Thomas R. Moses

Thomas R. Moses is Professor of Physics at Knox College, where he has conducted research and taught since 1992. His experimental work focuses on soft condensed matter systems, particularly liquid crystal phase transitions and surface phenomena.

Education:

• Ph.D. in Physics, University of California, Berkeley (1993)
• M.A. in Physics, University of California, Berkeley (1990)
• B.S. in Physics and Mathematics, Stanford University, Phi Beta Kappa (1987)

Research Focus: Professor Moses investigates molecular ordering near surfaces and critical fluctuations during isotropic-nematic/smectic transitions in liquid crystals. His laboratory employs evanescent-wave ellipsometry, magnetic birefringence, and light scattering techniques to characterize length/energy scale changes. Current projects examine alkyl cyanobiphenyl systems and develop advanced optical instrumentation.

Publication Trends: His 15-year publication record (1998-2015) shows dual emphasis on fundamental liquid crystal research and physics education innovation. Approximately 60% of publications involve undergraduate co-authors, with recurring themes in phase transition characterization (45%), optical instrumentation (30%), and undergraduate lab development (25%).

Scientific Recognition:

• Phi Beta Kappa (undergraduate honor, 1987)
• National Science Foundation grant (1993)
• Research Corporation grant (1992)

Student Mentorship: Professor Moses maintains an active undergraduate research group where students contribute to publications and instrument development. His mentorship style combines rigorous expectations with immediate feedback, as evidenced by student testimonials describing his role in 'instilling a deep love for science.' Summer ASSET fellowships provide intensive electronics and controller-building experiences.

Research Infrastructure: While no formal lab name is specified, his group operates experimental setups for liquid crystal characterization including custom-built interferometers and birefringence measurement systems. Equipment development remains integral to his approach, enabling precise investigation of surface ordering phenomena.