# Training Effectiveness Fixes ## Issues Identified From the logs, we found several critical issues preventing effective training: ### 1. **Batch Corruption Across Epochs** ❌ **Problem**: Only epoch 1 trains successfully, epochs 2-10 all show 0.0 loss ``` Epoch 1/10, Loss: 1.688709, Accuracy: 0.00% (1 batches) ✅ Training works Epoch 2/10, Loss: 0.000000, Accuracy: 0.00% (1 batches) ❌ No training Epoch 3/10, Loss: 0.000000, Accuracy: 0.00% (1 batches) ❌ No training ... WARNING - No timeframe data available for transformer forward pass WARNING - No 'actions' key in batch - skipping this training step ``` **Root Cause**: - Batches were being reused across epochs without copying - `train_step()` was modifying the batch dict in-place - By epoch 2, the batch tensors were corrupted/missing **Fix Applied**: 1. **Batch Generator**: Create shallow copy of batch dict for each yield ```python # Before: yield batch (same object reused) # After: yield {k: v for k, v in batch.items()} (new dict each time) ``` 2. **Train Step**: Always create new `batch_on_device` dict instead of modifying input ```python # Before: batch = batch_gpu (modifies input) # After: batch_on_device = {...} (new dict, preserves input) ``` ### 2. **Remaining Inplace Errors** ⚠️ **Problem**: Still seeing occasional inplace operation errors (but recovering) ``` ERROR - Inplace operation error: [torch.FloatTensor [128, 3]] version 4; expected version 2 ERROR - Inplace operation error: [torch.FloatTensor [256, 256]] version 6; expected version 4 ``` **Root Cause**: - `trend_target` tensor `[128, 3]` suggests batching is creating shared tensors - Weight matrices `[256, 256]` being modified during backward pass **Current Status**: - Errors are caught and training continues (returns 0.0 loss for that step) - Not crashing, but losing training opportunities **Potential Additional Fixes** (if issues persist): 1. Ensure trend_target is detached after creation 2. Add `.detach()` to intermediate tensors before loss calculation 3. Use `torch.no_grad()` for any non-training operations ### 3. **Zero GPU Utilization** 🔧 **Problem**: GPU shows 0.0% utilization and 0.00GB memory ``` GPU: AMD Radeon 8060S, Util: 0.0%, Mem: 0.00GB/46.97GB ``` **Possible Causes**: 1. **ROCm/AMD GPU monitoring issue**: The monitoring tool might not support AMD GPUs properly 2. **Computation too fast**: Single-sample batches complete before monitoring can measure 3. **CPU fallback**: Model might be running on CPU despite GPU being available **Recommendations**: 1. Check if model is actually on GPU: `next(model.parameters()).device` 2. Increase batch size for longer GPU operations 3. Use AMD-specific monitoring tools (rocm-smi) instead of nvidia-smi based tools ### 4. **Single Sample Batches** 📊 **Problem**: Training with only 1 sample per batch ``` Total samples: 1 Ready to train on 1 batches ``` **Impact**: - Poor GPU utilization (GPUs are optimized for parallel processing) - Noisy gradients (no batch averaging) - Slower training convergence **Recommendations**: 1. Accumulate more training samples before starting training 2. Use gradient accumulation to simulate larger batches 3. Collect multiple pivot points before triggering training ## Files Modified 1. **ANNOTATE/core/real_training_adapter.py** - Line 2527-2538: Batch generator now creates shallow copies 2. **NN/models/advanced_transformer_trading.py** - Lines 1350-1390: Train step creates new batch_on_device dict ## Expected Improvements After these fixes: ✅ **All epochs should train**: Epochs 2-10 will have real loss values, not 0.0 ✅ **Consistent training**: No more "No timeframe data" warnings after epoch 1 ✅ **Better convergence**: Loss should decrease across epochs ✅ **Fewer inplace errors**: Batch corruption was causing many of these ## Testing Checklist Run realtime training and verify: - [ ] Epoch 1 trains successfully (already working) - [ ] Epoch 2 shows non-zero loss (should be fixed now) - [ ] Epochs 3-10 all train with real loss values - [ ] No "No timeframe data" warnings after epoch 1 - [ ] Loss decreases over epochs (model is learning) - [ ] Accuracy increases over epochs - [ ] Fewer inplace operation errors ## Additional Recommendations ### Short Term: 1. **Increase training samples**: Collect 10-20 pivot points before training 2. **Batch size**: Group samples into batches of 8-16 for better GPU utilization 3. **Learning rate**: May need adjustment if training is too slow/fast ### Medium Term: 1. **Data augmentation**: Generate more training samples from each pivot 2. **Validation set**: Split data to monitor overfitting 3. **Early stopping**: Stop training when validation loss stops improving ### Long Term: 1. **Distributed training**: Use multiple GPUs if available 2. **Mixed precision**: Already enabled, but verify it's working 3. **Model pruning**: Remove unused parameters to speed up training