The School of Mechanical and Materials Engineering Seminar Series, “Fusion Energy: Breakthroughs Driving a Clean Future” Presented by Dr. Jay Nawash

About the event

Fusion Energy: Breakthroughs Driving a Clean Future

Presented by Dr. Jay Nawash, Lab Manager, Zap Energy

Abstract:

This presentation provides a high‑level overview of the scientific and technological progress that has brought fusion energy to its current moment of unprecedented momentum. We highlight how advances in Sheared‑Flow‑Stabilized (SFS) Z‑pinch devices have improved plasma stability, confinement, and key performance measures tied to the fusion triple product. These developments support a uniquely compact fusion architecture enabled by modern innovations in high‑repetition‑rate pulsed‑power systems, durable electrode technologies, and liquid‑metal wall components, all central areas of research at Zap Energy. Collectively, progress across plasma physics, pulsed‑power engineering, diagnostics, and advanced modeling has shifted fusion from a distant aspiration to an active, multidisciplinary engineering challenge pursued through multiple promising pathways. This talk will outline major milestones achieved by Zap Energy through sustained experimental and technological innovation—advances that are accelerating the transition from laboratory‑scale demonstrations toward practical, scalable fusion power.

Biography:

Jay Nawash joined Zap Energy in 2025, where he serves as a Lab Manager supporting scientific operations, laboratory safety, and workflow optimization across multiple research spaces. In this role, he works closely with engineers and scientists to maintain high standards in experimental readiness, equipment reliability, and overall lab performance. Before joining Zap, Jay worked at Group14 Technologies, where he had a similar role.

Jay’s scientific background is rooted in experimental physics, particularly crystal growth and materials characterization. His doctoral work at Washington State University focused on the growth and analysis of high-quality crystalline materials, contributing to a deeper understanding of solid-state systems and their optical and electronic properties.

He has also held significant academic roles. At the University of Wisconsin–Whitewater, he served as an Associate Professor of Physics, where he taught a broad range of physics courses, conducted materials research, and mentored undergraduate researchers. He later served as the Director of Research. At the University of Washington Bothell, He founded and directed the Undergraduate Research Program supporting faculty scholarship, research infrastructure, and student-driven projects.