Oct 2026· ACM Transactions on Management Information Systems· 0 citations· 41 references
TL;DR
A framework is proposed that conceptualizes large language models (LLMs) as dynamic boundary spanning objects and leverages different forms of human-LLM collaborations throughout the causal ML boundary spanning process, toward the goal of successful practice transformation.
Abstract
Organizations are beginning to deploy causal machine learning (causal ML) models for estimating average treatment effects and treatment effect differences for various subgroups, as well as identifying causal mechanisms driving treatment effects. For instance, in domains such as health care and marketing, causal ML is being used to identify who is most likely to benefit from or be receptive to treatments or interventions, including medical treatments and marketing campaigns. However, while causal ML models can produce highly accurate results when causal assumptions are met, the outputs can be confusing to work with. For instance, it is easy to conflate risk scores with conditional average treatment effects (CATEs), as risk scores from predictive models identify who is most likely to experience an outcome while CATEs from causal models identify who is most likely to benefit (or not benefit) from a treatment. A practitioner reviewing causal ML results may not fully understand such nuances and, thus, may not effectively convert relevant causal ML outputs into practice. Thus, a particular challenge relevant to causal ML, and extensible to any complex set of digital artifact outputs, is that effective practice transformation requires effective boundary spanning. To address this challenge, we propose a framework that conceptualizes large language models (LLMs) as dynamic boundary spanning objects. The framework leverages different forms of human-LLM collaborations throughout the causal ML boundary spanning process, toward the goal of successful practice transformation. We further provide an example of how the framework can be applied to a case of complex causal ML results. We ultimately seek to extend boundary spanning theory and provide a pathway for translating causal ML results across syntactic, semantic, and pragmatic boundaries.
A unified causal machine learning framework that integrates structural causal modeling with data-driven estimation techniques to enable robust causal discovery and effect estimation and achieves higher causal discovery accuracy with improved precision and recall of causal edges.
Maria Ulfa, Marwan Alshar'e, Dharmesh Dhabliya et al.· Journal of Data Science· 0 citations
A closed-loop prior selection framework is proposed that casts prior injection as a budget-constrained optimization over a candidate prior pool and shows that the use of LLM causal priors stops being manual trial and error and becomes an empirically verifiable selection problem.
In various fields, such as medicine and marketing, accurately predicting individual treatment effects holds significant promise. However, achieving reliable predictions alone is often insufficient for making informed decisions; it is equally important to understand why the treatment effect is higher for some individual...
Large language model (LLM) agents for health can accumulate reusable textual skills from task feedback, such as calculation criteria, measurement time points, and formula units. Deciding which skills to retain is consequential: useful rules improve later answers, while faulty generalizations propagate errors. We propos...
Causal foundation models are pretrained neural networks that estimate causal quantities, such as the average treatment effect, on entirely new datasets using in-context learning without requiring model updates.
Christopher Stith, Hossein Rahmani, Jesse C. Cresswell· 0 citations
Causal analysis can guide decisions by estimating how interventions change outcomes and making the assumptions behind those estimates explicit. We present the Causal World Foundation Model, a framework for answering causal questions from tabular data. It checks declared conditions, combines classical estimators, and ca...
Alessandro Berti· Electronics· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.