": 256.0,
"aggregate_placement_budget_gib": 204.8,
"required_placement_gib": 202.722,
"fits": true,
"meets_hard_fit_floor": true,
"no_single_node_can_admit_target": true,
"headroom_gib": 2.078,
"reasons": []
},
"fit_probe_4x64_unified": {
"node_count": 4,
"aggregate_usable_gib": 256.0,
"aggregate_placement_budget_gib": 204.8,
"required_placement_gib": 202.722,
"fits": true,
"meets_hard_fit_floor": true,
"no_single_node_can_admit_target": true,
"headroom_gib": 2.078,
"reasons": []
},
"hard_fit_floor_2x112_unified": {
"node_count": 2,
"aggregate_usable_gib": 224.0,
"aggregate_placement_budget_gib": 179.2,
"required_placement_gib": 202.722,
"fits": false,
"meets_hard_fit_floor": true,
"no_single_node_can_admit_target": true,
"headroom_gib": -23.522,
"reasons": [
"aggregate placement budget 179.2 GiB is below the 202.7 GiB the target needs after each node's reserve"
]
},
"insufficient_3x64_unified": {
"node_count": 3,
"aggregate_usable_gib": 192.0,
"aggregate_placement_budget_gib": 153.6,
"required_placement_gib": 202.722,
"fits": false,
"meets_hard_fit_floor": false,
"no_single_node_can_admit_target": true,
"headroom_gib": -49.122,
"reasons": [
"aggregate placement budget 153.6 GiB is below the 202.7 GiB the target needs after each node's reserve",
"aggregate usable memory 192.0 GiB is below the 224 GiB experimental hard-fit floor"
]
}
},
"seams": {
"3_nodes_2.5gbe": {
"node_count": 3,
"seam_count": 2,
"hidden_size": 6144,
"bytes_per_token_per_seam": 12288,
"prefill_bytes_per_seam": 201326592,
"decode_bytes_per_seam_per_token": 12288,
"dsa_sideband_bytes_per_query": 8192,
"link_rate_gbps": 2.5,
"meets_alpha_minimum": true,
"is_recommended_link": false,
"decode_serialization_ms_per_token": 0.0786,
"decode_latency_ms_per_token": 1.0,
"decode_bandwidth_share_ms_per_token": 0.0786,
"prefill_serialization_ms": 1288.49
},
"3_nodes_10.0gbe": {
"node_count": 3,
"seam_count": 2,
"hidden_size": 6144,
"bytes_per_token_per_seam": 12288,
"prefill_bytes_per_seam": 201326592,
"decode_bytes_per_seam_per_token": 12288,
"dsa_sideband_bytes_per_query": 8192,
"link_rate_gbps": 10.0,
"meets_alpha_minimum": true,
"is_recommended_link": true,
"decode_serialization_ms_per_token": 0.0197,
"decode_latency_ms_per_token": 1.0,
"decode_bandwidth_share_ms_per_token": 0.0197,
"prefill_serialization_ms": 322.123
},
"5_nodes_2.5gbe": {
"node_count": 5,
"seam_count": 4,
"hidden_size": 6144,
"bytes_per_token_per_seam": 12288,
"prefill_bytes_per_seam": 201326592,
"decode_bytes_per_seam_per_token": 12288,
"dsa_sideband_bytes_per_query": 8192,
"link_rate_gbps": 2.5,
"meets_alpha_minimum": true,
"is_recommended_link": false,
"decode_serialization_ms_per_token": 0.1573,
"decode_latency_ms_per_token": 2.0,
"decode_bandwidth_share_ms_per_token": 0.1573,
"prefill_serialization_ms": 2576.98
},
"5_nodes_10.0gbe": {
"node_count": 5,
"seam_count": 4,
"hidden_size": 6144,
"bytes_per_token_per_seam": 12288,
"prefill_bytes_per_seam": 201326592,
"decode_bytes_per_seam_per_token": 12288,
"dsa_sideband_bytes_per_query": 8192,
"link_rate_gbps": 10.0,
"meets_alpha_minimum": true,
"is_recommended_link": true,
"decode_serialization_ms_per_token": 0.0393,
"decode_latency_ms_per_token": 2.0,
"decode_bandwidth_share_ms_per_token": 0.0393,
"prefill_serialization_ms": 644.245
}
}
}

View File

@@ -0,0 +1,89 @@
{
"observed_at": "2026-07-13",
"observed_by": "DGR-017",
"method": "GitHub REST API (api.github.com), read-only; no fork, no clone, no patch adopted",
"refresh_note": "The roadmap's 2026-07-13 observations were re-verified against live upstream. One item changed: PR #24231 is now MERGED (2026-07-11), which the roadmap already anticipated as 'generic CPU lightning-indexer support is merged'.",
"llama_cpp": {
"repo": "ggml-org/llama.cpp",
"items": [
{
"ref": "issue #24730",
"url": "https://github.com/ggml-org/llama.cpp/issues/24730",
"title": "Feature Request: Support for GLM 5.2",
"type": "issue",
"state": "open",
"updated_at": "2026-07-03T22:02:15Z",
"meaning": "The umbrella GLM-5.2 support request is still open. GLM-5.2 is not fully supported upstream."
},
{
"ref": "PR #24770",
"url": "https://github.com/ggml-org/llama.cpp/pull/24770",
"title": "model : glm-dsa load DSA indexer tensors as optional",
"type": "pull_request",
"state": "closed",
"merged_at": "2026-06-20T10:48:24Z",
"meaning": "MERGED. GLM-5.2 loads, but through a dense-MLA compatibility path with DSA indexer tensors treated as optional. This is the fallback the alpha contract explicitly refuses: it can produce text without performing DSA/IndexShare computation."
},
{
"ref": "PR #24231",
"url": "https://github.com/ggml-org/llama.cpp/pull/24231",
"title": "New GGML_OP_LIGHTNING_INDEXER that implements DeepSeek V3.2/V4 lightning indexer",
"type": "pull_request",
"state": "closed",
"merged_at": "2026-07-11T09:39:07Z",
"meaning": "MERGED since the roadmap was written. A generic lightning-indexer op now exists in GGML. Backend coverage beyond CPU remains uneven and must be verified per backend by DGR-018, not assumed."
},
{
"ref": "PR #25407",
"url": "https://github.com/ggml-org/llama.cpp/pull/25407",
"title": "GLM 5.2 Indexer support",
"type": "pull_request",
"state": "open",
"draft": false,
"mergeable_state": "unstable",
"head_sha": "8dedd06415f36f10fc6091241a39b23c1bf0ee11",
"base": "master",
"commits": 6,
"changed_files": 12,
"additions": 414,
"deletions": 7,
"updated_at": "2026-07-13T15:28:51Z",
"meaning": "OPEN and actively moving (updated today). This is the real DSA/IndexShare implementation alpha needs. It is narrow — 12 files, +414/-7 — which is the single most important finding for donor policy: the semantics alpha requires are reviewable and trackable upstream, not a 261-patch fork."
}
]
},
"capability_status_for_alpha": {
"gguf_load_of_UD-IQ1_S": "expected via merged #24770, unverified by this project; DGR-018 must prove it against the exact pinned artifact",
"moe_routing_and_shared_expert": "expected supported; unverified here",
"compressed_mla_kv": "supported via the dense-MLA compatibility path",
"dsa_lightning_indexer": "generic GGML op merged (#24231); GLM-5.2 wiring still open (#25407)",
"indexshare_full_shared_roles": "NOT upstream; only in open PR #25407",
"mtp_nextn": "not required for alpha; NextN tensors must be explicitly loaded or excluded, never silently reinterpreted",
"conclusion": "As of 2026-07-13 no released upstream llama.cpp performs native GLM-5.2 DSA + IndexShare. A stock pin today would satisfy 'it emits text' via the dense fallback and would FAIL the alpha semantic-correctness contract. This is the gating technical risk for DGR-004 and DGR-018."
},
"donor": {
"repo": "Mesh-LLM/mesh-llm",
"url": "https://github.com/Mesh-LLM/mesh-llm",
"license": "Apache-2.0",
"stars_observed": 2048,
"pushed_at": "2026-07-13T06:45:51Z",
"glm_branch": "feat/jianyang-glm-52",
"glm_branch_head": "9bd18f1509dff7fac21578635084035b3ba90a38",
"glm_branch_head_date": "2026-07-12T06:37:43Z",
"policy": "TEST AND PATCH DONOR ONLY. Do not adopt the fork, its scheduler, discovery, routing, public mesh, or package manager. Meshnet remains the sole control plane (RALPH-CONTEXT runtime decision, ADR-0020).",
"focused_candidates": [
"GLM DSA graph semantics",
"lightning indexer and sparse-attention tests",
"IndexShare metadata and Full/Shared role validation",
"top-k sideband shape and lifecycle",
"stage-local KV filtering",
"target parity and performance fixtures"
],
"adoption_state": "none adopted in DGR-017. This story reads and records upstream state; it takes no patch and forks nothing."
},
"recommendation_for_dgr_004_and_dgr_018": [
"Track upstream PR #25407 rather than forking Mesh-LLM. At 12 files and +414/-7 it is small enough to review, reproduce, and carry as a numbered patch in the project's own pinned stack.",
"Any pin chosen before #25407 merges will load GLM-5.2 through the dense-MLA compatibility path. DGR-018 must therefore prove DSA/IndexShare are ACTIVE, not merely that the model emits text — the alpha contract already forbids the fallback.",
"Verify lightning-indexer backend coverage (#24231) on the specific backend the route will use. CPU support being merged says nothing about ROCm/HIP."
]
}

View File

@@ -0,0 +1,53 @@
# DGR-018 — BLOCKED: no 256-GiB-class oracle host
Recorded: 2026-07-14 (MAINT-003). Preflight scripts preserved at commit
`a0f28b5` ("chore: preserve DGR-018 preflight scripts (postponed)").
## Blocker
DGR-018 requires a 256-GiB-class host with at least **224 GiB
runtime-accessible memory** (the DGR-017 experimental hard-fit floor for the
whole-model `UD-IQ1_S` oracle) and **250 GB free storage** on one filesystem
outside `/home` (216.715 GB artifact plus resume/temp headroom). The available
development host fails both gates, so the whole-model oracle cannot be
established. Per the issue's finish contract, no smaller model may be
substituted.
DGR-019 (needs the DGR-018 oracle for parity certification) and DGR-020
(needs DGR-018 and DGR-019, plus enough physical consumer nodes that no single
node admits the whole recipe) are blocked transitively.
## Exact preflight output
Command (offline; resolves everything from the pinned target manifest and
never contacts the network):
```
$ python scripts/glm_whole_model_preflight.py
target: UD-IQ1_S 216.715 GB, 6 shards @ abc55e725277
[FAIL] storage: need >= 250 GB free on one filesystem outside ['/home']; observed no eligible filesystem
[FAIL] memory: need >= 224 GiB runtime-accessible memory (DGR-017 experimental hard-fit floor); observed 124.9 GiB MemTotal
destination: NONE — no filesystem outside ['/home'] has 250 GB free
- /run/media/popov/DATA (ext4): 74.2 GB free
- / (ext4): 51.1 GB free
- /run/media/popov/Windows (fuseblk): 26.0 GB free
- /run/media/popov/d (fuseblk): 5.1 GB free
verdict: fail
$ echo $?
1
```
Host: Linux 7.0.14-101.fc43.x86_64 x86_64, `MemTotal: 130997376 kB`
(124.9 GiB). The full machine-readable report (including the ordered
download/verify plan against revision `abc55e72527792c6e77069c99b4cb7de16fa9f23`,
manifest SHA-256 `0b6aed04479d204902bb64c0203f1a46cab26a47b378ecccf85237b63f6c1962`)
is in [preflight.json](preflight.json).
## How to resume
1. On a qualifying host, run `python scripts/glm_whole_model_preflight.py`
(optionally `--dest DIR`); it must exit 0 with `verdict: pass`.
2. Download shards in the preflight's ordered plan; verify each with
`python scripts/verify_glm_shards.py` before the next transfer starts.
3. Proceed with the DGR-018 issue
(`.scratch/distributed-gguf-runtime/issues/18-certify-whole-model-glm-5-2-runtime-semantics.md`).

View File

@@ -0,0 +1,204 @@
# DGR-018 evidence — canonical Ralph and Gitea metadata schema
**Completed:** 2026-07-16
**Branch:** `ralph/distributed-gguf-runtime`
**Authority:** `.scratch/distributed-gguf-runtime/prd.json`
**Dependency:** DGR-017 (`evidence/DGR-017/README.md`) — cleaned backlog reconciled to `origin/master`; no old pass state transferred.
## Objective
Make `prd.json` the validated source from which Markdown (and, later, Gitea) issues
can be generated losslessly, per
`.scratch/distributed-gguf-runtime/issues/018-define-canonical-ralph-and-gitea-metadata-schema.md`.
## Pre-existing state found (not caused by this story)
Before any change in this session, `git status` showed `.scratch/distributed-gguf-runtime/prd.json`
already modified in the working tree relative to `HEAD` (commit `369b207`), with no corresponding
progress-log entry. Diffing against `HEAD` showed the working copy had **dropped** prd.json's
top-level `sourceOfTruth`, `qualityGates`, `metadataSchema`, `milestones`, and `supersededStories`
objects, while `userStories` itself was byte-identical to `HEAD`. This looked like an abandoned,
uncommitted partial edit from a prior session, not intentional current work — those fields are
exactly the schema/quality-gate/audit-provenance content this story depends on, and their loss
wasn't explained by any acceptance criterion. They were restored (see "Changes" below) rather than
silently accepted or discarded, per the instruction to investigate unexplained working-tree state
before building on top of it.
## Changes
### `scripts/ralph_prd_schema.py` (new)
Single module providing:
- **Parse:** `load_prd(path)` — JSON load with clear `PrdValidationError`s for missing file /
invalid JSON / non-object document.
- **Canonical schema registry:** `STORY_FIELDS` (name → required/type), `EXECUTION_MODES`,
`EVIDENCE_CLASSES`, `HARDWARE_FLAGS`, `UPSTREAM_FLAGS`, `TRIAGE_VALUES`. Covers every field named
in the acceptance criteria: stable `id`/`title`, `labels`, `milestone`, derived `type`
(`derive_type`), `dependsOn`, derived `blocks`, `triage`, `evidenceClass`, and
`hardware`/`model`/`upstream` flags.
- **Structural validation:** `validate_schema(data)` — required fields, types, enum membership,
ID convention, `type:`/`priority:` label cardinality, non-empty `acceptanceCriteria`.
- **Semantic validation:** `validate_semantics(data)` — unique IDs, unique titles, `dependsOn`
resolves to known stories (no self-dependency), dependency graph is acyclic (with a reported
cycle path on failure), `blocks` matches the dependency graph exactly (sorted set equality, not
superset), and `evidencePath` matches the per-story convention.
- **Fresh vs. in-progress backlog:** `validate_fresh_backlog(data)` additionally requires every
story to start `passes: false` (for a backlog that hasn't started execution yet);
`validate_backlog(data)` is the composed check for a real, in-flight backlog where some stories
have legitimately completed.
- **Self-consistency check:** `validate_metadata_schema_consistency(data)` — when prd.json declares
its own `metadataSchema`/`qualityGates` (as this one now does), verifies that self-documentation
hasn't drifted from what the validator actually enforces (enum sets, required/optional field
lists, presence of `qualityGates` and `generatedArtifactDisclaimer`). This is a no-op for minimal
fixture PRDs that don't carry that documentation.
- **Generation (one-directional, prd.json → artifact):** `render_issue_markdown(story, data)`
renders the exact Markdown convention already used by
`.scratch/distributed-gguf-runtime/issues/*.md`, sourcing the "Shared quality gates" bullets from
`data["qualityGates"]` and the leading disclaimer from
`data["metadataSchema"]["generatedArtifactDisclaimer"]` (falling back to a module default only
when `data` omits them) — not from a duplicated Python string literal.
`to_gitea_issue_payload(story, data)` wraps the same body into a Gitea create-issue-shaped payload
(`title`, `body`, `labels`, `milestone`).
- **Authority guard:** `check_generated_markdown_authority(text, disclaimer=...)` rejects generated
Markdown that's missing the disclaimer or that contains a conflicting authority claim (e.g. "this
file is authoritative"). There is deliberately no Markdown → prd.json parser, so a generated
artifact structurally cannot feed `passes` (or anything else) back into the authoritative source.
- CLI: `python scripts/ralph_prd_schema.py validate <prd.json> [--fresh]` and
`... render <prd.json> <STORY-ID>`.
### `.scratch/distributed-gguf-runtime/prd.json`
- Restored the top-level `sourceOfTruth`, `qualityGates`, `milestones`, and `supersededStories`
objects to their `HEAD` content (see "Pre-existing state" above); `userStories` was already
identical to `HEAD` and is unchanged in content.
- Extended `metadataSchema` (previously incomplete for this story's own acceptance criteria) with:
`requiredStoryFields` now also lists `notes` and `blocks` (present on all 55 stories); new
`optionalStoryFields: ["completionNotes"]`; new `hardwareValues`/`upstreamValues` enums (`model`
is documented as an open convention, not a closed enum, since quantization/model targets are
dynamic recipe inputs per `RALPH-CONTEXT.md`); new `typeDerivation` and `labelConventions`
(reserved prefixes, cardinality); new `generatedArtifactDisclaimer` (the exact string generated
artifacts must start with); extended `dependencyRules`/`authorityRule` prose to match what the
validator enforces.
- Reworded `sourceOfTruth`'s stale "All stories are unimplemented ... passes=false" clause, which
was no longer accurate once DGR-017 completed.
- Marked `DGR-018.passes = true` with `completionNotes` recording this story's outcome.
### `.scratch/distributed-gguf-runtime/issues/018-define-canonical-ralph-and-gitea-metadata-schema.md`
Regenerated via `render_issue_markdown` to reflect `passes: true` (checked acceptance criteria,
"completed" status line, "Verified evidence" handoff line) — matching the same convention DGR-017's
issue file already used for a completed story.
### `tests/test_ralph_prd_schema.py` (new)
108 deterministic, model-download-free, GPU-free tests:
- **Parse** (4 tests): real backlog parses to 55 stories; missing file, invalid JSON, and
non-object documents raise `PrdValidationError`.
- **Structural/semantic validation against the real backlog** (7 tests): passes `validate_schema`,
`validate_semantics`, and the composed `validate_backlog`; unique IDs/titles; all `dependsOn`
resolve; `blocks` matches the derived dependency graph for all 55 stories; no cycle; every
`passes: true` story carries `completionNotes` and an existing evidence README (a durable
invariant, not a hardcoded list of which stories have completed — that list will keep growing).
- **Structural/semantic failure-mode fixtures** (13 tests): missing required field, bad enum, wrong
type, empty `acceptanceCriteria`, multiple `type:` labels, duplicate ID, duplicate title, unknown
dependency, self-dependency, dependency cycle, mismatched `blocks`, bad `evidencePath`.
- **Fresh-backlog invariant** (3 tests): accepts all-`false`, rejects a premature `passes: true`,
and confirms `validate_backlog` (the in-progress variant) permits completed stories.
- **prd.json-as-source-of-truth for boilerplate** (9 tests): `qualityGates`/`metadataSchema`
self-consistency checks (no-op without them, catches a drifted enum, catches a missing
`qualityGates`), `quality_gate_bullets` flattening order, `authority_disclaimer` precedence and
fallback, and 3 tests asserting the real backlog's declared schema matches the code, its 7
quality-gate bullets are intact, and its disclaimer matches the module default.
- **`derive_type`** (4 tests): label-derived type, release-gate synthetic type for HITL gate
stories, `None` when absent, and confirmation that the real backlog's two release-gate stories
(`DGR-054`, `DGR-070`) derive `release-gate`.
- **Markdown generation round trips** (55 parametrized + 6 tests): `render_issue_markdown` for
every story `DGR-017`..`DGR-071` is byte-for-byte identical to the corresponding file already in
`.scratch/distributed-gguf-runtime/issues/`; determinism; leading disclaimer; `Blocks (derived)`
rendering (`None` vs. listed); checkbox reflects `passes`; filename convention.
- **Authority-claim rejection** (4 tests): accepts real generated text, rejects a missing
disclaimer, rejects an overriding claim, and confirms every committed issue file in
`.scratch/distributed-gguf-runtime/issues/` passes the check.
- **Gitea payload generation** (3 tests): payload shape, body carries no information beyond what's
in prd.json, and every real story's payload is well-formed and authority-clean.
## Commands and results
```bash
python3 -m pytest -q tests/test_ralph_prd_schema.py
```
```text
108 passed in 0.16s
```
```bash
python3 -m compileall -q packages tests
```
Exit code 0, no output (all files compile).
```bash
git diff --check
```
Exit code 0 (no whitespace errors).
```bash
python3 scripts/ralph_prd_schema.py validate .scratch/distributed-gguf-runtime/prd.json
```
```text
OK: 55 stories validated.
```
```bash
python3 scripts/ralph_prd_schema.py validate .scratch/distributed-gguf-runtime/prd.json --fresh
```
```text
ERROR: DGR-017: fresh backlog requires passes=false, got True
ERROR: DGR-018: fresh backlog requires passes=false, got True
2 validation error(s).
```
Expected: `--fresh` is the invariant for a backlog that hasn't started execution; this backlog has
legitimately completed two stories, so it correctly fails that stricter check while passing the
plain (in-progress) `validate` command above.
### Baseline: full repository suite (ad hoc `python3`, not a project venv)
```bash
python3 -m pytest -q
```
```text
20 failed, 776 passed, 13 skipped, 2 warnings in 244.17s (0:04:04)
```
None of the failures touch `scripts/ralph_prd_schema.py` or `tests/test_ralph_prd_schema.py`
(neither file existed before this story; this story adds no changes to `packages/`). Four of the
20 failures reproduce exactly the pre-existing baseline defects DGR-017's evidence already recorded
(`test_tracker_models_endpoint_lists_registered_hf_repo_and_short_name_alias`,
`test_torch_node_applies_tracker_load_shard_directive`,
`test_shard_heal_cycle_surviving_node_covers_dead_peers_gap`,
`test_a_node_with_an_unusable_precision_covers_no_layers`). The remaining 16 (activation
compression, dynamic routing, gossip/relay, manual route benchmark, openai gateway, TOPLoC
calibration dispatch, tracker control plane) include a `ModuleNotFoundError: langchain` failure,
indicating this ad hoc `python3` lacks the project's `dev` extras (`langchain-openai`, etc.) rather
than a real regression; this environment has no project virtualenv (e.g. no `.venv-rocm`) to run
against instead. Not investigated further as out of scope for this story.
## Limitations
- No real Gitea instance or API integration exists; `to_gitea_issue_payload` defines the payload
shape (title/body/labels/milestone) only. Creating issues against a live Gitea server is future
work, not claimed here.
- `model` is intentionally validated as an open string, not a closed enum, per
`RALPH-CONTEXT.md`'s "Quantization and placement are dynamic recipe inputs" constraint; the schema
documents (`metadataSchema.modelConvention`) but does not restrict its value set.
- Validation and generation were exercised only against this feature's `prd.json`
(`.scratch/distributed-gguf-runtime/prd.json`); `docs/prd.json` and other `.scratch/*/prd.json`
files in this repo use a materially different (simpler) shape and are out of scope.
## Dependency handoff
DGR-021 and DGR-025 (this story's derived `blocks`) may treat `prd.json`'s `metadataSchema`,
`qualityGates`, and this validator/generator as stable. Any future field addition to a story shape
must extend `STORY_FIELDS` in `scripts/ralph_prd_schema.py` and the corresponding
`metadataSchema.requiredStoryFields`/`optionalStoryFields` in `prd.json` together —
`validate_metadata_schema_consistency` fails closed if they drift apart.

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