Assessment of chemistry knowledge in large language models that generate code. (10th February 2023)

• Record Type: Journal Article
• Authors: White, Andrew D.; Hocky, Glen M.; Gandhi, Heta A.; Ansari, Mehrad; Cox, Sam; Wellawatte, Geemi P.; Sasmal, Subarna; Yang, Ziyue; Liu, Kangxin; Singh, Yuvraj; Peña Ccoa, Willmor J.
• Is Part Of: Digital discovery. Volume 2:Number 2(2023)
• Page Start: 368
• Page End: 376
• Publication Date: 2023-02-10
• Subjects: Chemistry -- Data processing -- Periodicals; Medical sciences -- Data processing -- Periodicals; Machine learning -- Periodicals; 542.85
• DOI: 10.1039/d2dd00087c
• Languages: English
• ISSNs: 2635-098X

Abstract

Abstract : In this work, we investigate the question: do code-generating large language models know chemistry? Our results indicate, mostly yes. Abstract : In this work, we investigate the question: do code-generating large language models know chemistry? Our results indicate, mostly yes. To evaluate this, we introduce an expandable framework for evaluating chemistry knowledge in these models, through prompting models to solve chemistry problems posed as coding tasks. To do so, we produce a benchmark set of problems, and evaluate these models based on correctness of code by automated testing and evaluation by experts. We find that recent LLMs are able to write correct code across a variety of topics in chemistry and their accuracy can be increased by 30 percentage points via prompt engineering strategies, like putting copyright notices at the top of files. Our dataset and evaluation tools are open source which can be contributed to or built upon by future researchers, and will serve as a community resource for evaluating the performance of new models as they emerge. We also describe some good practices for employing LLMs in chemistry. The general success of these models demonstrates that their impact on chemistry teaching and research is poised to be enormous.