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Towards Causal Foundation Model: on Duality between Causal Inference and Attention
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Foundation models have brought changes to the landscape of machine learning, demonstrating sparks of human-level intelligence across a diverse array of tasks. However, a gap persists in complex tasks such as causal inference, primarily due to challenges associated with intricate reasoning steps and high numerical precision requirements. In this work, we take a first step towards building causally-aware foundation models for treatment effect estimations. We propose a novel, theoretically justified method called Causal Inference with Attention (CInA), which utilizes multiple unlabeled datasets to perform self-supervised causal learning, and subsequently enables zero-shot causal inference on unseen tasks with new data. This is based on our theoretical results that demonstrate the primal-dual connection between optimal covariate balancing and self-attention, facilitating zero-shot causal inference through the final layer of a trained transformer-type architecture. We demonstrate empirically that CInA effectively generalizes to out-of-distribution datasets and various real-world datasets, matching or even surpassing traditional per-dataset methodologies. These results provide compelling evidence that our method has the potential to serve as a stepping stone for the development of causal foundation models.
Forward citations
Cited by 2 Pith papers
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Improving realistic semi-supervised learning with doubly robust estimation
Doubly robust estimation of the unlabeled class distribution improves pseudo-labeling methods for realistic long-tailed semi-supervised learning.
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Large Causal Models for Temporal Causal Discovery
A transformer pretrained on a large mixed corpus of synthetic and simulated realistic time series can discover lagged causal graphs zero-shot on datasets up to 12 variables, outperforming several classical baselines.
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