- Professor, University of Notre Dame
- Associate Professor, University of Notre Dame
- Assistant Professor, University of Notre Dame
- Postdoctoral Research Scientist, Department of Chemistry, Columbia University
- Ph.D. in Chemistry University of California, Berkeley
- CPS in Chemistry, University of Cambridge, Cambridge, UK
- B.S. in Chemistry & Philosophy, Duke University
- Rev. Edmund P. Joyce Award for Excellence in Undergraduate Teaching
- National Science Foundation CAREER Award
- Camille and Henry Dreyfus New Faculty Award
- National Science Foundation Graduate Research Fellowship
- Churchill Scholar
Research in the Gezelter group involves theoretical and computational studies of the dynamics of complex, condensed-matter systems. The mechanism of heat and mass transport at complex interfaces is of particular interest. The group simulates metallic nanoparticles in liquid environments, lipid bilayers, the phase transitions of water, and glass-forming metals.
The major goal is to arrive at simple models that can explain the unexpected and emergent behavior of these systems. A second, but equally important goal is to develop and test novel theoretical methods that will advance computer simulation as a tool for research in the chemical sciences.
Because the systems studied are often complex many-body systems, it is necessary to utilize the analytical methods of statistical mechanics as well as state-of-the-art methods of computer simulation. A large component of the research in the group is the development of efficient algorithms to perform molecular dynamics simulations and to obtain useful information from them. We are particularly interested in O(N) methods for computing electrostatic interactions as well as non-equilibrium simulation methods.
- Lamichhane, M.; Parsons, T.; Newman, K. E.; Gezelter, J. D. "Real space electrostatics for multipoles. III. Dielectric properties." J. Chem. Phys. 2016, 145, 074108.
- Michalka, J. R.; Latham, A. P.; Gezelter, J. D. "CO-Induced Restructuring on Stepped Pt Surfaces: A Molecular Dynamics Study." J. Phys. Chem. C 2016, 120, 18180-18190.
- Stocker, K. M.; Neidhart, S. M.; Gezelter, J. D. "Interfacial thermal conductance of thiolate-protected gold nanospheres." J. Appl. Phys. 2016, 119, 025106.
- Michalka, J. R.; Gezelter, J. D. "Island Formation on Pt/Pd(557) Surface Alloys in the Presence of Adsorbed CO: A Molecular Dynamics Study." J. Phys. Chem. C 2015, 119, 14239-14247.
- Hannah, D. C.; Gezelter, D.; Schaller, R. D.; Schatz, G. C. "Reverse Non-Equilibrium Molecular Dynamics Demonstrate That Surface Passivation Controls Thermal Transport at Semiconductor - Solvent Interfaces." ACS Nano 2015, 9, 6278-6287.
- Gezelter, J. D. "Open Source and Open Data Should Be Standard Practices." J. Phys. Chem. Lett. 2015, 6, 1168-1169.
The software we develop to carry out our research is available for free under a permissive Open Source license. We do this because some of the code may be useful to other researchers, and it is important allow skeptical inquiry into the methods we used to obtain results. The only way to do this is to provide the code and data.
Many links to scientific software (and discussions on a wide range of other topics) can be found at The OpenScience Project, which is also run by Dr. Gezelter.
OpenMD, an open source molecular dynamics engine, is our group's primary molecular dynamics code and is available with a permissive open source license.
OpenMD web pages: http://openmd.org
Git access: OpenMD
Jmol is a Java-based viewer for computational chemistry that was originally developed in Gezelter's lab. Jmol development is now in the hands of the Jmol development team, and is available under the GNU public license.
Jmol web pages: http://jmol.sf.net