Sarah Rebecca Roland Professor
I received my BSc in Engineering Physics at Colorado School of Mines in Golden (1975), then moved to New York to do graduate work at SUNY-Stony Brook, where I received a Ph.D. in physics in 1980. I did post-doctoral research at Princeton University in New Jersey (1980-83), Nordic Institute of Theoretical Atomic Physics in Copenhagen and Helsinki University of Technology (1983-84), then joined the Princeton physics faculty (1983-1987). Since 1987 I have been a professor of physics at Northwestern University in Evanston, Illinois. I am co-director of the Northwestern-Fermilab Center for Applied Physics and Superconducting Technologies (CAPST) [Curriculum Vitae].
What I do
Research: I study the physical world by combining mathematical analysis and observation (generally with the help of experimentally inclined colleagues and students). I try to formulate and apply concepts and principles (physical laws) to relate observations of physical phenomena, such as superconductivity, to fundamental properties of matter and radiation. The laws of physics (e.g. quantum mechanics) are expressed in mathematical equations, so in practice I try to formulate physical questions as mathematical problems.
Teaching: I teach physics - both the fundamentals as well as developments in current research. For me, teaching and research are entangled.
Theoretical Physics. I started research in the nuclear theory group at Stony Brook investigating matter under conditions thought to exist in the interiors of cold, dense stars called neutron stars. While I continue research in nuclear matter under extreme conditions, my current research is in the field of theoretical condensed matter physics. Theoretical condensed matter research involves the discovery of new concepts related to the collective behavior of enormous numbers of atomic constituents, combined with the application of statistical mechanics and quantum theory to describe the behavior of macroscopic matter [`More is Different' with Condensed Matter Physics]. Quantum physics of macroscopic matter is clearly revealed at low temperatures, and in the presence of strong electromagnetic or acoustic radiation fields. Matter under such conditions is described by quantum field theory. I conduct theoretical studies of matter in which quantum effects are manifest in the observable properties of matter [Research Highlights].
Awards and Honors
- Max Planck Research Prize in Theoretical Physics, 1994
- Fellow, Division of Condensed Matter Physics, APS, 1998
- John Bardeen Prize in Theoretical Superconductivity, 2012
- Distinguished Lecturer, University of Edinburgh, 2014
- Fritz London Memorial Prize in Low Temperature Physics, 2017