用强化学习自动构建中微子味混合理论模型
Towards AI-assisted Neutrino Flavor Theory Design
- 强化学习智能体与物理软件联动,自动搜寻对称性与粒子组态
- 在未探索的对称群中发现新可行模型,自由参数更少
- 适用于理论物理建模,尤其适合中微子研究者
粒子物理理论,如解释中微子味混合的理论,源于庞大的模型构建空间。传统构建依赖物理学家直觉,需耗费大量精力确定对称群、场表示并提取可实验检验的预测。我们提出自主模型构建框架AMBer,其中强化学习代理与简化版物理软件流水线交互,高效搜索理论空间。AMBer自动选择对称群、粒子内容及群表示,构造可行模型的同时最小化自由参数数量。我们在已深入研究的理论区域验证该方法,并拓展至此前未被探索的新对称群。尽管以中微子味理论为应用背景,该强化学习结合物理反馈的方法未来可推广至其他理论建模问题。
原文摘要 · Abstract (English)
Particle physics theories, such as those which explain neutrino flavor mixing, arise from a vast landscape of model-building possibilities. A model's construction typically relies on the intuition of theorists. It also requires considerable effort to identify appropriate symmetry groups, assign field representations, and extract predictions for comparison with experimental data. We develop an Autonomous Model Builder (AMBer), a framework in which a reinforcement learning agent interacts with a streamlined physics software pipeline to search these spaces efficiently. AMBer selects symmetry groups, particle content, and group representation assignments to construct viable models while minimizing the number of free parameters introduced. We validate our approach in well-studied regions of theory space and extend the exploration to a novel, previously unexamined symmetry group. While demonstrated in the context of neutrino flavor theories, this approach of reinforcement learning with physics software feedback may be extended to other theoretical model-building problems in the future.
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