Our research is exploring what wide and ultra-wide bandgap semiconductors can really do. By working with materials like gallium nitride (GaN), aluminum gallium nitride (AlGaN), and aluminum nitride (AlN), we’re building devices that can handle higher voltages, faster speeds, and hotter temperatures—perfect for tough jobs in transportation, energy, aerospace, and communications.
These kinds of materials are a big deal for industries that need electronics to be more efficient and more durable. Whether it’s powering electric vehicles, managing renewable energy, or supporting high-frequency radar and wireless systems, we’re figuring out how to grow and design high-aluminum-content materials in ways that make them easier to manufacture and scale.
And we’re not just doing the research—we’re building the tools to make it real. With advanced fabrication and prototyping capabilities, we’re helping turn these materials into practical technologies. From growth to packaging, we’re working across the full stack to get new ideas out of the lab and into the world.

Latest News
Exploring Decades of Semiconductor Collaboration between Argonne National Lab & UW–Madison
UW–Madison and Argonne National Laboratory have built a portfolio of shared research for decades. Read how semiconductor researchers from all interest areas have benefited from this affiliation.
New facility establishes UW-Madison as a hub for next-generation semiconductors
UW–Madison has launched a state-of-the-art facility focused on ultra-wide bandgap semiconductors, positioning the university as a key player in next-generation chip research and industry collaboration.
Spotlight on Workforce Development: Wisconsin CHIPS Panel Tackles Semiconductor Industry Needs
Wisconsin CHIPS faculty are organizing a panel on Workforce Development for the U.S. Semiconductor Industry at the IEEE conference hosted by UW–Madison, August 4–6, 2025.
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