Mark Meisel - The electromagnetic
and thermodynamic properties of a variety of novel low dimensional systems
are investigated for the purpose of studying the underlying quantum
mechanical phenomena. From room temperature down to the millikelvin
temperature range, the research focuses on low dimensional organic and
inorganic conductors and magnets, nanostructured antiferromagnetic particles,
and novel superconducting and heavy fermion materials. The millikelvin
research is extended to the microkelvin regime when the behavior of
the systems requires further clarification. In addition, superfluid
3He is studied at microkelvin temperatures using ultrasonic techniques.
Finally, biophysical research involves the study of plants growing in
low gravity environments generated by magnetic levitation. [For a general,
non-technical description of magnetic levitation related our experiments,
see "Everyone's Magnetism" by Andrey Geim, Physics Today,
Vol. 51, No. 9, September 1998, pp. 36-39.] All research endeavors involve
collaborations with local, national, and international colleagues in
physics, chemistry, and plant molecular genetics. Laboratory resources
include a 9 T NMR superconducting magnet with a 88 millimeter diameter
room temperature bore and a broadband spectrometer, various low temperature
cryostats (including the facilities of the Microkelvin Research Laboratory),
and commercial SQUID (up to 5 Tesla and down to 2 Kelvin) and vibrating
sample magnetometers.
Typically the research involves one to two Ph.D.
students, one postdoctoral researcher, and one undergraduate student.
Opportunities exist for additional students who may tailor their research
to meet their interests since a variety of topics are studied in our
group.