The University of Utah's invite-only Quantum Science & Technology Symposium united researchers, industry leaders, and national scholars to advance Utah's strengths in quantum sensing, materials, algorithms, and interdisciplinary collaboration.
Salt Lake City, Utah — April 30, 2026
On April 24, beneath the fossilized gaze of two massive Triceratops skulls, some of Utah's brightest quantum minds gathered to talk about the future. The setting — the Crocker Science Center, built inside the bones of the old Museum of Natural History — was fitting. The conversation spanned, as one attendee quipped, "a couple million years worth of activity."
The University of Utah's Quantum Science & Technology Symposium was a full-day, invite-only event that brought together faculty, postdoctoral scholars, students, select industry partners, and national leaders in science and engineering. The selective guest list was deliberate. Because some discussions touched on quantum algorithms, quantum sensing, and national security implications, organizers kept attendance carefully curated.
A Symposium Built Around the U of U's Strengths
Collaboratively organized by the Office of the Executive Vice President for Academic Affairs, the Office of the Vice President for Research, the College of Science, the John and Marcia Price College of Engineering, and the Quantum Research Working Group, the symposium was designed around a clear strategic intention: showcase what the University of Utah is actually best at.
That means quantum sensing, quantum materials, quantum chemistry, and quantum algorithms, and not, notably, quantum computing hardware, which tends to dominate public conversation about the field.
"Quantum science is reshaping what's possible, driving new frontiers in innovation, strengthening our economy, and advancing national security. For Utah, this is a moment to lead," said University President Taylor Randall. "We are bringing together talent, partnership, and discovery to help define this next era and translate it into real impact for our state and beyond."
Three distinguished keynote speakers anchored the program: Ashok Ajoy of UC Berkeley, Andrea Young of UC Santa Barbara, and Scott Diddams of the University of Colorado Boulder, each representing leading-edge work in quantum sensing, advanced materials, and precision metrology.
Morning, Midday, and Afternoon: A Full Spectrum
Morning sessions highlighted the university's strengths in quantum chemistry, advanced materials, and computational discovery, including how quantum algorithms can transform molecular modeling and how autonomous, AI-powered laboratories can accelerate the search for next-generation quantum materials.
Midday sessions dove deeper into quantum physics, condensed matter science, and theoretical discovery. These sessions explored nanoscale systems, correlated electron behavior, and room-temperature spin-based sensing.
The afternoon turned to translation: how quantum ideas move from laboratory concepts toward deployable technologies, including ultra-fast superconducting architectures, MEMS-enabled quantum sensors, and software tools designed to improve the performance of emerging quantum computers.
"The University of Utah has multiple strengths in quantum research — from chemistry and materials discovery to physics, engineering, sensing, and advanced computing," said Mitzi Montoya, Executive Vice President for Academic Affairs and Provost. "What makes this moment so exciting is our ability to bring these capabilities together in powerful new ways."
The Room-Temperature Question: Where Industry Met Research
One of the day's most generative conversations emerged from a pointed industry observation. Sumit Parashar, Chair, Silicon Slopes Quantum, noted during discussions that the ability to operate quantum technology at room temperature represents one of the most pressing unmet needs from an industry standpoint. Most quantum research and technology currently depends on extreme cold to function — conditions that are difficult and costly to replicate in practical, real-world settings.
That single observation opened a broader dialogue about which quantum approaches are currently functioning best at room temperature, what a room-temperature quantum future might look like, and how university research can stay oriented toward problems that industry actually needs solved.
It was a microcosm of what the symposium was designed to do: ensure that R&D at the University of Utah remains tightly aligned with where the world is heading, not just where the science is interesting.
"Quantum progress requires a commitment to the Radical Inclusion principle we utilize at Silicon Slopes Quantum: bringing together researchers, industry leaders, and innovators to solve our most complex challenges," said Parashar. "By breaking down silos, we accelerate the translation of foundational science, such as room-temperature qubit stability, into the scalable technologies required to navigate the Quantum Cliff. When we connect ideas across disciplines, we create a secure, foundational infrastructure that no single organization could build alone."
On Quantum Computers: A Strategic Choice
One question that surfaces often in Utah's quantum conversations is whether the University of Utah will acquire its own quantum computer. The answer, for now, is a considered no, and the reasoning is instructive.
Quantum computers are expensive, they become outdated quickly, and extracting a meaningful return on that investment requires keeping the machine in near-constant use from the moment it goes live. That model, university leadership has concluded, is better suited to national laboratories, whose core mission is to house expensive shared infrastructure and draw in researchers from across the country to use it.
The University of Utah is already living that model successfully. Multiple national labs have active partnerships with the U and regularly invite its quantum computing researchers to work on their machines, positioning those researchers directly within the national and industry quantum ecosystem in the process.
It is the kind of pragmatic, partnership-oriented thinking that also gave rise to the DOE national lab system in the first place. For now, Utah's investment is going where its distinctive strengths already lie.
Quantum Sensing: The X-Ray Vision Frontier
Perhaps no area of the university's quantum portfolio carries more visceral excitement than quantum sensing, specifically, the ability to detect objects and phenomena through solid matter in ways no existing technology can match.
The implications are wide-ranging: search and rescue operations, deep engineering diagnostics, space and exoplanet research, and industrial applications that are still being imagined. The University of Utah has built a strong research infrastructure in this space, and the technology's potential, to effectively see through dense matter that would otherwise be impenetrable, is the kind of advance that once belonged only to science fiction.
Think Superman's X-ray vision. Now think about what happens when that capability becomes an engineered reality.
Building the Foundation
Beyond the formal sessions, the symposium included Quantum Jeopardy, laboratory tours, networking lunches, and a closing reception. They are all designed to forge the kind of cross-disciplinary connections that move fields forward.
"This symposium is about more than a single day of programming, it is about organizing talent, building connections, and driving research growth," said Erin Rothwell, Vice President for Research. "When we bring our community together around strategic areas like quantum, we create the foundation for new partnerships, competitive proposals, and long-term success."
As quantum technologies continue to reshape industries from medicine to cybersecurity, the University of Utah is making clear that it intends to be a builder, not just a bystander, in the quantum era.
