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[ |
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{ |
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"Name": "adaptive_block_size", |
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"Title": "Adaptive Block Size: Dynamic Context Window Adjustment for Efficient Training", |
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"Experiment": "Modify the model to dynamically adjust its block size during training, starting with a smaller block size and gradually increasing it. This could potentially lead to faster initial training and better long-range dependency learning.", |
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"Interestingness": 6, |
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"Feasibility": 4, |
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"Novelty": 4, |
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"novel": false |
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}, |
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{ |
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"Name": "layerwise_learning_rates", |
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"Title": "Layer-wise Learning Rate Adaptation: Optimizing Training Dynamics in Transformer Models", |
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"Experiment": "Implement layer-wise learning rates, where each transformer layer has its own learning rate. Modify the configure_optimizers function to assign different learning rates to different layers, with deeper layers having lower learning rates. Compare the training dynamics, convergence speed, and final performance with the baseline model.", |
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"Interestingness": 4, |
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"Feasibility": 6, |
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"Novelty": 2, |
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"novel": true |
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}, |
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{ |
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"Name": "comprehensive_initialization", |
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"Title": "Comprehensive Study of Initialization Schemes for Transformer Models: Impact on Training Dynamics, Performance, Interpretability, and Robustness", |
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"Experiment": [ |
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"Modify the model initialization function to include options for normal, uniform, Xavier initialization with varying gain parameters.", |
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"Train models using each scheme while varying learning rate schedules, optimizers, architectures, tasks, and datasets.", |
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"Compare training dynamics, performance, learned weights/attention patterns, and robustness across different initialization schemes.", |
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"Visualize and analyze results to provide practical guidelines for choosing appropriate initialization schemes." |
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], |
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"Interestingness": 9, |
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"Feasibility": 7, |
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"Novelty": 8, |
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"novel": false |
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}, |
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{ |
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"Name": "refined_augmented_preprocessing", |
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"Title": "Interpreting the Impact of Alternative Preprocessing Techniques and Data Augmentation on Transformer Model Performance", |
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"Experiment": [ |
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"Extend previous experiment to include interpretability analysis alongside attention patterns using techniques like LIME, SHAP, or integrated gradients.", |
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"Conduct a comprehensive ablation study to quantify the individual contributions of preprocessing methods and data augmentation strategies.", |
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"Publicly release detailed implementation notes, data processing scripts, and well-commented code for reproducibility and further research." |
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], |
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"Interestingness": 9, |
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"Feasibility": 8, |
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"Novelty": 7, |
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"novel": true |
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} |
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] |