In an investiture ceremony held in room 1415 BPS Building on 20 April 2017, Physics & Astronomy Professor Joey Huston was honored as an MSU Foundation Professor.
On Saturday, 15 April 2017, the MSU Department of Physics & Astronomy will be a sponsor of Physics and Astronomy Day at Impression 5 Science Center in Lansing from 10:00 am to 5:00 pm. Students and faculty will lead hands-on interactive activities for children of all ages.
MSU’s nuclear physics graduate program, part of the College of Natural Science’s Department of Physics and Astronomy, is among seven MSU graduate programs that rank No. 1 nationally in the latest U.S. News & World Report rankings.
An article published on 18 February 2017 in MSU Today features MSU Physics & Astronomy Assistant Professor Chris Wrede, giving details of some of his research into the generation of nuclear isotopes in stellar explosions, which was the topic of a presentation he made recently at a meeting of the American Association for the Advancement of Science (AAAS). He explains how experiments done at the NSCL provide real evidence linking astronomical observations with theoretical and computational models of how heavy nuclei are formed and distributed in nature.
The American Astronomical Society (AAS) has announced the results of its 2017 elections, and MSU Physics & Astronomy Professor Megan Donahue has been elected as the new AAS President. She will take office this summer.
Starting in February 2017 and continuing until March 2018, MSU Physics & Astronomy University Distinguished Professor Michael Thoennessen will serve as the Chair of the Executive Committee of the American Physical Society's Division of Nuclear Physics.
Physics & Astronomy Professor David Tománek is one of ten recipients of MSU's 2017 William J. Beal Outstanding Faculty Award.
An article published on 31 January 2017 in MSU Today features MSU Physics & Astronomy Associate Professor Tyce DeYoung and his research connections with the IceCube Neutrino Observatory at the South Pole. Measurements of neutrino properties have traditionally been very difficult, and the IceCube detector is refining those measurements in an unprecedented way. This may allow comparisons of natural results with theoretical models which can help scientists to understand relationships between certain fundamental particles and forces.