CURIE News
The Edgar Experimental Mine in Idaho Springs served as a training ground for students to master the extraction of gold, silver, and lead from the rugged Colorado earth. The “School of Mines” has formally shifted its focus to quantum supremacy, a new kind of treasure. A significant change in the way the US develops and scales next-generation technology is being marked by the historic conversion of portions of these dank, gloomy tunnels into a cutting-edge Quantum Lab.
A pillar of the Colorado Underground Research Institute (CURIE), this facility is an audacious attempt to address the extraordinary sensitivity of quantum systems, one of the most enduring issues in contemporary physics.
The Physics of Silence: Why 200 Meters of Rock Matters
A 19th-century gold mine may not appear like a suitable location for high-tech computers to those who are unfamiliar with it. However, the deep earth is a haven for quantum scientists. Quantum systems are infamously “noisy”; they form the foundation of computers that may simulate new medications or crack codes that were previously unbreakable. The smallest disturbance from cosmic rays, thermal fluctuations, and electromagnetic waves can readily disrupt them. According to Fred Sarazin, a professor and department head of physics at Mines, “the underground setting provides an extraordinarily stable environment.” Researchers are leveraging the soil as a huge, natural shield by burying the facility around 200 meters below the surface.
According to Mines assistant professor Wouter Van De Pontseele, the environment is still astonishingly calm, vibration-free, and thermally stable even 400 meters up the mountain. Because the earth is inherently a “violent place” where protons fall onto the atmosphere, causing cascades of subatomic particles that have the potential to destroy a sensitive quantum system, this depth is vital. The Edgar Mine, protected by a substantial layer of rock, enables the investigation of extremely sensitive systems that are just not amenable to testing on the surface.
The Race for Absolute Zero: Inside Cryolab 1
Cryolab 1, a place created to push the limits of temperature, is the center of this underground complex. Here, scientists are setting up extremely sophisticated devices called dilution refrigerators, which can reach temperatures 270 times lower than those found in outer space. These devices maintain quantum processors at a temperature that is only a few degrees above absolute zero, the point at which atoms almost cease to move. Only at these extremely high temperatures can quantum phenomena like superposition and entanglement be consistently seen.
But there are special engineering challenges when constructing a high-tech lab in a mine. According to Van De Pontseele, “the mining environment can be very dusty.” The institution is building a modular clean room inside the hollowed-out area to counter this. The process of turning a “working mine” into a “clean lab” is painstaking, even when the power source is already there.
Breaking the “Ph.D. Barrier” with the Nation’s First Quantum Degree
The School of Mines is reimagining the human element, while the subterranean lab symbolizes the hardware of this revolution. The university introduced the nation’s first Bachelor of Science in Quantum Systems Engineering program at the beginning of 2026.
The quantum industry has traditionally been thought to be the sole purview of Ph.D. theorists. Mine is actively opposing the current situation. “More than half of the jobs required in the quantum industry today don’t require an advanced degree,” Sarazin says. Professionals with a working knowledge of physics who can develop the infrastructure while keeping an eye on the “whole picture,” which includes electronics, cooling systems, and economic viability, are desperately needed in the sector as “quantum technicians” and systems engineers.
The new degree program, which combines mechanical engineering, computer science, and physics, promotes multidisciplinary abilities and will enroll its inaugural cohort in Fall 2026. To make sure they are prepared for immediate employment after graduation, students will take part in year-long capstone projects funded by the industry. Lincoln Carr, a physics professor and quantum researcher, states, “They need engineers who are ‘quantum aware’ professionals who understand the physics enough to build the infrastructure that houses it.”
Colorado: The “Silicon Valley of Quantum”
These activities are timed to coincide with a larger regional economic push. Colorado was named a federal “Tech Hub” for quantum information technology by the U.S. government in 2023. The Elevate Quantum consortium, a coalition of academic institutions and businesses that secured more than $40 million in federal financing to expand the industry in the Mountain West, followed this classification.
The region is already home to major industry companies like Atom Computing, Quantinuum, and Infleqtion, and there is an increasing need for specialist workers. According to the Colorado Office of Economic Development, during the next ten years, the state’s quantum industry is expected to create 30,000 jobs.
The institution is also investigating quantum sensing, a field that is more advanced than computing at the moment. According to Fred Sarazin, these sensors could eventually take the place of GPS for location because of their extreme sensitivity to motion and magnetic fields.
Looking Toward “Quantum 2.0”
Moving quantum technology from the experimental “prototype” phase into the “production” phase, often referred to as Quantum 2.0, is the ultimate goal of the Edgar Mine lab and the new degree program.
To help with this, the university is also building the Quantum Commons in Arvada, a 70-acre research park that will offer large-scale testing and collaboration space for entrepreneurs. Whether they are working in a fabrication lab in Arvada or collecting data deep in the Edgar Mine, this ecosystem guarantees that students will have plenty of chances to put their talents to use.
It is anticipated that the first batch of students studying quantum systems engineering would graduate in the spring of 2029. Officials anticipate that by that time, the Edgar Mine will be known not only for its gold but also as the starting point of the next industrial revolution. The school demonstrates that sometimes starting deep underground is the greatest approach to achieving the pinnacles of future technology.
