Quantum engineer student working with molecular beam epitaxy system.

Quantum Systems Engineering

Bachelor of Science

Fall 2027 Deadline

Priority: November 1
Regular: January 15
Late: April 1

Transfer (international): April 1

Transfer (domestic): May 1

Why Quantum Systems Engineering?

Quantum technologies are moving quickly from theory to real-world systems. Industries ranging from computing and communications to sensing and national security need engineers who can design, build and scale quantum-enabled hardware and software. As the first bachelor’s degree in Quantum Systems Engineering offered in the nation, this program puts you at the cutting edge of a rapidly emerging field. A bachelor’s degree in Quantum Systems Engineering gives you the engineering foundation and systems mindset needed to turn quantum principles into working technology.

At Colorado School of Mines, you learn quantum science in an applied, engineering-driven context at the heart of Colorado’s growing quantum ecosystem, a national epicenter for quantum research, innovation and industry. Mines is known for taking complex science and making it practical, which is exactly what the quantum workforce needs. You gain the ability to work across physics, electrical engineering, materials science and computer science so you can contribute to and lead multidisciplinary teams from day one.

This degree helps you add value in a rapidly growing field that rewards problem solvers who can connect theory to reliable, working systems.

Program Overview

Quantum Systems Engineering prepares you to engineer devices and systems that rely on quantum behavior. You graduate with a strong foundation in physics, mathematics and engineering design, paired with hands-on experience working with emerging quantum technologies.

Unlike programs that focus only on theory, this degree emphasizes systems thinking. You learn how components interact, how noise and error affect performance and how to design with reliability and scalability in mind. Courses are taught by faculty who collaborate closely with industry and national laboratories, keeping the curriculum aligned with how quantum technologies are actually developed and deployed in the real world.

By graduation, you are ready to contribute as an engineer who understands both the science and the practical challenges of building quantum systems.

Program Focus

The curriculum blends core engineering fundamentals with focused coursework in quantum science and technology. You study classical mechanics, electromagnetism and circuits before moving into quantum mechanics, quantum information and device physics.

As you progress, you learn how quantum systems are modeled, fabricated, controlled and tested. Topics include quantum hardware, cryogenic systems, control electronics, error sources and system integration. Design courses and labs emphasize problem solving, teamwork and clear communication.

The program is structured to teach you how individual components fit into larger systems, helping you understand how laboratory breakthroughs become usable technology.

Program Opportunities

Quantum Engineering student working intently at a microscope in a laboratory setting.

You gain experience through project-based courses, undergraduate research and internships with industry and national laboratories. Mines offers quantum-focused research groups and student organizations where you can explore topics beyond the classroom.

You can pursue careers in quantum computing, advanced sensing, electronics, defense technologies and applied research. Many Mines graduates have joined companies such as IBM, Lockheed Martin, Google and Northrop Grumman.

Salaries and Career Outlook

$96,800 Starting salary
55% Of quantum technology jobs require a bachelor’s degree or less
840,000 Quantum professionals could be needed by 2035
$100B Projected global quantum technology market by 2035

Program Curriculum

View Academic Catalog

Program Faculty

Meet three faculty members who are advancing quantum science and engineering through cutting-edge research in quantum systems, devices and technologies while preparing the next generation of engineers to turn quantum discoveries into real-world solutions.

Meenakshi Singh profile picture

Meenakshi Singh

Associate Professor

Wouter Van De Pontseele profile picture

Wouter Van De Pontseele

Assistant Professor

Lincoln Carr profile picture

Lincoln Carr

Professor

World-Class Labs, Centers and Facilities

A woman in a headscarf looking through a microscope.
Colorado Underground Research Institute

The Colorado Underground Research Institute (CURIE) is an innovative shallow underground research facility in the Edgar Experimental Mine in Idaho Springs, Colorado. CURIE supports a range of low-background research across disciplines, such as quantum information science, subatomic physics and quantum sensing.

A group of people standing around a machine in a room.
Singh Lab

Associate Professor Meenakshi Singh’s research group operates at the intersection of fundamental quantum physics and the development of next-generation technologies. In her lab, they investigate the rich and often counterintuitive behavior of systems at the nanoscale and under cryogenic conditions, focused on emergent phenomena in hybrid quantum systems

Aerial photo of Colorado School of Mines Elevate Quantum research facility in Arvada, Colorado.
Quantum Commons

Quantum Commons provides open-access user facilities designed to accelerate innovation across the quantum industry. Owned and operated by Mines, the facilities offer capabilities in solid-state and atomic, molecular and optical (AMO) modalities, alongside fabrication services that enable faster iteration from research and development to real-world quantum technologies.

Two men working on a computer motherboard in a lab.
Quantum Technologies at the Sensitivity Frontier Group

The Quantum Technologies at the Sensitivity Frontier Group develops advanced superconducting sensors and cryogenic instrumentation to search for rare particle interactions. Led by Assistant Professor Wouter Van De Pontseele, the group’s research focuses on creating low-threshold superconducting detectors and quantum-limited amplifiers for fundamental physics.

Frequently Asked Questions

What career options will I have with this degree?

Graduates work as quantum hardware engineers, systems engineers, electronics engineers, software developers and research engineers. Roles exist in industry, government laboratories and startups.

What industries hire quantum systems engineers?

Industries include computing and information technology, aerospace and defense, electronics manufacturing, telecommunications and applied research organizations.

Is this degree more physics or engineering focused?

The program is engineering focused. You learn the necessary physics, but the emphasis is on design, integration and system performance.

Will I be prepared for graduate school?

Yes. The strong foundation in math, physics and engineering prepares you well for graduate study in related fields.

What makes this program different from other quantum degrees?

This degree emphasizes systems engineering. You learn how to take quantum concepts and turn them into reliable, scalable technology rather than stopping at theory.

Featured Alumni

Meet Connor Denney MS '24, PhD '28

Graduates of Mines’ quantum engineering program are moving into roles with startups, national labs, and major corporations—and some are creating their own companies to meet emerging needs in the quantum marketplace. Connor Denney, who earned a master's in quantum and is pursuing a PhD in electrical engineering at Mines, saw firsthand how challenging the path to practical quantum computing can be and wanted to be part of the solution. “If we want quantum advantage to be a reality, engineers and scientists of every discipline will have to rise to the challenge. I want to be one of those engineers.”