UCLA Researcher Gains Access to Quantum Refrigeration
Professor Chee Wei Wong will utilize advanced cooling technology to develop new superconducting quantum computers.
Updated on Oct. 23, 2026 in Quantum Computing
Live Poll
Do you believe partnerships between universities and private companies effectively strengthen local technology ecosystems?
Professor Chee Wei Wong has secured access to a ProteoxS dilution refrigerator from Quantum Design to advance research into two superconducting qubit-based quantum computers. This collaboration supports development work at the University of California, Los Angeles and the company's San Diego facility.
Why it matters
The partnership aims to strengthen the Southern California Quantum Alliance ecosystem by integrating academic research with industrial hardware access. It specifically targets workforce development for California's growing quantum technology sector.
The ProteoxS dilution refrigerator provides an enhanced sample support architecture specifically designed for the research group's qubit chips. The team is currently building two superconducting qubit-based quantum computers.
The players
Chee Wei Wong
He is a professor leading the research group developing superconducting qubit-based quantum computers.
Quantum Design
Founded in 1982, the company manufactures quantum sensing and cryogenic measurement technologies.
The details
The collaboration provides University of California, Los Angeles students with physical access to the Quantum Design laboratory for research training. This effort focuses on high-fidelity performance for 2-qubit operations.
Timeline
1982: Quantum Design was founded in California.
The Tech Race
This collaboration reflects the ongoing shift toward integrating academic research with specialized industrial hardware to accelerate quantum development. By sharing critical cryogenic infrastructure, these organizations aim to maintain California's competitive edge in the global quantum sector.
This research initiative provides students with direct access to advanced cryogenic instrumentation, bridging the gap between classroom theory and industry-grade hardware. Local progress in quantum computing may eventually influence the development of next-generation computational technologies.
The takeaway
Advancing quantum fidelity requires deep integration between experimental physics research and specialized cryogenic hardware providers. Strengthening these regional alliances remains a critical step for scaling complex quantum computing architectures.
Further reading
Learn more about the latest innovations in Quantum Computing.
Source note: This article includes information reported by Quantum Zeitgeist.
Live Poll
Do you believe partnerships between universities and private companies effectively strengthen local technology ecosystems?
