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AI 根据所提供的论文材料归类:摘要主要研究动态控制的优化算法,虽涉及时间序列决策,但未明确对应所列计量估计或预测方向。

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关注这篇论文的作者
Yuyang Chen
Kaiming Bi
Chih-Hang J. Wu
David Ben-Arieh
Ashesh Sinha

结合循环神经网络的高维贝叶斯优化:疾病控制模型应用

研究问题
对于求值昂贵的高维动态控制问题,能否利用低维优化和历史最优解学习,快速预测不同初始状态下的疾病控制策略?
方法与思路
作者结合贝叶斯优化与循环神经网络,先求解低维控制问题,再学习历史最优解,并在确定性 SEIR 和随机 SIS 模型中实验。
材料陈述的贡献
摘要提出 RNN–BO 算法,并通过疾病控制计算实验考察其有效性,以及网络层数和训练轮数对解质量与计算成本的影响。
阅读关注点
应核对低维问题与原问题的联系、历史解的生成和训练划分,以及新初始状态下的可行性、最优性差距和计算成本。
阅读边界
这是 arXiv 预印本,同行评审及接收未核实;摘要未给出全局最优保证、误差界或实验数值,预测策略的有效范围尚不清楚。

原文摘要

Bayesian Optimization algorithm has become a promising approach for nonlinear global optimization problems and many machine learning applications. Over the past few years, improvements and enhancements have been brought forward and they have shown some promising results in solving the complex dynamic problems, systems of ordinary differential equations where the objective functions are computationally expensive to evaluate. Besides, the straightforward implementation of the Bayesian Optimization algorithm performs well merely for optimization problems with 10-20 dimensions. The study presented in this paper proposes a new high dimensional Bayesian Optimization algorithm combining Recurrent neural networks, which is expected to predict the optimal solution for the global optimization problems with high dimensional or time series decision models. The proposed RNN-BO algorithm can solve the optimal control problems in the lower dimension space and then learn from the historical data using the recurrent neural network to learn the historical optimal solution data and predict the optimal control strategy for any new initial system value setting. In addition, accurately and quickly providing the optimal control strategy is essential to effectively and efficiently control the epidemic spread while minimizing the associated financial costs. Therefore, to verify the effectiveness of the proposed algorithm, computational experiments are carried out on a deterministic SEIR epidemic model and a stochastic SIS optimal control model. Finally, we also discuss the impacts of different numbers of the RNN layers and training epochs on the trade-off between solution quality and related computational efforts.

笔记与分组