Matthew R. Stoneking

Matthew R. Stoneking is the Alice G. Chapman Professor of Physics at Lawrence University, where he has served since 1997. His research focuses on experimental plasma physics, particularly the magnetic confinement of pure electron plasmas and the creation of electron-positron pair plasmas. He leads the APEX collaboration, developing advanced levitated dipole traps and collaborating internationally with institutions like the Max Planck Institute for Plasma Physics. His work integrates superconducting magnet technology, FPGA stabilization, and positron beam manipulation to explore fundamental plasma behaviors.

Education: BA in Physics from Carleton College and PhD in Physics from the University of Wisconsin-Madison. His research interests span non-neutral plasmas, magnetic confinement engineering, and laboratory astrophysics. Key projects include the construction of the APEX-LD trap and the development of diagnostic techniques using gamma-ray annihilation signatures.

Research trends in his articles emphasize advancing pair plasma confinement, optimizing magnetic trap designs, and understanding plasma behavior under extreme conditions. Collaborations with global teams aim to bridge theoretical models with experimental validation. His work contributes to both plasma physics and astrophysics by simulating conditions found in cosmic environments.

Despite no explicit awards listed, his sustained contributions to experimental plasma physics highlight significant academic impact. Advising emphasizes student involvement in cutting-edge experiments, while grants likely support APEX infrastructure and international collaborations. His laboratory at Lawrence University serves as a hub for innovative plasma research, complemented by advanced facilities at partner institutions.

Current projects include refining superconducting coil levitation, improving positron injection efficiency, and exploring thermal equilibrium dynamics in curved magnetic fields. Future work aims to achieve long-lived electron-positron plasmas, with potential applications in fundamental physics and energy research.