DeepTTV:根据凌日时间变化对隐藏系外行星进行深度学习预测

Chen Chen, Lingkai Kong, Gongjie Li, Molei Tao
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引用次数: 0

摘要

凌日时间变化(TTV)提供了有关系外行星质量和轨道特性的丰富信息,而这些信息通常是通过马尔可夫链蒙特卡罗(MCMC)求解逆问题得到的。在本文中,我们设计了一种新的数据驱动方法,它有可能应用于传统 MCMC 方法难以解决的问题,例如只有一颗行星过境的情况。具体来说,我们使用深度学习方法,以过境信息(即 TTV 和 Transit Duration Variation (TDV))为输入,预测单一过境系统的非过境伴星参数。由于新构建的基于文本{转换器}的架构可以从TTV序列数据中提取长程相互作用,这个以前很难完成的任务现在可以高精度地完成,在质量和偏心率上的总体误差为$\sim$2\%。
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DeepTTV: Deep Learning Prediction of Hidden Exoplanet From Transit Timing Variations
Transit timing variation (TTV) provides rich information about the mass and orbital properties of exoplanets, which are often obtained by solving an inverse problem via Markov Chain Monte Carlo (MCMC). In this paper, we design a new data-driven approach, which potentially can be applied to problems that are hard to traditional MCMC methods, such as the case with only one planet transiting. Specifically, we use a deep learning approach to predict the parameters of non-transit companion for the single transit system with transit information (i.e., TTV, and Transit Duration Variation (TDV)) as input. Thanks to a newly constructed \textit{Transformer}-based architecture that can extract long-range interactions from TTV sequential data, this previously difficult task can now be accomplished with high accuracy, with an overall fractional error of $\sim$2\% on mass and eccentricity.
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