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Meta-Learners for Estimation of Causal Effects: Finite Sample Cross-Fit Performance

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arxiv 2201.12692 v1 pith:LWWTSTD4 submitted 2022-01-30 econ.EM stat.ML

classification econ.EMstat.ML
keywords estimationmeta-learnerseffectsfiniteperformancesamplesamplesbias
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Estimation of causal effects using machine learning methods has become an active research field in econometrics. In this paper, we study the finite sample performance of meta-learners for estimation of heterogeneous treatment effects under the usage of sample-splitting and cross-fitting to reduce the overfitting bias. In both synthetic and semi-synthetic simulations we find that the performance of the meta-learners in finite samples greatly depends on the estimation procedure. The results imply that sample-splitting and cross-fitting are beneficial in large samples for bias reduction and efficiency of the meta-learners, respectively, whereas full-sample estimation is preferable in small samples. Furthermore, we derive practical recommendations for application of specific meta-learners in empirical studies depending on particular data characteristics such as treatment shares and sample size.

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  1. From Observational Data to Clinical Recommendations: A Causal Framework for Estimating Patient-level Treatment Effects and Learning Policies

    stat.ML 2025-07 conditional novelty 5.0 of 10

    A causal framework for learning treatment policies with deferral, applied to diuretic dosing in acute heart failure with kidney injury.

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