Overview
Research interests in Prof. Craig's group bridge physical organic and materials chemistry. Many of these interests are guided by the vision that important challenges in materials science might be better tackled not from the traditional perspective of an engineer, but rather from the molecular perspective of an organic chemist. Current interests include the design and synthesis of self-healing polymers and the use of modern mechanochemistry in new stress-responsive polymers, catalysis, and the study of transition states and reactive intermediates. These areas require an interdisciplinary and nontraditional mix of synthetic organic and polymer chemistry, single-molecule spectroscopy, supramolecular chemistry, and materials characterization.
Research interests are complemented by numerous teaching and outreach activities, including: (1) hosting intensive undergraduate and high school research experiences for a diverse group of both Duke and non-Duke students; (2) exploiting effective, scalable, and low-cost mechanisms for content dissemination; (3) team-based and active learning content in the undergraduate and graduate classroom.
Current Appointments & Affiliations
William T. Miller Distinguished Professor of Chemistry
·
2013 - Present
Chemistry,
Trinity College of Arts & Sciences
Professor in the Department of Chemistry
·
2012 - Present
Chemistry,
Trinity College of Arts & Sciences
Bass Fellow
·
2012 - Present
Chemistry,
Trinity College of Arts & Sciences
In the News
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Recent Publications
High-Throughput Discovery of Ferrocene Mechanophores with Enhanced Reactivity and Network Toughening.
Journal Article ACS Cent Sci · October 22, 2025 Mechanophores are molecules that undergo chemical changes in response to mechanical force, offering unique opportunities in chemistry, materials science, and drug delivery. However, many potential mechanophores remain unexplored. For example, ferrocenes ar ... Full text Link to item CiteStrain-dependent enantioselectivity in mechanochemically coupled catalytic hydrogenation
Journal Article Nature Synthesis · October 1, 2025 The ultimate realization of top-down atomic manipulation is to push or pull molecules in a way that changes their function, such as catalysis. The forces in a stretched polymer distort molecular conformation in ways that couple to reactivity, but the use o ... Full text CiteAddition to: "Toughening and Imparting Deconstructability to 3D-Printed Glassy Thermosets with "Transferinker" Additives".
Journal Article Advanced materials (Deerfield Beach, Fla.) · October 2025 Full text CiteRecent Grants
NSF-BSF: Emergent Rheology of Blends Containing Supramolecular Polymers
ResearchPrincipal Investigator · Awarded by National Science Foundation · 2024 - 2027Covalent Polymer Mechanochemistry
ResearchPrincipal Investigator · Awarded by National Science Foundation · 2023 - 2027Multi-State Catalysts Modulated by Mechanical Force
ResearchCo Investigator · Awarded by Department of Energy · 2017 - 2027View All Grants
Education, Training & Certifications
Stanford University ·
1997
Ph.D.
University of Cambridge (United Kingdom) ·
1992
M.Phil.
Duke University ·
1991
B.S.