We’re developing quantum technologies that integrate with existing platforms—making them scalable, energy-efficient, and manufacturable. Our research spans silicon-based qubits, superconducting circuits, and quantum control systems, all built using materials and fabrication techniques that support broad compatibility and reproducibility.
By leveraging established infrastructure and fabrication methods, we aim to accelerate quantum system development while reducing barriers to implementation. Our team explores both fundamental quantum science and applied engineering, with a focus on coherence, integration, and hybrid architectures that combine quantum and classical components.
This approach enables new capabilities in precision measurement, secure communication, and advanced computation—while remaining grounded in practical design principles that support scalability and real-world deployment.

Latest News

Wisconsin CHIPS joins Silicon Crossroads Microelectronics Commons (SCMC) Hub
Wisconsin CHIPS is now a member of the Silicon Crossroads Microelectronics Commons Hub (SCMC), a midwestern coalition advancing semiconductor innovation, workforce development, and infrastructure.

Wisconsin CHIPS joins SWAP Hub & ME Commons
Wisconsin CHIPS is pleased to announce its new membership to the Southwest Advanced Prototyping (SWAP) Hub led by Arizona State University. The SWAP Hub is one of eight that makes up the Microelectronics (ME) Commons, which was established to position the United States as a global leader in microelectronics research and enable domestic fabrication.

Kawasaki named a Moore Foundation Experimental Physics Investigator
Jason Kawasaki, an associate professor in materials science and engineering at the University of Wisconsin-Madison, has been named a 2025 Gordon and Betty Moore Foundation Experimental Physics Investigator. Selection to the program is a prestigious honor …
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