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Building the future of quantum engineering at Colorado School of Mines

One of the nation’s first quantum engineering programs is preparing students for challenges of working in quantum industry

Building the future of quantum engineering at Colorado School of Mines

One of the nation’s first quantum engineering programs is preparing students for challenges of working in quantum industry

PhD student and NRT Fellow Sam Saiter works in the Quantum Clean Room on the Colorado School of Mines campus. Students in the quantum engineering program at Mines get access to advanced equipment, such as a quantum entanglement demonstrator, a 4.2-Kelvin cryostat and a diamond NV microscope.
PhD student and NRT Fellow Sam Saiter works in the Quantum Clean Room on the Colorado School of Mines campus. Students in the quantum engineering program at Mines get access to advanced equipment, such as a quantum entanglement demonstrator, a 4.2-Kelvin cryostat and a diamond NV microscope.

“The quantum tech industry will benefit from the scientific and technological expertise of Mines faculty and graduates. Mines has a long tradition of partnering with industry, and we look forward to contributing to Colorado’s thriving quantum ecosystem.”

Fred Sarazin

Professor and Head of the Physics Department at Mines, Quantum@Mines Director

“Quantum has traditionally lived in the physics domain, but the problems preventing scaling are engineering problems, They’re materials, chemical, electrical and computer science problems. So, we take an interdisciplinary approach where we teach students what they need to know about quantum fundamentals, but in a very different way than how a physics course approaches it. Linear algebra is the only prerequisite.”

Meenakshi Singh

Associate Professor of Physics and Director of the Mines Quantum Engineering Program

PhD student and NRT Fellow Connor Denney works in one of the quantum engineering labs on the Mines campus. Denney built an electronics system that goes into certain types of quantum computers for the lab and then founded a startup when he realized other companies may need the technology, too.
PhD student and NRT Fellow Connor Denney works in one of the quantum engineering labs on the Mines campus. Denney built an electronics system that goes into certain types of quantum computers for the lab and then founded a startup when he realized other companies may need the technology, too.
PhD student and NRT Fellow Sam Saiter works in the Quantum Clean Room on the Colorado School of Mines campus. Students in the quantum engineering program at Mines get access to advanced equipment, such as a quantum entanglement demonstrator, a 4.2-Kelvin cryostat and a diamond NV microscope.
PhD student and NRT Fellow Sam Saiter works in the Quantum Clean Room on the Colorado School of Mines campus. Students in the quantum engineering program at Mines get access to advanced equipment, such as a quantum entanglement demonstrator, a 4.2-Kelvin cryostat and a diamond NV microscope.

“The quantum tech industry will benefit from the scientific and technological expertise of Mines faculty and graduates. Mines has a long tradition of partnering with industry, and we look forward to contributing to Colorado’s thriving quantum ecosystem.”

Fred Sarazin

Professor and Head of the Physics Department at Mines, Quantum@Mines Director

PhD student and NRT Fellow Connor Denney works in one of the quantum engineering labs on the Mines campus. Denney built an electronics system that goes into certain types of quantum computers for the lab and then founded a startup when he realized other companies may need the technology, too.
PhD student and NRT Fellow Connor Denney works in one of the quantum engineering labs on the Mines campus. Denney built an electronics system that goes into certain types of quantum computers for the lab and then founded a startup when he realized other companies may need the technology, too.

“Quantum has traditionally lived in the physics domain, but the problems preventing scaling are engineering problems, They’re materials, chemical, electrical and computer science problems. So, we take an interdisciplinary approach where we teach students what they need to know about quantum fundamentals, but in a very different way than how a physics course approaches it. Linear algebra is the only prerequisite.”

Meenakshi Singh

Associate Professor of Physics and Director of the Mines Quantum Engineering Program

Technology’s Quantum Leap

Mines is partnering with San José State University on a new student training program funded with a $3 million grant from the National Science Foundation. With the NSF Research Traineeship funding, the two universities will develop interdisciplinary training programs to help prepare master’s and doctoral students for careers in quantum information science and engineering.

Technology’s Quantum Leap

Mines is partnering with San José State University on a new student training program funded with a $3 million grant from the National Science Foundation. With the NSF Research Traineeship funding, the two universities will develop interdisciplinary training programs to help prepare master’s and doctoral students for careers in quantum information science and engineering.

“We recognized that this is something that’s been identified as a national need and, as quantum technology moves out of academia and national labs to industry, you’re going to need a bigger workforce—and you are never going to have enough people with PhDs to do that.”

Eliot Kapit

Associate Professor, Colorado School of Mines Physics

“We’re hoping to broaden the scope of who participates. We are excited about the prospect of using educational materials that Mines has developed and working together to develop new ones to develop a blueprint for teaching quantum to a new array of students, not just Princeton, not just Harvard, not just PhDs. We’re going to need folks of all skill levels to work toward these technologies.”

Hilary Hurst

Assistant Professor, SJSU Department of Physics and Astronomy

Industrial Connections

Industrial Connections

“The amount of internships, networking sessions and connections Mines offers, gives students the ability to immediately translate their academic skills into industry experience.”

Bora Basyildiz

Former Colorado School of Mines Quantum Engineering student and NRT Fellow

Mines Quantum Engineering Program wins $3M NSF grant for Graduate Student Training

Mines Quantum Engineering Program wins $3M NSF grant for Graduate Student Training

Graduate students work with the dilution fridge in the quantum lab on the Mines campus.

“This funding, along with our leadership in the development of a roadmap for quantum engineering education at the undergraduate level, really puts Mines on the map in quantum engineering”

Lincoln Carr

Professor of physics and principal investigator on the NSF grant

“Our goal is to create a template for quantum information science and engineering graduate education, which will be accessible to STEM students from all backgrounds and types of institutions, increasing diversity in QISE.”

Hilary Hurst

Assistant Professor, SJSU Department of Physics and Astronomy

“Quantum technologies are poised to revolutionize how we compute, communicate, and sense and this requires engineers that have an interdisciplinary education.”

Peter Aaen

Professor of Electrical Engineering, Dean Energy and Materials Programs (EMP)

About the header image:

Quantum COmmons @ Arvada will provide open-access user facilities critical to accelerating the speed of progress in the quantum industry. These facilities will offer capabilities in solid state and AMO modalities, alongside FAB services to accelerate the speed of iteration across the entire quantum industry. This will enable breakthroughs ranging from artificial intelligence, climate tech, and healthcare to sensing and well beyond. When Quantum COmmons @ Arvada comes online in 2026, it will have:

  • 10,000 sq. ft. fabrication lab/cleanroom building to support prototyping and low-volume manufacturing
  • 17,000 sq. ft open-access quantum labs with a collaborative community design 
  • 70 acres available for open access facility expansion and co-location and growth of quantum startups and scale-ups
Learn more about Quantum COmmons @ Arvada, other facilities, and news at Quantum Engineering