NeSTR: A Neuro-Symbolic Abductive Framework for Temporal Reasoning in Large Language Models
Feng Liang, Weixin Zeng, Runhao Zhao, Xiang Zhao

TL;DR
NeSTR is a neuro-symbolic framework that enhances temporal reasoning in large language models by combining symbolic encoding, logical verification, and abductive reflection, leading to improved zero-shot performance on temporal questions.
Contribution
It introduces a novel neuro-symbolic approach that integrates structured temporal representations with reflective reasoning to improve LLMs' temporal understanding without fine-tuning.
Findings
Achieves superior zero-shot temporal reasoning performance.
Improves reasoning accuracy across diverse temporal benchmarks.
Enhances LLMs' ability to handle complex temporal constraints.
Abstract
Large Language Models (LLMs) have demonstrated remarkable performance across a wide range of natural language processing tasks. However, temporal reasoning, particularly under complex temporal constraints, remains a major challenge. To this end, existing approaches have explored symbolic methods, which encode temporal structure explicitly, and reflective mechanisms, which revise reasoning errors through multi-step inference. Nonetheless, symbolic approaches often underutilize the reasoning capabilities of LLMs, while reflective methods typically lack structured temporal representations, which can result in inconsistent or hallucinated reasoning. As a result, even when the correct temporal context is available, LLMs may still misinterpret or misapply time-related information, leading to incomplete or inaccurate answers. To address these limitations, in this work, we propose…
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Taxonomy
TopicsTopic Modeling · Multimodal Machine Learning Applications · Constraint Satisfaction and Optimization
