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

Entrepreneurship Hub announces SEED grant recipients
Six projects across four University of Wisconsin–Madison schools and colleges, including one to utilizing quantum sensors, have received annual State Economic Engagement & Development (SEED) funding, totaling $550,000. The SEED Research Program funds are designated by the state legislature and administered by …

$27M WARF investment fuels UW–Madison’s next frontiers in research
The gift aims to accelerate four high-impact research initiatives at the university: quantum technologies, brain health, fusion energy and national security. A $27 million investment from the Wisconsin Alumni Research Foundation (WARF) will accelerate four …

Lab-to-Market Translation of 2D Semiconductors for Advanced Computing
Wisconsin CHIPS faculty Daniel Rhodes and collaborator Yangchen He are commercializing new materials for advanced computing. With support from the NSF I-Corps program and the Wisconsin MRSEC Advanced Materials Industrial Consortium, Rhodes and He have …
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