Great Progress has been made in Astrophysics at
Notre Dame. This area couples • Great progress has been
made in Astrophysics at Notre Dame. This area couples naturally
into Notre Dame’s new involvement with the Large Binocular
Telescope and the Steward Observatory facilities. This area also
includes nuclear astrophysics (e.g. nucleosynthesis in the early
universe and in supernovae) and particle astrophysics (e.g. missing
mass in universe). The new Center for Astrophysics at Notre Dame
University (CANDU) has been established and will serve as a focus
for this effort.
Some of the projects currently being worked on
by the Center’s members are Theoretical and Observational
Cosmology (Professors Grant Mathews and Peter Garnavich), Computational
Astrophysics (Professors Dinshaw Balsara and Grant Mathews), Observational
Astrophysics (Professors Peter Garnavich, Terrence Rettig and
David Bennett), Star and Planet Formation (Professors Terrence
Rettig and Dinshaw Balsara), Galaxy Formation and Evolution (Professors
Grant Mathews and Dinshaw Balsara), General Relativity (Professor
Grant Mathews), Gravitational Microlensing (Professor David Bennett),
Supernovae and Stellar Nucleosynthesis (Professors Grant Mathews
and Dinshaw Balsara), High Energy Astrophysics:Gamma-Ray Bursts/Cosmic
Radiation/Solar Flares (Professors John Poirier, Grant Mathews,
Peter Garnavich and David Bennett).
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Center for the Study of Biocomplexity
Homepage
Members of the University of Notre Dame Interdisciplinary
Center for the Study of Biocomplexity (ICSB) (http://www.nd.edu/~icsb/)
come from eight departments from the schools of science and engineering
and are working together to meld physical, mathematical, and computational
approaches with those of modern biology to understand this complexity
in a quantitative and predictive way. One of the main goals of the
ICSB is to improve communication between biological, mathematical
and physical scientists with emphasis on developing techniques and
tools of broad utility to bioscientists
All ICSB projects combine quantitative experiments
and computer simulation and build on the mutually complementary
strength of the researchers at Notre Dame with the support from
collaborators at other institutions. Projects currently under way
within the center include:
Modeling Organogenesis and Tissue Development,
including the mechanical properties of tissues.
Modeling Biological Networks at the molecular
level, including gene regulation pathways, transport and mechanical
interactions in the cytoskeleton and intra- and inter-cell signaling
networks.
Modeling Cellular Dynamic, including the mechanical
properties of cells.

Joint Institute for Nuclear Astrophysics (JINA)
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The Joint Institute for Nuclear Astrophysics (JINA)
is a collaboration between the University of Notre Dame, Michigan
State University, and the University of Chicago to address a broad
range of experimental, theoretical, and observational questions
in nuclear astrophysics. In the fall of 2003, JINA received a five
year grant by the National Science Foundation Physics Frontier Center
(PFC) program. This funding offers the opportunity for JINA to develop
as an intellectual center with the goal enabling swift communication
and stimulating collaborations across field boundaries and at the
same time providing a focus point in the rapidly growing and diversifying
field of nuclear astrophysics.
Nuclear astrophysics focuses on questions at the
interface of nuclear physics and astrophysics. It addresses the
role of nuclear structure and nuclear reaction processes as engines
of stellar evolution and stellar explosions and seeks to find answers
to the fundamental questions about the origin of the elements found
today throughout the universe. Because of the extreme nature of
the stellar conditions, the understanding of these nuclear processes
poses an enormous challenge to astrophysics, nuclear theorists,
and experimentalists. Advances in experimental nuclear astrophysics
now allow physicists to investigate many stellar processes in the
laboratory. These advances span a wide range of techniques and facilities.
They include innovative methods to measure the extremely slow reactions
in the interiors of stars, as well as new facilities to produce
the very same exotic, short-lived nuclei that come to existence
in the extreme environments of stellar explosions.
While these experiments are pursued at the accelerator
facilities at Notre Dame, Michigan State University, and Argonne
National Laboratory, complementary theoretical questions about the
macrophysics aspects and conditions of stellar evolution and stellar
explosion are addressed by JINA at the University of Chicago, at
Notre Dame, and with associated groups at the University of California
at Santa Cruz and Santa Barbara, the University of Arizona, Argonne
National Laboratory and Los Alamos National Laboratory. This component
branches towards fundamental understanding of the processes governing
life and death of stars as well as to the identification of unique
signatures for present and future observation. Close collaboration
and exchange of scientists between these institutions is necessary
to address the broad and complex range of scientific goals.
JINA will foster an interdisciplinary approach to
the open questions in nuclear astrophysics. It will drive further
advances in nuclear physics and astrophysics that are specifically
needed to answer open questions in nuclear astrophysics, and it
will ensure that advances in individual fields will ultimately lead
to progress in our understanding of nuclear astrophysics. Find out
more about JINA by visiting our website at www.JINAweb.org.
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The Institute for Theoretical Sciences
Homepage
The U.S. Department of Energy's Argonne National
Laboratory and the University of Notre Dame have entered into an
agreement to create a new joint Institute for Theoretical Sciences.
The purpose of the Institute for Theoretical Sciences
(ITS) is to promote theoretical research at ANL and ND by attracting
scientists, junior researchers, as well as graduate students in
selected areas of basic and applied theoretical sciences. To achieve
its aims, the institute cooperates with all Departments at ND and
Divisions at ANL which pursue research in theoretical sciences.
Furthermore, the institute coordinates its activities with other
domestic and international academic institutions. The institute
will promote and encourage the participation of underrepresented
groups, such as women and underrepresented minorities at the highest
levels of academia and research.
"The institute will provide visiting scientists
with the opportunity to pursue research in the intellectually stimulating
environments of Notre Dame and the Argonne National Laboratory,"
said Boldizsár Jankó, executive director of the new
institute and associate professor of physics at Notre Dame.
Notre Dame Center for Materials Fabrication
& Nanotechnology
Development of new materials and their design
are at the heart of contemporary technology, from the semiconductor
chip and lasers for various applications, to the design of entirely
new man-made multi-functional materials for new detectors and
new types of computation (e.g., quantum computing). Most of these
applications involve either semiconductors or magnetics.
State-of-the-art materials fabrication techniques
allow researchers to create “designer materials” that
are built-up atom-by-atom into an architecture required by the
specific function that is being sought. Notre Dame has been a
pioneer in the development of materials which combine both semiconducting
and magnetic functions, thus allowing one to integrate both those
functions into a single designer material. This is accomplished
by the technique of molecular beam epitaxy (MBE), where atoms
are directed “on demand” to create desired atomic
configurations aimed at performing specific operations. Our MBE
facility has been at the forefront of designing and fabricating
new multifunctional materials, including quantum structures for
semiconductor blue laser systems, and most recently also materials
that combine electronic and magnetic properties, with an eye at
their future applications in the emerging field of spin-electronics
(“spintronics”). The MBE Laboratory at Notre Dame
collaborates on a continuous basis with over 50 other research
institutions – Universities, Industry, and National Government
Laboratories – both by providing research materials and
by sharing our expertise with scientists in those institutions.
The MBE Laboratory for Materials Fabrication and
Nanotechnology at Notre Dame is directed by Jacek K. Furdyna,
Marquez Professor of Physics. Professor Furdyna is a Fellow of
the American Physical Society andis the 2002 recipient of the
Honorary Doctorate from the University of Warsaw. His work on
spin entanglement, carried out in collaboration with scientists
at the University of Michigan on materials fabricated in the MBE
Laboratory, has been listed by The Discover Magazine as one of
the most significant scientific achievements of 2003.
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Institute for Structure and Nuclear Astrophysics Homepage 
Institute for Structure and Nuclear Astrophysics (ISNAP) is the
university center which operates the Nuclear Science Laboratory at Notre Dame. The laboratory is built around three accelerators (JN-VdG, KN-VdG, and an FN-Tandem) and a broad program in low energy nuclear physics. The three accelerators offer a wide range of beam energies providing ideal conditions for nuclear structure and nuclear astrophysics experiments. The FN tandem accelerator operates with a Pelletron charging system up to a terminal voltage of 12 MV. The JN and KN accelerators provide high beam intensities with terminal voltages of up to 1 MV and 4 MV, respectively. We have the capability of producing both stable and unstable beams of various types for research interests that span from Nuclear Structure, studies of Nuclear Reactions with Radioactive Ion Beams (RIBs), and Nuclear Astrophysics. In addition to our basic science interests, we have an interdisciplinary program in radiation chemistry, in bio-mechanics, materials testing, and a newly developing program in collaboration with the Department of Anthropology and the Snite Art Museum using PIXE for element analysis in archaeological samples. Our radiation chemistry program revolves around studies of the effects of ionizing radiation on the molecular decomposition of water and various organic materials, including polymers. The practical aspect of this type of work has direct implications to the management of nuclear reactors, and treatment or storage of radio-active waste media. This work is carried out in collaboration with the Department of Energy funded Radiation Laboratory which is also located at Notre Dame and an outgrowth of the Manhattan project. We pursue research with two industries. This work involves testing new detectors as well as artificial human body components for durability. The laboratory has a large number of users from some 16 US facilities inclusive of National Laboratories and Universities, 30 foreign countries, and 2 industries. The operation of the laboratory is funded by the NSF. The NSF grant was renewed in 2008 for another three years of funding. In 2008 ISNAP also received MRI funding for the purchase and installation of a new high intensity heavy ion accelerator for inverse kinematics experiments
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QuarkNet is a teacher professional development
effort funded by the National Science Foundation and the U.S.
Department of Energy. Teachers work on particle physics experiments
during the summer and join a cadre of scientists and teachers
working to introduce some aspects of their research into their
classrooms. This allows tomorrow’s particle physicists to
peek over the shoulder of today’s experimenters.
QuarkNet brings high school students and teachers
to the frontier of the 21st century research that seeks to resolve
some of the mysteries about the structure of matter and the fundamental
forces of nature.
QuarkNet centers are connected to high-energy
physics experiments operating at CERN in Switzerland, at Fermilab
in Illinois, at SLAC in California, and others. We have formed
52 centers associated with research groups at universities and
labs across the U.S. and Puerto Rico. Our department provides
management for the national program, and also operates the regional
Notre Dame QuarkNet Center.
Physicists mentor and collaborate with high school
teachers. Through these collaborations:
Students learn fundamental physics as they
analyze live online data and participate in inquiry-oriented
investigations.
Teachers join research teams with physicists
at a local university or laboratory.
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Center for Complex Network Research
Homepage
The primary goal of the Center for Complex
Network Research is to capitalize on the international impact
of networks related research taking place at Notre Dame,
becoming the information and intellectual hub of network
science. This is achieved through a few key activities such
as: offering sabbatical support for prominent visitors,
providing resources to industry and government agencies
as a think-tank for network applications, and stimulating
dialog for the art and science of networks. Finally, knowing
that network science is applicable in all aspects of life,
the center aims to also serve as a mechanism for attracting
non-governmental funding to meet the demands of technological
growth in the corporate and foundation sectors of business
and research.
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