Prof. Rafael Gomez-Bombarelli

Jeffrey Cheah Career Development Associate Professor of Materials Science and Engineering

Primary DLC

Department of Materials Science and Engineering

MIT Room: 13-5037

Assistant

Sandra Crawford-Jenkins
crawfjen@mit.edu

Research Summary

The Gomez-Bombarelli group works at the interface between atomistic simulations and machine learning to design optimal materials for applications such as energy conversion and storage, catalysis or healthcare.

Recent Work

  • Video

    2024 MIT Digital Technology and Strategy Conference: AI for Chemistry & Materials - Are We There Yet

    September 17, 2024Conference Video Duration: 40:51

    AI for Chemistry and Materials: Are We There Yet?

    Gómez-Bombarelli Feature

    March 7, 2024MIT Faculty Feature Duration: 14:6

    Rafael Gómez-Bombarelli

    4.28.22-AI-Manufacturing-Sustainability

    April 28, 2022Conference Video Duration: 122:52
    William H. Green
    Hoyt Hottel Professor in Chemical Engineering, MIT Department of Chemical Engineering
    Rafael Gomez-Bombarelli
    Jeffrey Cheah Assistant Professor, MIT Department of Materials Science and Engineering
    Markus Buehler
    McAfee Professor of Engineering, Civil and Environmental and Mechanical Engineering
    Tonio Buonassisi
    Co-Founder & Scientific Advisor, and MIT Professor of Mechanical Engineering, Xinterra

    Rafael Gomez-Bombarelli - 2018 RD Conference

    November 21, 2018Conference Video Duration: 34:37

    Inverse Materials Design Using Machine Learning and Simulations

    Machine learning is disrupting multiple fields of human endeavor: healthcare, transportation, finance, communications, etc. Materials design is no exception in this disruption. Data-driven approaches can access the information embedded in years of experiments, perform rapid optimization of high-dimensional experimental conditions and design parameters, or design new molecules automatically. The Gomez-Bombarelli group at MIT combines cutting-edge machine learning models on experimental data with automation in physics-based atomistic simulations (molecular dynamics, electronic structure) to rapidly design and optimize new materials in multiple areas, such as: inverse chemical design of small molecules (drug-like molecules that optimally bind biological sites, organic-light emitting diode emitters, and organic battery electrolytes); virtual discovery of soft materials (lithium-conducting polymers and OLED transport materials); and chemical reactivity in the condensed phase (zeolite design for catalysis and chemical and thermal stability of organic electronics). There is great interest in using machine learning as the connector between multiple time and length scales: from electronic structure, to atomistic molecular dynamics, to coarse-grained models.

    2018 MIT Research and Development Conference