Expert evaluation of LLM world models: A high-T <sub> <i>c</i> </sub> superconductivity case study
Abstract
Large Language Models (LLMs) show great promise as a powerful tool for scientific literature exploration. However, their effectiveness in providing scientifically accurate and comprehensive answers to complex questions within specialized domains remains an active area of research. Using the field of high-temperature cuprates as an exemplar, we evaluate the ability of LLM systems to understand the literature at the level of an expert. We construct an expert-curated database of 1,726 scientific papers that covers the history of the field, and a set of 67 expert-formulated questions that probe deep understanding of the literature. We then evaluate six different LLM-based systems for answering these questions, including both commercially available closed models and a custom retrieval-augmented generation (RAG) system capable of retrieving images alongside text. Experts then evaluate the answers of these systems against a rubric that assesses balanced perspectives, factual comprehensiveness, succinctness, and evidentiary support. Among the six systems, two using RAG on curated literature outperformed existing closed models across key metrics, particularly in providing comprehensive and well-supported answers. We discuss promising aspects of LLM performances as well as critical short-comings of all the models. The set of expert-formulated questions and the rubric will be valuable for assessing expert level performance of LLM based reasoning systems.
Article Details
Journal Info
Proceedings of the National Academy of Sciences
National Academy of Sciences
Authors (23)
Haoyu Guo
Department of Physics
Maria Tikhanovskaya
Paul Raccuglia
Alexey Vlaskin
Chris Co
Daniel J. Liebling
Scott Ellsworth
Matthew Abraham
Elizabeth Dorfman
N. P. Armitage
William H. Miller III Department of Physics and Astronomy
Chunhan Feng
Antoine Georges
Center for Computational Quantum Physics, Flatiron Institute
Olivier Gingras
Center for Computational Quantum Physics
Dominik Kiese
Center for Computational Quantum Physics
Steven A. Kivelson
Geballe Laboratory for Advanced Materials
Vadim Oganesyan
Physics Program and Initiative for the Theoretical Sciences
B. J. Ramshaw
Subir Sachdev
T. Senthil
Department of Physics
J. M. Tranquada
Condensed Matter Physics and Materials Science Division
Michael P. Brenner
Subhashini Venugopalan
Eun-Ah Kim
Department of Physics