The US National Science Foundation will invest more than $290 million in eight research institutes working on quantum materials, devices, computing, sensing, and measurement.
Three of the Quantum Leap Challenge Institutes are new, while five established institutes will receive renewed support. Each will receive approximately $28 million to $37 million over five years, according to the NSF announcement.
Together, the institutes involve 36 higher-education institutions in 19 states, federal laboratories, and more than 30 US companies. NSF said the industry partners will help move research findings toward techniques and products that can be scaled for manufacturing. The program will also train hundreds of undergraduate students, graduate students, and early-career researchers.
Materials and fabrication underpin quantum performance
Several institutes will focus directly on the materials and manufacturing problems that limit quantum technologies. The new Institute for Manufacturable and Resilient Superconducting Quantum Information Systems, or MARQUIS, will combine materials science and semiconductor fabrication to improve Josephson junctions. These components are central to technologies built around superconducting qubits.
Another new institute, Fault Tolerant Quantum Systems, Architectures and Applications, will investigate software and hardware approaches for making quantum systems more resistant to the fragility of quantum information. Its work will include materials intended to improve the reliability of quantum sensors and computers.
Other institutes will address modular quantum architectures, error correction, quantum algorithms, solid-state systems, neutral atoms, trapped ions, and simulation. The renewed Institute for Quantum Computation will also use quantum systems to investigate materials and methods that could improve quantum computing itself.
The research highlights the relationship between device design and materials characterization. Small differences in interfaces, defects, film quality, or fabrication conditions can affect how a quantum component behaves. Previous work involving a graphene Josephson junction, for example, required researchers to develop a superconducting tunneling-spectroscopy method capable of measuring quantum states with high energy resolution.
Quantum sensing expands the measurement agenda
The investment also supports two institutes centered on sensing. The renewed Quantum Sensing for Biophysics and Bioengineering institute will develop quantum nanoprobes and methods for measuring processes inside living cells. The Quantum Systems through Entangled Science and Engineering institute will investigate molecular sensors, solid-state systems, quantum simulations, and highly precise atomic clocks.
These programs remain research initiatives, not announcements of instruments ready for routine laboratory use. For managers at participating facilities, however, the scope points to practical requirements: stable environmental conditions, vibration and electromagnetic-noise control, cryogenic or vacuum infrastructure where applicable, contamination control, and rigorous calibration and metadata practices.
Cross-institutional work creates an additional quality challenge. Laboratories must be able to determine whether differences arise from the material, the device-fabrication process, or the measurement system. Shared reference materials, interlaboratory comparisons, and documented uncertainty will be important for producing results that collaborators can reproduce.
The investment, therefore, extends beyond quantum-computing theory. It supports the laboratory infrastructure, materials expertise, measurement science, and workforce development needed to turn fragile experimental systems into technologies that researchers and manufacturers can test consistently.
This article was created with the assistance of Generative AI and has undergone editorial review before publishing.
