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Does Misclassifying Non-confounding Covariates as Confounders Affect the Causal Inference within the Potential Outcomes Framework?

arXiv 2308.11676 ↗First posted 22 Aug 2023stat.ME cs.AI cs.LGcited by 0

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Abstract (arXiv)

The Potential Outcome Framework (POF) plays a prominent role in the field of causal inference. Most causal inference models based on the POF (CIMs-POF) are designed for eliminating confounding bias and default to an underlying assumption of Confounding Covariates. This assumption posits that the covariates consist solely of confounders. However, the assumption of Confounding Covariates is challenging to maintain in practice, particularly when dealing with high-dimensional covariates. While certain methods have been proposed to differentiate the distinct components of covariates prior to conducting causal inference, the consequences of treating non-confounding covariates as confounders remain unclear. This ambiguity poses a potential risk when conducting causal inference in practical scenarios. In this paper, we present a unified graphical framework for the CIMs-POF, which greatly enhances the comprehension of these models' underlying principles. Using this graphical framework, we quantitatively analyze the extent to which the inference performance of CIMs-POF is influenced when incorporating various types of non-confounding covariates, such as instrumental variables, mediators, colliders, and adjustment variables. The key findings are: in the task of eliminating confounding bias, the optimal scenario is for the covariates to exclusively encompass confounders; in the subsequent task of inferring counterfactual outcomes, the adjustment variables contribute to more accurate inferences. Furthermore, extensive experiments conducted on synthetic datasets consistently validate these theoretical conclusions.

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References · 11

  1. 2015Estimation and Inference of Heterogeneous Treatment Effects using Random Forestscited by 600
  2. 2017Causal Effect Inference with Deep Latent-Variable Modelscited by 410
  3. 2016Learning Representations for Counterfactual Inferencecited by 329
  4. 2020A Survey on Causal Inferencecited by 202
  5. 2017Bayesian Inference of Individualized Treatment Effects using Multi-task Gaussian Processescited by 158
  6. 2018Perfect Match: A Simple Method for Learning Representations For Counterfactual Inference With Neural Networkscited by 56
  7. 2018Learning Weighted Representations for Generalization Across Designscited by 41
  8. 2016Generalized Optimal Matching Methods for Causal Inferencecited by 39
  9. 2019Adversarial Balancing-based Representation Learning for Causal Effect Inference with Observational Datacited by 30
  10. 2018Robust Inference Using Inverse Probability Weightingcited by 14
  11. 2020Learning Decomposed Representation for Counterfactual Inferencecited by 12

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