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Causal Inference with Bipartite Designs
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Bipartite experiments are a recent object of study in causal inference, whereby treatment is applied to one set of units and outcomes of interest are measured on a different set of units. These experiments are particularly useful in settings where strong interference effects occur between units of a bipartite graph. In market experiments for example, assigning treatment at the seller-level and measuring outcomes at the buyer-level (or vice-versa) may lead to causal models that better account for the interference that naturally occurs between buyers and sellers. While bipartite experiments have been shown to improve the estimation of causal effects in certain settings, the analysis must be done carefully so as to not introduce unnecessary bias. We leverage the generalized propensity score literature to show that we can obtain unbiased estimates of causal effects for bipartite experiments under a standard set of assumptions. We also discuss the construction of confidence sets with proper coverage probabilities. We evaluate these methods using a bipartite graph from a publicly available dataset studied in previous work on bipartite experiments, showing through simulations a significant bias reduction and improved coverage.
Forward citations
Cited by 3 Pith papers
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Design-based causal inference in bipartite experiments
A Hájek estimator for the total treatment effect in bipartite experiments is shown consistent and asymptotically normal under sparse graph assumptions, with a conservative variance estimator and covariate adjustment.
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GAUGER: Generalized Regression Adjustment via Graph-Weighted Exposure-Level Residualization for Design-Based Inference Under Interference
GAUGER calibrates outcome predictions against the design-induced graph-weighted variance structure to yield a variance-optimal AIPW estimator under network interference.
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Experimental Designs for Multi-Item Multi-Period Inventory Control
Switchback experiments underestimate the global treatment effect in shared-capacity inventory systems, item-level randomization overestimates it, and a pairwise item-time design has intermediate bias.
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