{ "Summary": "The paper proposes a Q-learning based approach to dynamically adjust the learning rate during transformer model training. By utilizing reinforcement learning, the method aims to enhance training efficiency and model performance. Experiments conducted on multiple datasets (shakespeare_char, enwik8, and text8) demonstrate that the proposed approach can lead to faster convergence and better final performance compared to traditional learning rate schedules.", "Strengths": [ "Addresses a pertinent problem in transformer training with a novel application of Q-learning.", "Shows promising experimental results across multiple datasets.", "Provides a detailed analysis of the training dynamics and the impact of the RL agent\u2019s decisions." ], "Weaknesses": [ "Marginal improvements in validation loss compared to baselines.", "Lacks thorough comparison with other adaptive learning rate methods like Adam or RMSprop.", "Method's performance is sensitive to hyperparameters.", "Increased training time due to the overhead of the Q-learning agent.", "Insufficient discussion on limitations and potential negative societal impacts." ], "Originality": 3, "Quality": 3, "Clarity": 3, "Significance": 2, "Questions": [ "How does the proposed method compare with other widely-used adaptive learning rate methods such as Adam or RMSprop?", "Can the authors provide more insights into the sensitivity of the method to hyperparameters?", "What are the potential negative societal impacts of this approach?", "How does the increased training time due to the Q-learning agent affect the overall efficiency of the training process?", "Can the authors provide more detailed ablation studies to understand the impact of different components of the Q-learning method?" ], "Limitations": [ "The performance of the method is sensitive to hyperparameters.", "The increased training time due to the Q-learning agent may not be practical for all applications.", "The method may not generalize well to other types of neural network architectures without further tuning.", "Potential negative societal impacts include increased computational resources and energy consumption." ], "Ethical Concerns": false, "Soundness": 2, "Presentation": 3, "Contribution": 2, "Overall": 4, "Confidence": 4, "Decision": "Reject" }