
Developed a dynamic learning rate adjustment system for the MonashDeepNeuron/Neural-Cellular-Automata repository, enabling adaptive modification of training learning rates based on historical loss trends. The solution introduced a modular learning_rate_adjuster and a dedicated training script, train_lra.py, both implemented in Python and leveraging PyTorch for model training. The core logic aggregated loss values and filtered outliers to inform learning rate updates, with groundwork laid for future enhancements such as turbulence bias. This approach supports more efficient and reproducible deep learning experiments by automating hyperparameter tuning, and demonstrates proficiency in data analysis, machine learning, and Python scripting within research codebases.
Month 2024-11: Delivered Dynamic Learning Rate Adjustment System for Neural-Cellular-Automata. Implemented train_lra.py and a learning_rate_adjuster module to modify the training learning rate based on historical loss values. Updated training scripts to use the adjuster. Core logic includes loss aggregation and outlier filtering; turbulence bias introduced but not fully implemented. This work provides a repeatable mechanism for LR tuning across experiments, enabling more efficient training and reproducibility. All changes are contained within MonashDeepNeuron/Neural-Cellular-Automata.
Month 2024-11: Delivered Dynamic Learning Rate Adjustment System for Neural-Cellular-Automata. Implemented train_lra.py and a learning_rate_adjuster module to modify the training learning rate based on historical loss values. Updated training scripts to use the adjuster. Core logic includes loss aggregation and outlier filtering; turbulence bias introduced but not fully implemented. This work provides a repeatable mechanism for LR tuning across experiments, enabling more efficient training and reproducibility. All changes are contained within MonashDeepNeuron/Neural-Cellular-Automata.

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