皮尔逊贝叶斯因子:从最小汇总统计中计算证据值的解析公式

Thomas J. Faulkenberry
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引用次数: 5

摘要

在贝叶斯假设检验中,统计模型的证据由贝叶斯因子量化,贝叶斯因子表示在该模型下观察到的数据与另一个竞争模型相比的相对可能性。一般来说,计算贝叶斯因子是困难的,因为计算给定模型下数据的边际似然需要对模型参数的先验分布进行积分。在本文中,我利用了先验分布的一个特殊选择,它允许贝叶斯因子在没有积分表示的情况下表示,并且我开发了一个简单的公式-皮尔逊贝叶斯因子-它只需要像科学论文中通常报道的最小汇总统计数据,例如t或F分数和自由度。除了介绍这个新结果之外,我还提供了几个使用它的示例,并报告了一个验证其性能的仿真研究。重要的是,皮尔逊贝叶斯因子使应用研究人员能够从最小的汇总数据中计算精确的贝叶斯因子,从而轻松评估提供这些汇总统计的任何数据的证据价值,即使原始数据不可用。
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The Pearson Bayes factor: An analytic formula for computing evidential value from minimal summary statistics
Summary In Bayesian hypothesis testing, evidence for a statistical model is quantified by the Bayes factor, which represents the relative likelihood of observed data under that model compared to another competing model. In general, computing Bayes factors is difficult, as computing the marginal likelihood of data under a given model requires integrating over a prior distribution of model parameters. In this paper, I capitalize on a particular choice of prior distribution that allows the Bayes factor to be expressed without integral representation, and I develop a simple formula – the Pearson Bayes factor – that requires only minimal summary statistics as commonly reported in scientific papers, such as the t or F score and the degrees of freedom. In addition to presenting this new result, I provide several examples of its use and report a simulation study validating its performance. Importantly, the Pearson Bayes factor gives applied researchers the ability to compute exact Bayes factors from minimal summary data, and thus easily assess the evidential value of any data for which these summary statistics are provided, even when the original data is not available.
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