How and Why to Use Experimental Data to Evaluate Methods for Observational Causal Inference
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Abstract (arXiv)
Methods that infer causal dependence from observational data are central to many areas of science, including medicine, economics, and the social sciences. A variety of theoretical properties of these methods have been proven, but empirical evaluation remains a challenge, largely due to the lack of observational data sets for which treatment effect is known. We describe and analyze observational sampling from randomized controlled trials (OSRCT), a method for evaluating causal inference methods using data from randomized controlled trials (RCTs). This method can be used to create constructed observational data sets with corresponding unbiased estimates of treatment effect, substantially increasing the number of data sets available for empirical evaluation of causal inference methods. We show that, in expectation, OSRCT creates data sets that are equivalent to those produced by randomly sampling from empirical data sets in which all potential outcomes are available. We then perform a large-scale evaluation of seven causal inference methods over 37 data sets, drawn from RCTs, as well as simulators, real-world computational systems, and observational data sets augmented with a synthetic response variable. We find notable performance differences when comparing across data from different sources, demonstrating the importance of using data from a variety of sources when evaluating any causal inference method.
Key facts. Cited by 13 papers in the map (data through 7 Oct 2026). First posted on arXiv 6 Oct 2020.
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Citing papers per year: 2021: 1; 2022: 3; 2023: 4; 2024: 2; 2025: 3.
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- 2022Stochastic Causal Programming for Bounding Treatment Effectscited by 25
- 2022Evaluation Methods and Measures for Causal Learning Algorithmscited by 23
- 2022Validating Causal Inference Methodscited by 20
- 2023Hidden yet quantifiable: A lower bound for confounding strength using randomized trialscited by 8
- 2023Intervention Generalization: A View from Factor Graph Modelscited by 7
- 2023RCT Rejection Sampling for Causal Estimation Evaluationcited by 7
- 2025Position: Causal Machine Learning Requires Rigorous Synthetic Experiments for Broader Adoptioncited by 6
- 2024Language Models as Causal Effect Generatorscited by 4
- 2023SpaCE: The Spatial Confounding Environmentcited by 3
- 2021ADCB: An Alzheimer's disease benchmark for evaluating observational estimators of causal effectscited by 0
- 2024Compositional Models for Estimating Causal Effectscited by 0
- 2025A Computational Theory for Efficient Mini Agent Evaluation with Causal Guaranteescited by 0
- 2025Improving Generative Methods for Causal Evaluation via Simulation-Based Inference2 Sep 2025
- 2025Position: Causal Machine Learning Requires Rigorous Synthetic Experiments for Broader Adoption12 Aug 2025
- 2025A Computational Theory for Efficient Mini Agent Evaluation with Causal Guarantees27 Mar 2025
- 2024Language Models as Causal Effect Generators12 Nov 2024
- 2024Compositional Models for Estimating Causal Effects25 Jun 2024
- 2023Hidden yet quantifiable: A lower bound for confounding strength using randomized trials6 Dec 2023
- 2023SpaCE: The Spatial Confounding Environment1 Dec 2023
- 2023RCT Rejection Sampling for Causal Estimation Evaluation27 Jul 2023
- 2023Intervention Generalization: A View from Factor Graph Models6 Jun 2023
- 2022Stochastic Causal Programming for Bounding Treatment Effects22 Feb 2022
- 2022Validating Causal Inference Methods9 Feb 2022
- 2022Evaluation Methods and Measures for Causal Learning Algorithms7 Feb 2022
- 2022Stochastic Causal Programming for Bounding Treatment Effectscited by 25
- 2022Evaluation Methods and Measures for Causal Learning Algorithmscited by 23
- 2022Validating Causal Inference Methodscited by 20
- 2023Hidden yet quantifiable: A lower bound for confounding strength using randomized trialscited by 8
- 2023Intervention Generalization: A View from Factor Graph Modelscited by 7
- 2023RCT Rejection Sampling for Causal Estimation Evaluationcited by 7
- 2025Position: Causal Machine Learning Requires Rigorous Synthetic Experiments for Broader Adoptioncited by 6
- 2024Language Models as Causal Effect Generatorscited by 4
- 2023SpaCE: The Spatial Confounding Environmentcited by 3
- 2021ADCB: An Alzheimer's disease benchmark for evaluating observational estimators of causal effectscited by 0
- 2024Compositional Models for Estimating Causal Effectscited by 0
- 2025A Computational Theory for Efficient Mini Agent Evaluation with Causal Guaranteescited by 0
12 most cited of 13 All 13 (JSON)
- 2025Improving Generative Methods for Causal Evaluation via Simulation-Based Inference2 Sep 2025
- 2025Position: Causal Machine Learning Requires Rigorous Synthetic Experiments for Broader Adoption12 Aug 2025
- 2025A Computational Theory for Efficient Mini Agent Evaluation with Causal Guarantees27 Mar 2025
- 2024Language Models as Causal Effect Generators12 Nov 2024
- 2024Compositional Models for Estimating Causal Effects25 Jun 2024
- 2023Hidden yet quantifiable: A lower bound for confounding strength using randomized trials6 Dec 2023
- 2023SpaCE: The Spatial Confounding Environment1 Dec 2023
- 2023RCT Rejection Sampling for Causal Estimation Evaluation27 Jul 2023
- 2023Intervention Generalization: A View from Factor Graph Models6 Jun 2023
- 2022Stochastic Causal Programming for Bounding Treatment Effects22 Feb 2022
- 2022Validating Causal Inference Methods9 Feb 2022
- 2022Evaluation Methods and Measures for Causal Learning Algorithms7 Feb 2022
12 newest of 13 All 13 (JSON)