LLMs Overconfident in Causal Judgments, Lack Directness
Key takeaways
- LLMs are recall-dominant and overconfident in causal judgments.
- They struggle to distinguish direct from indirect causal links.
- Conventional LLM confidence metrics are often unreliable.
- Agreement across prompts or models offers a more promising, but not definitive, signal.
Who benefits
Summary
A systematic evaluation of 12 LLMs reveals they are recall-dominant and overconfident in causal judgments, frequently misclassifying indirect or reversed non-edges as direct causal links. Conventional confidence metrics are unreliable, while cross-prompt or cross-model agreement offers a more promising, though not statistically significant, signal for trustworthiness.
Why it matters
Professionals using LLMs for causal inference or knowledge extraction need to be aware of their inherent biases and overconfidence in identifying direct causal relationships, which can lead to flawed decision-making or incorrect scientific conclusions.
How to implement this in your domain
- 1Exercise extreme caution when using LLMs to infer direct causal relationships in critical applications.
- 2Prioritize human expert validation for any causal graphs generated or suggested by LLMs.
- 3Experiment with ensemble methods, like cross-prompt or cross-model agreement, to gauge the reliability of LLM causal judgments.
- 4Avoid relying solely on verbalized or logit-based confidence scores from LLMs for causal claims.
- 5Develop internal benchmarks to assess LLM performance on causal tasks specific to your domain, focusing on precision and directness.
Original post by Amit Kumar, Elnur Adl Zarabi, Suranjana Trivedy, Zhiqian Chen, Lei Zhang, Kaiqun Fu, Taoran Ji
"arXiv:2608.23660v1 Announce Type: new Abstract: Large language models (LLMs) are increasingly used to provide prior causal knowledge for structural causal discovery, yet whether their direct-edge judgments and confidence can be trusted remains unclear. We systematically evaluate…"
View on XOriginally posted by Amit Kumar, Elnur Adl Zarabi, Suranjana Trivedy, Zhiqian Chen, Lei Zhang, Kaiqun Fu, Taoran Ji on X · view source
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