|
|
Condensed Matter Physics
. . . the study of systems of atoms in the form of
solids and liquids, and of aggregate physical systems.
Departmental activities include pioneering work in theorizing
pattern formation, nonlinear dynamics, systems far from
equilibrium, chaos, quasicrystals, quantum interference in
superconducting micronetworks, and avalanches.
Condensed matter theory at Michigan is an interdisciplinary field
encompassing several physics subfields and problems, from solid
state theory to fluid mechanics to dynamical systems theory.
Departmental activities are wide-ranging and marked by close
interaction with laboratory experiments at a basic science level.
Specialties include pattern formation, nonlinear dynamics, equilibrium
and nonequilibrium statistical mechanics, chaos, quantum manybody
theory, superconductivity, semi-conductor multilayers, avalanches,
and aperiodic systems.
. . . the study of the collective behavior of solids
and liquids, and of the macroscopic results of quantum
interactions. Department specialties: mesoscopic structures,
thin films, and metallic films; microfabrication; spectroscopic
studies of electronic structures of solids not covered by
traditional band theory; high temperature superconductivity;
strongly correlated electron systems; coherent x-ray
scattering; x-ray and inelastic light scattering; semiconductor
quantum wells and superlattices; molecular beam epitaxy, and
scanning tunneling and other microscopies.
Condensed matter experiment is a diverse, rapidly-changing subfield of physics that has
ties to many technologies and disciplines -- from solid state electronics to
superconductors to materials science -- and overlaps with applied physics, optical
physics, and chemistry. U-M's condensed matter group has in a short time gained a
widespread reputation as a vigorous, innovative center for both research and teaching.
Work is done at Michigan, the NSF Center of Ultrafast Optical Science, and several
national and international user facilities, including synchrotron radiation facilities at
the Advanced Light Source
(Berkeley), the National Synchrotron Light Source
(Brookhaven), the European Synchrotron Radiation Facility
(Grenoble, France), the Advanced Photon Source (Argonne National Laboratory); and at
neutron scattering facilities at NIST (Maryland), LANSCE (Los Alamos), and IPNS (Argonne).
|
|