Experimental designs for identifying causal mechanisms
By Kosuke Imai, Dustin Tingley, Teppei Yamamoto. 2013
410 citations recorded by the source corpus.
Subfields: Artificial Intelligence, Education, Statistics and Probability
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Artificial Intelligence
- Judea Pearl
- Martin Huber
- Dustin Tingley
- Rik Pieters
- Kosuke Imai
- Cynthia Rudin
- Bernhard Schölkopf
- Teppei Yamamoto
In Education
- Martin Huber
- Kristopher J Preacher
- Rik Pieters
- Dustin Tingley
- Kosuke Imai
- Teppei Yamamoto
- Fabrizia Mealli
- Alessandra Mattei
In Statistics and Probability
- Martin Huber
- Kosuke Imai
- Dustin Tingley
- Kristopher J Preacher
- Judea Pearl
- Teppei Yamamoto
- Luke Keele
- Ilya Shpitser
Citations in the corpus
- Causal Models for Dynamical Systems (2020, background): “, Imai et al. [2013], Peters et al. [2016]); the selection of measurement readouts, time points, or intervention strate gies could guide experimentation and has the potential to significantly reduce the number of complicated and expensive experiments.”
- Direct and indirect treatment effects–causal chains and mediation analysis with instrumental variables (2014, background): “This is equally attractive as directly manipulating the mediator exogenously; see the discussion in Imai et al. (2013).”
- A Minimax Surrogate Loss Approach to Conditional Difference Estimation (2018, background): “Recently there has been a lot of work on subgroup identification [16, 18, 25] and other types of nonlinear predictors of causal effects [3, 19, 2, 36, 34].”
- Explaining Group Influence: The Role of Identity and Emotion in Political Conformity and Polarization (2015, result): “Second, group influence is examined However, one could argue that—taken together—the two studies test mediation: Group norms arouse self-conscious emotions in Study 1, and their causal effects are demonstrated in Study 2 (see Bullock, Green, and Ha 2010; Imai, Tingley, and Yamamoto 2012).”
- IDENTIFYING CAUSAL MECHANISMS (PRIMARILY) BASED ON INVERSE PROBABILITY WEIGHTING (2014, background): “Unfortunately, this assumption appears unattractive in empirical applications (see, for instance, the discussion in Imai et al., 2012, Section 3.1) and restricts the usefulness of nonparametric identification advocated in recent work.”
- Explaining Causal Findings Without Bias: Detecting and Assessing Direct Effects (2016, background): “As Imai, Keele, and Yamamoto (2010) point out, no intermediate confounders “is an important lim- 7 Imai and Yamamoto (2013) present a method for causal mediation in the face of intermediate confounders, which they refer to as multiple causal mechanisms.”
- Causal Mediation Analysis (2011, methodology): “Alternatively, we suggest conducting sensitivity analyses, which we show how to do using our package in section 4 or adopting different experimental designs (Imai et al. 2009).”
- Identification and Sensitivity Analysis for Multiple Causal Mechanisms: Revisiting Evidence from Framing Experiments (2013, methodology): “In this section, we extend our method to the two new experimental designs recently proposed by Imai, Tingley, and Yamamoto (2013), where the mediator is manipulated to avoid the exogeneity assumption.”
- Quo Vadis, Dynamic Capabilities? A Content-Analytic Review of the Current State of Knowledge and Recommendations for Future Research (2018, background): “, Fischer, Gebauer, Gregory, Ren, & Fleisch, 2010; Jenkins, 2010). These studies suggest that the development of dynamic capabilities may proceed through a series of typical stages, knowledge of which may prove particularly useful for practitioners attempting to implement such capabilities. Process-”
- Meaningful Mediation Analysis: Plausible Causal Inference and Informative Communication (2017, methodology): “Tailored designs to implement experimental mediation analysis have been proposed (Imai, Tingley, and Yamamoto 2013).”