معرفی
Matthew McCluskey is a Professor in the Department of Physics at Washington State University, where he conducts research in high-pressure and semiconductor physics. He is affiliated with the Institute for Shock Physics and the Dynamic Compression Sector at APS, contributing to both static and dynamic compression studies. His work integrates advanced spectroscopic techniques with materials science to explore optoelectronic materials.
- Ph.D. in Physics, University of California, Berkeley, 1997
- M.Sc. in Physics, University of California, Berkeley, 1993
- B.Sc. in Physics, Massachusetts Institute of Technology, 1991
Dr. McCluskey's research focuses on the structural and vibrational properties of semiconductors under extreme conditions. He specializes in wide-bandgap materials like ZnO and GaN, using diamond-anvil cells and low-temperature FTIR spectroscopy. His studies reveal how pressure alters crystal conformations and electronic behavior, with applications in optoelectronics and material design.
His recent publications emphasize infrared spectroscopy of hydrogen and impurities in ZnO, high-pressure conformational changes in organic crystals, and shock-induced band-gap shifts in GaN. The body of work spans defect engineering, vibrational mode interactions, and magnetic semiconductor behavior, highlighting his expertise in both static and dynamic high-pressure experiments.
Scientific recognition includes:
- Young Faculty Performance Award, College of Sciences, WSU (2002)
- Elected Vice Chair (2006) and Chair (2008) of the Gordon Conference on Defects in Semiconductors
- Member, International Advisory Committee, ICDS (2003–2005)
- Honors: Phi Beta Kappa, Sigma Xi, Sigma Pi Sigma
Dr. McCluskey advises graduate and undergraduate researchers and has secured funding through institutional and collaborative grants. He is actively involved in training the next generation of physicists through research mentorship and participation in summer programs like SURE and REU. His laboratory supports advanced spectroscopic measurements under high pressure, contributing to foundational knowledge in condensed matter systems.
He leads research in the Laser Shock Laboratory and Static High Pressure Facilities, utilizing equipment such as diamond-anvil cells and pulsed power systems. His team collaborates across disciplines to investigate material responses under extreme conditions, advancing both theoretical understanding and practical applications in semiconductor technology.
