Nuclear science & astronomy

MSU is home to the National Superconducting Cyclotron Laboratory, a world leader in rare isotope research, and has been selected to establish the next-generation Facility for Rare Isotope Beams. High-energy physics researchers at MSU explore the fundamental particles of matter at the largest accelerators in the world, including the new Large Hadron Collider at the CERN laboratory in Switzerland. About 10 percent of U.S. nuclear science doctoral students earn their degrees in MSU's highly ranked physics program.

Using telescopes and the tools of nuclear physics to investigate solar and stellar dynamics, researchers at MSU have made important discoveries about how stars are formed and the size of black holes. MSU is one of the few universities where astronomers have access to their own telescope. The SOuthern Astrophysical Research telescope, located in the mountains of Chile, beams images of star-forming regions of space to an observing room on MSU’s campus.

MSU News, Oct 3 2012

Research by Michigan State University astronomers has scientists re-thinking the fates of black holes, particularly in groups of stars known as globular clusters.

The research of Jay Strader, MSU assistant professor of physics and astronomy, and colleagues focused on a cluster called Messier 22, or M22, a collection of hundreds of thousands of stars located about 10,000 light years from Earth. Using images of unprecedented depth observed at radio wavelengths, Strader and his team were surprised to find not one but two black holes in the cluster.

MSU News, Sep 21 2012

A Michigan State University astronomer is part of an international team of scientists that has discovered a galaxy so far, far away that its light was emitted not all that long after the Big Bang occurred.

The research of MSU’s physics and astronomy professor Megan Donahue and colleagues is detailed in the recent issue of the journal Nature. They found that this galaxy began emitting light “just” 490 million years after the Big Bang, when the universe was only 3.6 percent of its present age.

MSU News, Mar 8 2012

After 40 years of searching, physicists have the elusive Higgs boson in their sights. Wade Fisher, Michigan State University assistant professor of physics, presented the team’s results at a physics conference in La Thuile, Italy on March 7.

MSU News, Jan 27 2012

The Michigan State University Board of Trustees has given its approval to the next step in the development of the Facility for Rare Isotope Beams, a world-class nuclear research facility that will attract scientists from all over the world to East Lansing while creating more than $1 billion in economic activity in the region.

In approving the administration’s request to proceed with the project, the board established a budget of $20 million, which will be used for site preparation and excavation.

MSU News, Jun 22 2011

Michigan State University is among several institutions that will share a five-year, $25 million grant designed to prepare students to work on the country’s nuclear security needs, including the threat posed by the potential proliferation of nuclear weapons.

When the Large Hadron Collider is running at full speed, it produces more data than any single computer in the world could process. Every 25 nanoseconds, bunches of protons collide and hundreds of thousands of individual sensors inside the detector report and create a massive flow of data. Some data makes its way from CERN in Geneva, Switzerland to East Lansing where it is processed as part of the global ATLAS experiment.

Dr. Filomena Nunes, associate professor of physics at Michigan State University, studies the origins of the universe. As stars burn, nuclear fusion creates elements. Conventional stars cannot create elements heavier than iron, yet such elements exist in nature. The National Academy of Science calls the question of how elements heavier than iron were formed one of the top 11 unanswered questions in physics.

MSU News, Apr 28 2010

Capturing fleeting bits of matter to reveal the nature of the universe is a little like trying to trap incredibly tiny, impossibly speedy mice alive.

A better mousetrap could be at hand, promising new insights that could bring researchers out of the woodwork to conduct cutting-edge experiments at Michigan State University’s National Superconducting Cyclotron Laboratory.

Michigan State scientists landed a $3.28 million federal grant to develop an electromagnetic trap to snag and quickly extract rare isotope ricochets from high-speed particle collisions they create.

Production has been in full swing this winter on “The Small Matter of Big Science,” an hour long documentary exploring the origins and milestones of nuclear science and isotope research. Commissioned by Michigan State University and the National Superconducting Cyclotron Laboratory (NSCL), the program features physicists from around the country and highlights the cultural importance of exploration and investment in science infrastructure.

MSU News, Apr 7 2010

When the Large Hadron Collider began gathering more data than anyone can imagine, much of it made a beeline to Michigan State University.

The LHC, the world’s most powerful particle accelerator, is located at the European Centre for Nuclear Research, or CERN, as it is known by its French acronym. Straddling the border between France and Switzerland, the LHC went back into operation last week after a nearly yearlong hiatus due to technical issues.

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