Milind N. Kunchur, Professor of Physics
Michael J. Mungo Distinguished Professor
Office on Columbia campus: PSC Bldg. room 303

Mailing address:
Department of Physics and Astronomy
University of South Carolina
712 Main St., PSC 404, Columbia, SC 29208
Phone: 803 777 1907, FAX: 803 777 3065
Email: kunchur"at"sc.edu   (replace "at" with @)
Internet homepage: http://www.physics.sc.edu/~kunchur/
Resume       Teaching-evaluation summary

Events

Michael J. Mungo Distinguished Professor of the Year (the university’s most prestigious award)

USC Nominee and State Finalist for Governor's Professor of the Year

Fellow of the American Physical Society (supporting paragraph for citation)

Advisory Board Member of Physica C journal (Physica C)

USC Nominee for Carnegie Foundation U.S. Professor of the Year

High-Resolution Audio panel for the Audio Engineering Society Convention in London, U.K.

Invited conference speaker at: the "NATO Advanced Research Workshop on Nanotechnology" in Yalta, Ukraine; "The 57th Annual Department of Atomic Energy – Solid State Physics Symposium" in Mumbai, and "The 128th Audio Engineering Society Convention" in London, U.K.

Research activities

Superconductivity and nano-structured materials
Our group investigates phenomena in superconducting nanowires and thin films, as well as other condensed-matter systems, at ultra-short time scales and under extreme conditions of current density, electric field and dissipation levels. This has led to the discovery of several new regimes and effects --such as the flux-creep memory effect, hot-electron vortex instability, flux-flow “Gunn” effect, and quenched vortex motion -- and has confirmed predicted regimes such as free flux flow and ballistic supercurrent acceleration. 
More information and representative papers related to our condensed-matter/nanoscience effort.          Laboratory facilities

Psychophysics, auditory neurophysiology, and high-fidelity audio
My other interest lies at the intersection of psychophysics, human hearing, and high-end audio. Here we measure the limits of human hearing and relate them to the neurophysiology of the auditory system. These experiments also help to define the criteria for perfect fidelity in a sound-reproduction system. Our recent behavioral studies on human subjects proved that humans can discern timing alterations on a 5 microsecond time scale, indicating that that digital sampling rates used in common consumer audio (such as CD) are insufficient for fully preserving transparency.
More information and representative publications related to our psychoacoustics effort

Teaching activities

Recent class climate evaluation

Course syllabi
Graduate seminars: Physics 730 (with guidelines for giving talks)
Musical Acoustics: Physics 155   -->   audio-wave-files-of-demos
Essentials of Physics I: Physics 211
General Physics I: Physics 201
Essentials of Physics II: Physics 212                 Principles of Physics II: Physics 207
Thin Films: Physics 750A                                General Physics II: Physics 202
Solid State Physics: Physics 512                      Classic Experiments in Physics: Physics 309
Thin Films: Physics 750A

Publications

Selected papers


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