Causal Machine Learning
Causal machine learning aims to move beyond identifying correlations in data to establishing causal relationships, enabling prediction of outcomes under interventions and counterfactual scenarios. Current research focuses on improving the accuracy and interpretability of causal effect estimation, particularly for heterogeneous treatment effects, using methods like meta-learners, doubly robust estimators, and Bayesian causal forests, often applied within specific domains such as healthcare, supply chain management, and agriculture. This field is significant because it allows for more robust and reliable decision-making in various applications by providing a deeper understanding of cause-and-effect relationships, moving beyond simple prediction to informed intervention.
Papers
Causal machine learning for sustainable agroecosystems
Vasileios Sitokonstantinou, Emiliano Díaz Salas Porras, Jordi Cerdà Bautista, Maria Piles, Ioannis Athanasiadis, Hannah Kerner, Giulia Martini, Lily-belle Sweet, Ilias Tsoumas, Jakob Zscheischler, Gustau Camps-Valls
Measuring Variable Importance in Individual Treatment Effect Estimation with High Dimensional Data
Joseph Paillard, Vitaliy Kolodyazhniy, Bertrand Thirion, Denis A. Engemann
Practical Marketplace Optimization at Uber Using Causally-Informed Machine Learning
Bobby Chen, Siyu Chen, Jason Dowlatabadi, Yu Xuan Hong, Vinayak Iyer, Uday Mantripragada, Rishabh Narang, Apoorv Pandey, Zijun Qin, Abrar Sheikh, Hongtao Sun, Jiaqi Sun, Matthew Walker, Kaichen Wei, Chen Xu, Jingnan Yang, Allen T. Zhang, Guoqing Zhang
Using GPT-4 to guide causal machine learning
Anthony C. Constantinou, Neville K. Kitson, Alessio Zanga