Connect the full research stack.
Quantum progress depends on more than a single technology. It requires physics, engineering, computer science, materials, fabrication, controls, and advanced computing to work together.
The Utah Quantum Initiative coordinates partners across those disciplines, maps statewide capabilities, and helps connect research with national priorities and real-world needs.
Quantum sensing
Quantum sensors can enable highly precise measurement for navigation, timing, imaging, environmental monitoring, subsurface analysis, and defense applications. Utah’s strategy emphasizes the path from laboratory performance to systems that can operate in demanding environments.
Photonics & communications
Photonics provides essential components for controlling, connecting, and reading quantum systems. Research in optical devices and communications can support sensing, networking, secure information exchange, and integrated quantum hardware.
Quantum & high-performance computing
Quantum computing is developing alongside classical high-performance computing. Utah’s opportunity includes algorithms, simulation, hybrid workflows, and the computing infrastructure researchers and companies need to evaluate useful applications responsibly.
Materials, semiconductors & hardware
Quantum systems require specialized materials, controls, packaging, interconnects, fabrication, and cryogenic electronics. Utah’s semiconductor, electronics, aerospace, and advanced-manufacturing base can help strengthen this enabling layer.
Research coordination: Nucleus Institute will staff the Quantum Coordination Council and connect higher education, state government, and industry around a statewide capability map, research gaps, shared infrastructure options, and partner-backed opportunities. Priorities are grounded in Executive Order 2026-06 and the landscape report due March 30, 2027.