Accelerating US Dominance in Quantum Technology, UCSB Secures a Crucial Role in the National Quantum Virtual Laboratory Initiative
A global pioneer in quantum materials and device engineering, the University of California, Santa Barbara (UCSB) has formally announced that it will be joining the ground-breaking National Quantum Virtual Laboratory (NQVL) project. By creating a common, easily accessible research infrastructure throughout the country, this crucial step aims to accelerate the United States’ leadership in quantum science and technology.
Established under the National Quantum Initiative Act, the NQVL unites a powerful coalition of academic institutions, national labs, and business executives. The NQVL’s main objective is to serve as a vital link between basic research and real-world application, with a particular emphasis on converting America’s dominance in fundamental quantum physics into scalable, commercially viable quantum systems, goods, and technology.
The NQVL intends to give researchers across the country remote access to highly specialized, state-of-the-art quantum hardware and simulation platforms by establishing a single digital ecosystem. The software and technology needed for quantum physics are currently quite specialized and centralized in a small number of labs. The goal of the NQVL is to make these crucial quantum technologies more widely available.
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Including Top-Notch Facilities
The participation of UCSB is a significant acknowledgement of its strong heritage in quantum information science and technology (QIST), especially its groundbreaking contributions to the fields of scalable quantum structures, quantum materials, and superconducting qubits.
By joining the NQVL, UCSB researchers will link their current on-campus facilities to the national network, notably the Qubit Fabrication Facilities and Quantum Foundry. A key role will be played by the National Science Foundation (NSF)-funded Quantum Foundry, which will provide crucial quantum materials and device expertise for NQVL experiments that are available to researchers nationwide.
The participation of UCSB enhances the goal “to make quantum technology accessible and collaborative,” according to Dr. David Awschalom, a member of the NQVL advisory board. In a similar vein, NQVL program coordinator Dr. Tereza Symul underlined that the initiative is “not just a virtual lab—it’s a national ecosystem,” adding that UCSB contributes top-notch quantum hardware capabilities that will accelerate group advancement.
Through safe, cloud-based access, the collaborative platform is anticipated to act as the digital backbone for U.S. quantum collaboration, connecting researchers and processors. MIT, the University of Chicago, Sandia National Laboratories, Fermilab, and Lawrence Berkeley National Laboratory are among the top partner institutions linked by the program.
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Pioneering the Next Wave of Quantum Platforms for Neutral Atoms
The creation of next-generation quantum hardware is a major component of UCSB’s distinctive contribution. The university has been given a significant position on one of the first design phase teams that the NSF has chosen and supported.
The UCSB team, under the direction of professor Daniel Blumenthal’s lab, is working with federal agencies, commercial sector partners, and colleagues from MIT, UCLA, Harvard, and the University of Maryland. The Open Stack Rydberg Atom Quantum Computing Laboratory (ORAQL) project is being managed by this group, which is led by Dirk Englund, a professor at MIT. For this work, the team has received $4 million spread over two years.
The ORAQL project’s main goal is to lead the way in neutral-atom quantum platform advancements, which will further quantum information science and engineering. With an ambitious target of up to 400 logical qubits, the project specifically intends to define and create a national roadmap for next-generation neutral atom-based quantum technology.
The ORAQL team will construct a digital twin model, a dynamic simulation that reacts to inputs, of a quantum computer so that any researcher in the United States can test and improve novel quantum algorithms.
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Creating Quantum Solutions at the Chip Scale
For the team to succeed, UCSB’s technical know-how is essential. The UCSB team shares its expertise in Atomic Quantum Photonic Integration (OCAQπ) and Optical Communications. This entails creating essential chip-scale elements required to harness the strength and accuracy of quantum physics outside of strictly regulated lab settings.
The NQVL advances the U.S. objective of creating a strong quantum internet by fusing systems like superconducting and trapped-ion computers with photonic and neutral atom systems, boosting both national security and economic innovation.
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Educating the Next Generation of Workers
Significant emphasis is placed on workforce development as part of the NQVL project, which goes beyond hardware development and rapid discovery through shared computational resources. Through the development of online and virtual reality-based training programs especially intended to increase the size of the U.S. quantum workforce, UCSB will support the strategic goal of Education & Training.
The NQVL has a significant overall impact because it brings together quantum activities from the public, private, and academic sectors, speeding up the conversion of discoveries into marketable goods in areas like national security, secure communications, and medication development. UCSB is making sure that its scientists and students stay at the vanguard of the quantum technological change by taking the lead in the ORAQL project and contributing more broadly to the NQVL.
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