CausalMetaR: An R package for performing causally interpretable meta-analyses
arXiv:2402.04341 · doi:10.1017/rsm.2025.5
Abstract
Researchers would often like to leverage data from a collection of sources (e.g., primary studies in a meta-analysis) to estimate causal effects in a target population of interest. However, traditional meta-analytic methods do not produce causally interpretable estimates for a well-defined target population. In this paper, we present the CausalMetaR R package, which implements efficient and robust methods to estimate causal effects in a given internal or external target population using multi-source data. The package includes estimators of average and subgroup treatment effects for the entire target population. To produce efficient and robust estimates of causal effects, the package implements doubly robust and non-parametric efficient estimators and supports using flexible data-adaptive (e.g., machine learning techniques) methods and cross-fitting techniques to estimate the nuisance models (e.g., the treatment model, the outcome model). We describe the key features of the package and demonstrate how to use the package through an example.
References in corpus (15)
- Machine learning for causal inference: on the use of cross-fit estimators
- A novel approach for identifying and addressing case-mix heterogeneity in individual participant data meta-analysis
- Evaluating hybrid controls methodology in early-phase oncology trials: a simulation study based on the MORPHEUS-UC trial
- Multiply Robust Federated Estimation of Targeted Average Treatment Effects
- A general framework for formulating structured variable selection
- Robust integration of external control data in randomized trials
- Penalized G-estimation for effect modifier selection in a structural nested mean model for repeated outcomes
- Identification strategies for combining an experimental study with external data
- Integrating complex selection rules into the latent overlapping group Lasso for constructing coherent prediction models
- Extending Inferences from Randomized Clinical Trials to Target Populations: A Scoping Review of Transportability Methods
- Causal inference under transportability assumptions for conditional relative effect measures
- Improving randomized controlled trial analysis via data-adaptive borrowing
- Efficient estimation of subgroup treatment effects using multi-source data
- Continuous-time structural failure time model for intermittent treatment
- Center-specific causal inference with multicenter trials: reinterpreting trial evidence in the context of each participating center