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AI 根据所提供的论文材料归类:摘要明确研究双重稳健因果推断、标准化平均处理效应与分位数处理效应,直接支持因果和分布效应分类。

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Causal Inference for Genomic Data with Multiple Heterogeneous Outcomes

多重异质结果下基因组数据的因果推断

正在核对关联版本…

代码、数据与补充材料

正在核对对应版本的资源…

关注这篇论文的作者
Jin-Hong Du
Zhenghao Zeng
Edward H. Kennedy
Larry Wasserman
Kathryn Roeder

多重异质结果下基因组数据的因果推断

研究问题
个体基因表达只能由细胞层面的重复代理测量估计时,如何对多个异质结果进行因果推断并控制多重检验错误?
方法与思路
作者为多个派生结果建立双重稳健半参数推断框架,分析标准化平均及分位数处理效应,并设计高斯乘子自助检验。
材料陈述的贡献
摘要称框架涵盖结果直接可观测的情形,连接两类双重稳健估计推导,并以多重检验控制错误发现超越率及展示基因应用。
阅读关注点
应核对代理测量误差如何进入推断、因果识别及双重稳健条件,并确认标准化效应定义和错误发现超越率的控制条件。
阅读边界
依据 arXiv 2404.09119v4 预印本摘要,不能据此声称已同行评审或期刊接收,也不能推断刊本变化;具体识别条件与数值结果未提供。

原文摘要

With the evolution of single-cell RNA sequencing techniques into a standard approach in genomics, it has become possible to conduct cohort-level causal inferences based on single-cell-level measurements. However, the individual gene expression levels of interest are not directly observable; instead, only repeated proxy measurements from each individual's cells are available, providing a derived outcome to estimate the underlying outcome for each of many genes. In this paper, we propose a generic semiparametric inference framework for doubly robust estimation with multiple derived outcomes, which also encompasses the usual setting of multiple outcomes when the response of each unit is available. To reliably quantify the causal effects of heterogeneous outcomes, we specialize the analysis to standardized average treatment effects and quantile treatment effects. Through this, we demonstrate the use of the semiparametric inferential results for doubly robust estimators derived from both Von Mises expansions and estimating equations. A multiple testing procedure based on Gaussian multiplier bootstrap is tailored for doubly robust estimators to control the false discovery exceedance rate. Applications in single-cell CRISPR perturbation analysis and individual-level differential expression analysis demonstrate the utility of the proposed methods and offer insights into the usage of different estimands for causal inference in genomics.

笔记与分组