
Research Topics:
Innovative Tank Level
Sensors for the US Fleet of Submarines
In collaboration with Prime Technology, LLC, Branford,
CT, we are developing state of the art Innovative tank level technologies for
the US fleet of submarines.
Dark Matter Search: DUSEL
Detector Developments (Low Background Cirlex-THGEM Readout)
We are collaborating with Dan McKinseyÕs cryo detector lab
at Yale University and the Instrumentation Division of Brookhaven National
Lab on a development of a low
background Cirlex-THGEM charge readout for future XENON Dark Matter Detector that could
possibly be located at the proposed Deep
Underground Science and Engineering Lab (DUSEL). Our goal is to develop a
charge readout using the new THGEM technology developed at the Weizmann
Institute in Israel. Such a readout will replace the PMT technology that is
currently used in DM detectors, and thus will reduce the background in this
detectr.
Detector Developments
(Optical Readout - TPC)
We are collaborating with the
Radiation Detection
Lab at the Weizmann Institute of
Science in Israel, and the Detector
Development Group at PTB in Germany, on
developing an Optical Readout Time Projection Chamber (O-TPC) to be used in an
experiment at the HIgS facility at the
TUNL Lab at Duke University for a study of oxygen formation during Stellar
Helium Burning (the 12C(a,g) Reaction)-- the
central problem in Stellar Evolution Theory. During Helium burning the carbon
and oxygen elements are produced and the C/O ratio determines the outcome of
the core collapse Type II supernova explosion. Oxygen rich star collapses to a
black hole and carbon rich star yields a neutron star. The C/O ratio is one of
the most fundamental parameter in Stellar Evolution Theory, but it is still
unknown in spite of three decades of research, see discussion in Physics Today (2002, Vol
55, #12, page 26).
Experimental Nuclear
Astrophysics
We are involved in a number of stellar evolution
studies as well as in the use of stars to explore fundamental physical
principles, such as the properties of neutrinos, and the search for physics
beyond the Standard Model. In this project, we study nuclear reaction rates
which are critical nuclear inputs to the Standard
Solar Model and for evaluating the total 8B solar neutrino flux (including
all neutrino flavors) measured at the Sadbury
Neutrino Observatory (SNO) in Canada, as well as measure the formation of
7Be that yield the 7Be solar neutrino flux and the 7Li formed during "Big
Bang" nucleosynthesis.
In these studies, our faculty and students resolve(d)
some of the most central problems in Nuclear Astrophysics, as was discussed in
the Search and Discovery column of
the July 1994 issue of Physics Today :
questions about Helium burning in massive stars, and the conditions that
prevail prior to a supernova collapse. Our work on the Coulomb dissociation of 8B
at the radioactive beam facility at RIKEN, and at the GSI facility in Germany,
enabled us to resolve questions of proton burning in the sun, and the
production of the (8B) solar neutrinos as discussed in a Search
and Discovery article in the November
18, 1994 issue of Science magazine.
Facilities in the USA and Abroad
Our experiments are being conducted by faculty and
graduate students at various U.S. facilities in Connecticut such as the tandem accelerators at Yale University
, and in other states, such as the TUNL Lab
at Duke University. We carried out experiments in Argonne National Laboratory, the Hollifield Radioactive Ion Beam
Facility at Oak Ridge
National Lab and at the Michigan State
University National Cyclotron Facility.
Our faculty and students are also engaged in research
abroad in Europe and Japan, at the radioactive beam facilities at Louvain-La-Neuve in Belgium, at RIKEN in Saitama, outside Tokyo, and at
GSI , the heavy ion accelerator in Darmstadt,
Germany.

Professor Weissman and Ms. Ayala RaÕanan Hard at
Work at Weizmann, Israel.
People
Publications
UConn Lab for Nuclear Sciences at Avery Point
UConn Physics Homepage
Last Updated: 17 October 2005
Webmaster: Tristan.Kading@uconn.edu