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@@ -48,7 +48,7 @@ Despite lacking global error gradients and relying on raw un-smoothed SGD, the m
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  ## Notes for the future
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  Accuracy of 74% achieved after 50 epochs; training loss still descending, suggesting higher accuracy is achievable with further training
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- Future work: larger model, bigger batch sizes, or both — all feasible on consumer-grade hardware given the minimal VRAM footprint. (100-200mb during Training On T4 GPU hardware)
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  ## Conclusion & The "Efficient-Hardware" Theory
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  This experiment successfully proves that a deep neural network can learn at scale (1.3M parameters) without ever constructing a massive, memory-hogging backpropagation graph.
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  By relying on local Goodness evaluation and Predictive Coding errors, this architecture theoretically slashes the VRAM requirements of large-scale AI training, posing an experimental alternative to the hardware-heavy standard backpropagation paradigm.
 
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  ## Notes for the future
50
  Accuracy of 74% achieved after 50 epochs; training loss still descending, suggesting higher accuracy is achievable with further training
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+ Future work: larger model, bigger batch sizes, or both — all feasible on consumer-grade hardware given the minimal VRAM footprint.
52
  ## Conclusion & The "Efficient-Hardware" Theory
53
  This experiment successfully proves that a deep neural network can learn at scale (1.3M parameters) without ever constructing a massive, memory-hogging backpropagation graph.
54
  By relying on local Goodness evaluation and Predictive Coding errors, this architecture theoretically slashes the VRAM requirements of large-scale AI training, posing an experimental alternative to the hardware-heavy standard backpropagation paradigm.