Jim Martin
Education
Postdoctoral Solid State Chemistry Iowa State University 1994
NSF Postdoctoral Theoretical Chemistry University of Paris 1991
Ph.D. Inorganic Chemistry, Physical Chemistry Indiana University 1990
B.A. Chemistry and Biology Goshen College 1986
Area(s) of Expertise
Synthesis, structure and physical properties of inorganic materials at the interface of molecular and solid state chemistry. Amorphous Materials Engineering, nano-science and technology of inorganic liquids and solutions. Reaction mechanisms in condensed matter: phase transitions, crystallization, the glass transition, and gas/solid reactions. Time-resolved synchrotron and neutron diffraction. Science and education public policy.
Publications
- Reply to “A Comparison of the Stochastic and Deterministic Approaches in a Nucleation–Growth Type Model of Nanoparticle Formation” , Chemistry of Materials (2021)
- Diffuse vs. Bragg Scattering: Understanding Structure Using 3-D Pair Distribution Function Analysis , (2020)
- K-space algorithmic reconstruction (KAREN): a robust statistical methodology to separate Bragg and diffuse scattering , Journal of Applied Crystallography (2020)
- Nutritional supplements comprising dietary metal complexes in a matrix of cellulosic materials , (2020)
- Particle Size Is a Primary Determinant for Sigmoidal Kinetics of Nanoparticle Formation: A “Disproof” of the Finke–Watzky (F-W) Nanoparticle Nucleation and Growth Mechanism , Chemistry of Materials (2020)
- Transition Zone Theory Compared to Standard Models: Reexamining the Theory of Crystal Growth from Melts , The Journal of Physical Chemistry C (2020)
- 3-D pair distribution function analysis to resolve real structures , (2019)
- Isotope Effects Reveal the Template Influence on the Crystal Growth of a Metal–Halide Network , The Journal of Physical Chemistry C (2019)
- Separating Diffuse from Bragg Scattering: Introducing the K-space Algorithmic REconstructioN (KAREN), First integrated workshop on neutron diffuse scattering from single crystals , (2019)
- Understanding Cooperativity in Condensed Phase Reactions: Application of Kauzmann’s configurational entropy and Adam and Gibbs’ cooperativity to crystal growth , (2019)