AI in Chemistry: Study Highlights Strengths and Weaknesses

Computing power in the chemistry lab: Kevin Jablonka (left) and his team at HIPOLE Jena. Photo: Renzo Paulus

Computing power in the chemistry lab: Kevin Jablonka (left) and his team at HIPOLE Jena. Photo: Renzo Paulus

How well does artificial intelligence perform compared to human experts? A research team at HIPOLE Jena set out to answer this question in the field of chemistry. Using a newly developed evaluation method called “ChemBench,” the researchers compared the performance of modern language models such as GPT-4 with that of experienced chemists. 

The study has recently been published in the journal Nature Chemistry (DOI 10.1038/s41557-025-01815-x).

More than 2,700 chemistry tasks from research and education were tested—ranging from fundamental knowledge to complex problems. In areas such as reaction prediction or the analysis of large datasets, AI models often excelled with high efficiency. However, a critical weakness became apparent: the models also produced confident answers even when they were factually incorrect. Human chemists, by contrast, were more cautious and questioned their own assessments.

“Our study shows that AI can be a valuable tool—but it is no substitute for human expertise,” says Dr. Kevin M. Jablonka, lead author of the study. The findings offer important insights for the responsible use of AI in chemical research and education.

HIPOLE Jena (Helmholtz Institute for Polymers in Energy Applications Jena) is an institute of HZB in cooperation with Friedrich Schiller University Jena (FSU Jena).

ma

  • Copy link

You might also be interested in

  • A record year for our living lab for BIPV
    News
    22.01.2026
    A record year for our living lab for BIPV
    In 2025, our solar facade in Berlin-Adlershof generated more electricity than in any of the previous four years of operation.
  • Compact electron accelerator for treating PFAS-contaminated water
    Science Highlight
    19.01.2026
    Compact electron accelerator for treating PFAS-contaminated water
    So-called forever chemicals or PFAS compounds are a growing environmental problem. An innovative approach to treating PFAS-contaminated water and soil now comes from accelerator physics: high-energy electrons can break down PFAS molecules into harmless components through a process called radiolysis. A recent study published in PLOS One shows that an accelerator developed at HZB, based on a SRF photoinjector, can provide the necessary electron beam.
  • The BIPV living lab at the centre of an international comparative study
    News
    14.01.2026
    The BIPV living lab at the centre of an international comparative study
    The BIPV living lab at HZB in Berlin-Adlershof is at the centre of an international comparative study for the simulation of coloured solar façades.