Christopher J. Stanton is a Professor in the Department of Physics at the University of Florida and was a former chairman of the department. He is a fellow of the APS and a member of the OSA.  He has coauthored/authored more than 180 publications in peer-reviewed journals, and has served as a member or chairman of organizing and program committees for many conferences and in addition has served as the Co-Chair for the Physics panel for the NRC Research Associateship Program from 2004-2019. His research interests are on theoretically modeling the electronic, magnetic, optical, and transport properties of bulk semiconductors as well as semiconductor nanostructures such as quantum wells, superlattices, quantum wires and dots and devices such as semiconductor lasers.  The main focus of his research has been on ultrafast, time-resolved optical measurements and he maintains close ties to several different experimental groups throughout the world  He has also been involved in outreach and educational endeavors such as the NSF PIRE funded NanoJapan program.  Dr. Stanton received his PhD from Cornell University in 1986.

Areas of Interest/Research

My research program is in theoretical condensed matter physics, focused on understanding and controlling the electronic, optical, magnetic, and transport properties of semiconductors and quantum-confined materials. I study bulk and low-dimensional systems—including quantum wells, superlattices, wires, dots, two-dimensional materials, and optoelectronic devices—using a unifying approach centered on nonequilibrium light–matter interactions driven by ultrafast femtosecond optical excitation and external electric and magnetic fields. The overarching goal is to reveal how coupled charge, spin, and lattice dynamics can be manipulated to create new physical functionality.

A central theme of my work has been the theory of ultrafast carrier dynamics, both coherent and incoherent. Early contributions included some of the first calculations to incorporate realistic full-zone band structures and detailed scattering processes to describe femtosecond carrier relaxation. I developed a unified theoretical framework based on the Semiconductor Bloch Equations that describes transport currents and optical polarization on equal footing, providing a microscopic explanation for terahertz (THz) radiation generated by ultrafast optical excitation. This work helped establish the physical mechanisms underlying THz emission in semiconductors and remains relevant to ongoing experimental efforts.

My group has made foundational contributions in several areas, including the first microscopic theory of coherent phonon generation, providing a rigorous basis for the forced-oscillator model widely used in ultrafast spectroscopy and predicting THz emission from coherent phonons, later confirmed experimentally. We have contributed to the understanding of magneto-optical properties of narrow-gap and dilute magnetic semiconductors under ultrahigh magnetic fields, and advanced the theory of optically pumped nuclear magnetic resonance (OPNMR), demonstrating its sensitivity to carrier spin polarization and its utility as a probe of valence-band spin structure. We have also worked on coherent phonons, transport, noise and THz emission from graphene nanotubes and ribbons.

My research is interdisciplinary and strongly connected to experiment. Although I am a theorist, my work is closely integrated with optical, transport, magneto-optical, and ultrafast spectroscopic measurements through long-standing collaborations with experimental and materials-growth groups worldwide. I have collaborated broadly across physics, engineering, materials science, and chemistry.

More recently, We have established collaborations with experimental spectroscopy groups at Virginia Tech and the National Institute for Materials Science (NIMS) in Japan. Our current work focuses on time-dependent interactions among photons, charges, spins, and phonons, including angular-momentum transfer and coherent control using tailored optical pulses. An emerging emphasis is on lead-halide perovskite nanocrystals, particularly stable cesium-based systems such as CsPbBr₃ embedded in a Cs₄PbBr₆ matrix. These materials exhibit exceptional stability and strong excitonic luminescence, offering promising routes toward low-cost, tunable light-emitting and laser devices.

Background

9/86 to 8/88 — Postdoctoral Research Associate, Coordinated Science Laboratory, University of Illinois. (Advisor: Professor Karl Hess.)
8/86 — Ph.D in Physics, Cornell University, Ithaca, NY. Thesis Title: Non-Equilibrium Current Fluctuations in Semiconductors: A Boltzmann-Green Function Approach (Thesis Advisor: Professor John W. Wilkins).
5/83 — M.S. in Physics, Cornell University, Ithaca, N.Y.
6/80 — B.S. in Physics, with High Honors, University of Florida, Gainesville, FL.

Current Teaching

Spring 2026

PHY 4605 Intro. Quant. Mech. 2

Contact Information

Email: stanton@ufl.edu
Phone: (352) 392-8753
Office: NPB 2170

Office Hours: MW 1:30-2:30 and by appointment.

Mailing address:
Department of Physics
2001 Museum Road
P.O. Box 118440
University of Florida
Gainesville, FL 32611-8440