Condensed Matter Physics Theory
The condensed matter theory group
is large, vigorous, and diverse, including 11 faculty, eight postdocs, and
about 15 students. The group is especially strong in statistical mechanics
of equilibrium and nonequilibrium systems.
The members of the theory group work closely together, with collaborations
occur ring frequently. A typical effort consists of one or more faculty
members, perhaps a postdoc, and a graduate student. Thus, each student
receives frequent individual attention. Research support comes from the
NSF, industry, the university, or other sources.
The research environment for theory is quite comfortable. Faculty,
postdocs, and
students are nearly all located near each other on the fourth floor of the
physics building. A spacious room with computer terminals and a preprint
library rooin are located in the same area.
Computer facilities are excellent, with a VAX 8650 boused in the physics
department. A network of SUN workstations, available to theorists, is
established. Direct access is also available to the university's
supercomputer center housing a Cray YMP/864.
Projects underway reflect some of the most recent and interesting topics
in theoretical condensed matter physics. These include:
- Spatio-temporal chaos and models of turbulence
- Phase transitions associated with crystal shapes
- Theory of high temperature superconductivity
- Magnetic, thermodynamic, and transport properties of strongly
correlated fermions
- Mechanical, electrical, and optical properties of inhomogeneous media,
especially metal-insulator and normal metal-superconducting metal
composites
- Kinetics and equilibrium structure of S(001) surfaces
- Molecular dynamics of non-uniform fluids
- Optical, electrical properties of granular and composite materials
- Quantum dots and wells
- Dynamics and instabilities of liquid-solid interfaces
- Liquid crystals
- Quantum effects on transport in ultra-small metallic and semiconductor
systems
- Theory of conducting polymers
- Theory of quantum Hall effect
- Theory of quantum magnetism
- Bose-Einstein condensation
- Novel effects in semiconductor heterostructures
- Dynamics of magnetic multilayers
Affiliated FacuIty
Charles A.
Ebner
Professor, Ph.D., University of Illinois at Urbana, 1967
Kinetics and equilibrium structure of Si(001) surfaces
Molecular dynamics of non-uniform fluids
Heat transfer at liquid-solid interfaces
Fernand A.
Hayot
Senior Research Scientist, Ph.D., State University of New York at Stony
Brook, 1970
Hydrodynamics of lattice gas automata; turbulence, interfacial
properties, and instabilities
Nonlinear amplitude equations of pattern formation
Stochastic models for scaling and multifractality of turbulent systems
Tin-Lun Ho
Associate Professor, Ph.D., Cornell University, 1977
Quantum fluids
Quantum Hall effect
Bose-Einstein condensation of atomic gases
Ciriyam
Jayaprakash
Professor, Ph.D., University of Illinois at Urbana, 1979
Spatially extended systems and turbulence
Earthquake models and self-organized criticality
Highly correlated fermion and boson systems
Bruce R.
Patton
Professor, Ph.D., Cornell University, 1971
High temperature superconductivity
Magnetic ordering in frustrated crystals
Liquid crystals
William Putikka
Assistant Professor (Mansfield campus), Ph.D., University of Wisconsin,
1988
High temperature superconductivity
Two dimensional strongly correlated electrons
Heavy fermion superconductivity
William F. Saam
Professor, Ph.D., University of Illinois at Urbana, 1968
Phase transistion at interfaces, including wetting and roughening
transitions
Equilibrium crystal shapes
Dynamics and instabilities of liquid-solid interfaces
Robert Stamps
Assistnat Professor (Lima campus), Ph.D., Colorado State University,
1988
Magnetic thin films and multilayers: anisotropy and interlayer coupling
Spin waves in low dimensional magnetic structures
Optical properties of high frequency materials
David G. Stroud
Professor, Ph.D., Harvard University, 1969
High temperature superconductors: Josephson junction coupled arrays,
disorder, magnetic fields
Physics of granular and distorted media: optical, dielectric and
nonlinear properties
Diffusion and Interfacial properties of liquid semiconductors
John W. Wilkins
Professor, Ohio Eminent Scholar, Ph.D., University of Illinois at
Urbana, 1963
Ultrafast optical response in atoms and quantum dots and wells
Novel effects in semiconductor heterostructures
Strongly correlated fermions
Chen-Ping Yang
Professor, Ph.D., Johns Hopkins University, 1961
Lattice Gas
Computer simulation of problems in statistical physics

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