
Dr. Jerry LaRue
Associate Professor, Program Director of Chemistry and Biochemistry, Assistant Dean
of Research and Graduate Education
Chemistry, Schmid College of Science and Technology
Expertise:
Heterogenous catalysis, chemical dynamics, physical chemistry, chemical physics, quantum
chemistry, surface science, spectroscopy, ultrafast spectroscopy, X-ray spectroscopy,
optics, nanoparticles
Office Location: Keck Center for Science and Engineering 233
Phone: 714-744-7660
Email: larue@chapman.edu
Website: http://sites.chapman.edu/catlab
- Scholarly Works:
- Digital Commons
Google Scholar
ORCID
- Education:
- Willamette University, Bachelor of Arts
University of California, Santa Barbara, Ph.D.
Biography
Catalysts are the unsung heroes of chemistry: Widely used in industry, they speed
up chemical reactions by making the reactions more selective and efficient. While
they are essential for producing fuels, chemicals, and materials of all types, many
of the molecular-level steps that control their activity remain poorly understood.
The LaRue Catalysis Research Lab (CatLab) investigates the fundamental processes that
drive reactions on metal catalytic surfaces, with a particular focus on how electrons
drive chemical change. We use advanced optical and X-ray techniques to observe and
control these processes, uncovering how energy flows through catalytic systems to
drive chemical reactions.
Our research spans both model metal surfaces and light-driven metallic nanoparticles. Using surface science approaches, we study reactions of small molecules such as carbon monoxide, carbon dioxide, and methanol to isolate individual reaction steps and determine how electronic and molecular dynamics influence reactivity. We also design and synthesize core-shell metallic nanoparticles to investigate plasmon-enhanced photochemistry and understand how nanoparticle size, shape, and composition can be used to control photocatalytic activity and selectivity.
Our research spans both model metal surfaces and light-driven metallic nanoparticles. Using surface science approaches, we study reactions of small molecules such as carbon monoxide, carbon dioxide, and methanol to isolate individual reaction steps and determine how electronic and molecular dynamics influence reactivity. We also design and synthesize core-shell metallic nanoparticles to investigate plasmon-enhanced photochemistry and understand how nanoparticle size, shape, and composition can be used to control photocatalytic activity and selectivity.
-
Recent Creative, Scholarly Work and Publications