Research Professor, Mechanical Engineering
Prof. Gilmer has an extensive background in government and industrial laboratories, together with teaching undergraduate physics early in his career. He started working full time at Mines in 2012, after 12 years at Lawrence Livermore National Laboratory. At Livermore Gilmer applied atomistic modeling of materials related to various aspects of the National Ignition Facility, which is being developed to produce fusion of hydrogen isotopes by inertial confinement.
Previously he was in Murray Hill, N. J., for 29 years, employed by Bell Telephone Laboratories, Lucent Technology, and Agere Systems, after various divestitures. Here most of his work involved atomistic modeling of crystal growth, and applications primarily to silicon processing involved in device fabrication.
Prior to this Gilmer was employed by Washington and Lee University, for eight years, and two years at Cornell University working as a research associate. His Ph. D. graduate study involved the theory of crystal growth, under Nicholas Cabrera at the University of Virginia. His B. S. was granted by Davidson College.
- Atomistic modeling of nanowire formation using vapor/solid and vapor/ liquid/solid crystal growth.
- Modeling the nanoscale organization of virus, colloid, and peptide molecules.
- Atomistic modeling of techniques to increase the ductility of ceramics.
- Atomistic modeling of laser ablation of copper, and of energetic particle collisions in space.
- Wang, H., Zepeda-Ruiz, L. A., Gilmer, G. H., and Upmanyu, M. (2013) “Atomistics of vapor-liquid-solid nanowire growth”, Nature Communications 4, 1956.
- King, W. E., Tumey, S.J., Rest, J., Gilmer, G. H. (2011), “The effect of lattice and grain boundary diffusion on the redistribution of Xe in metallic nuclear fuels: Implications for the use of ion implantation to study fission-gas-bubble nucleation mechanisms”, J. Nucl. Mater. 415, 38.
- Soules, T. F., Gilmer, G. H., Matthews, M. J., Stolken, J. S., and Feit, M. D. (2011) “Silica molecular dynamics force fields—A practical assessment”, J. Non-Cryst. Solids 357, 1564.
- King, W. E., Robel, M., Gilmer, G. H. (2011), “Potential to use fission gas release experiments to measure lattice and grain boundary diffusion in metallic fuels”, J. Nucl. Mater. 411, 97. Zepeda-Ruiz, L. A., Gilmer, G. H., Walton, C. C., Chason, E., Hamza, A. (2010) “Surface morphology evolution during sputter deposition of thin films by Monte Carlo simulations”, J. Cryst. Growth, 312, 1183.
- A Donev, VV Bulatov, T Oppelstrup, GH Gilmer, B Sadigh, MH Kalos M. H. (2010) “A First-Passage Kinetic Monte Carlo algorithm for complex diffusion-reaction systems”, J. Comp. Phys. 229, 3214.
- JJ De Yoreo, LA Zepeda-Ruiz, RW Friddle, Gilmer, G. H. (2009) “Rethinking Classical Crystal Growth Models through Molecular Scale Insights: Effects of Kink-Limited Kinetics”, Cryst. Grow. & Design 9, 5135.
- Zepeda-Ruiz, LA, Chason, E., Gilmer, G. H., Wang, Y. M., Xu, H. W., Nikroo, A., Hamza, A. V. (2009) “Understanding the relation between stress and surface morphology in sputtered films: Atomistic simulations and experiments”, Appl.Phys. Lett. 95, 151910.