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Numerous possibilities are available for advanced studies and post-doctoral work in nuclear chemistry. Most research activities take place at the National Superconducting Cyclotron Laboratory (NSCL), a cutting-edge facility utilizing superconducting technology to generate unstable isotope beams, conveniently situated adjacent to the Chemistry Building on campus. The NSCL is currently developing the next-generation Facility for Rare Isotope Beams (FRIB), ensuring Michigan State University maintains its global prominence in this discipline.
Supported by the National Science Foundation, the NSCL operates the Coupled Cyclotron Facility and a projectile-fragment separator, capable of producing diverse isotopic beams, including extremely rare varieties. Doctoral research projects span various areas: from particle decay spectroscopy employing sophisticated radiation detectors and innovative data collection techniques under Sean Liddick's team, to examining short-lived radioisotope structures through colinear laser spectroscopy in Paul Mantica's group. Other investigations include radioactive ion beam-induced fusion reactions, nuclear equation of state exploration, heavy-ion reaction experiments for creating exotic beams, beta-decay research at stability boundaries, and radioactive beam thermalization for in-depth analysis in David Morrissey's research group.
Piotr Piecuch and his team, along with nuclear physics colleagues, have successfully applied contemporary quantum chemistry-inspired coupled-cluster methods—initially designed for electronic systems—to nuclear structure theory. This breakthrough has facilitated precise coupled-cluster calculations for mid-sized atomic nuclei.