Model-Assisted Causal Inference for the Treatment Effect on Recurrent Events in the Presence of Terminal Events
Yiyuan Huang, Ling Zhou, Min Zhang, Peter X.K. Song

TL;DR
This paper introduces PR-MSMaT, a new causal inference method for recurrent events with terminal events, addressing limitations of existing tests under time-varying event rates, and demonstrates its effectiveness through simulations and real data analysis.
Contribution
The paper develops PR-MSMaT, a novel test that accurately controls error rates and maintains power for recurrent event analysis with terminal events, even with non-constant event rates.
Findings
PR-MSMaT controls type I error effectively.
PR-MSMaT has comparable power to WA test under varying rates.
Application to clinical data compares MCS devices' risks.
Abstract
This paper is motivated by evaluating the benefits of patients receiving mechanical circulatory support (MCS) devices in end-stage heart failure management inference, in which hypothesis testing for a treatment effect on the risk of recurrent events is challenged in the presence of terminal events. Existing methods based on cumulative frequency unreasonably disadvantage longer survivors as they tend to experience more recurrent events. The While-Alive-based (WA) test has provided a solution to address this survival-length-bias problem, and it performs well when the recurrent event rate holds constant over time. However, if such a constant-rate assumption is violated, the WA test can exhibit an inflated type I error and inaccurate estimation of treatment effects. To fill this methodological gap, we propose a Proportional Rate Marginal Structural Model-assisted Test (PR-MSMaT) in the…
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Taxonomy
TopicsMechanical Circulatory Support Devices · Sepsis Diagnosis and Treatment · Advanced Causal Inference Techniques
