MSc Quantum Technology

1 Years On Campus Masters Program

University of Glasgow

Program Overview

The MSc Quantum Technology at the University of Glasgow gives you a strong, future-focused grounding in the physics and engineering that drive modern quantum systems — from quantum computing and sensing to quantum materials and devices. It’s ideal for students who want to be part of the fast-growing quantum industry or pursue advanced research in this transformative field.

Curriculum Structure

Year 1 (Full-Time Programme)
You begin with core modules such as Quantum Theory, Experimental Techniques in Quantum Optics, and Introduction to Research in Nanoscience & Nanotechnology. These give you a solid foundation in how quantum systems behave and how they’re studied and engineered in real laboratories.

As you progress, you move into more applied and design-focused modules, including Quantum Information, Quantum Electronic Devices, Quantum Materials, and Advanced Data Analysis for Physics and Astronomy. These subjects train you to understand, model, and build quantum-scale systems while developing the computational skills essential for modern quantum engineering.

The year concludes with a substantial MSc Project, carried out within a research group in physics or engineering. This project gives you hands-on experience with quantum device fabrication, quantum optics experiments, quantum-systems modelling, or another cutting-edge topic chosen together with your supervisor.

Focus areas: Quantum theory, quantum optics, quantum information, quantum materials, nanoscience and nanotechnology, quantum device engineering, advanced computational skills.

Learning outcomes: Expertise in modelling and analysing quantum systems; practical understanding of quantum devices and materials; strong computational and data-analysis skills; experience with research-style problem solving; readiness for roles in quantum engineering, quantum computing, sensing, or further academic research.

Professional alignment (accreditation): Delivered within one of the UK’s leading quantum-research environments, aligned with national quantum-technology initiatives and backed by the university’s accredited physics and engineering schools.

Reputation (employability rankings): The University of Glasgow is internationally recognised for its leadership in quantum science and hosts major national facilities, including one of the UK’s flagship quantum-technology hubs and a world-class nanofabrication centre — giving graduates a strong competitive advantage.

Experiential Learning (Research, Projects, Internships etc.)

What makes this MSc stand out is how quickly you move from learning about quantum technologies to actually working with the tools, labs and research environments that shape the field. You’ll be surrounded by an active quantum-research community, gain experience with nanofabrication facilities, work hands-on with quantum-optics and device-engineering techniques, and take on a research project that places you right inside a professional scientific group. It’s the kind of training that helps you feel part of the quantum-technology sector from the moment you start.

To give you a clear sense of what this looks like in practice:

Direct access to the James Watt Nanofabrication Centre, one of the UK’s leading academic cleanroom facilities, where you can work with micro- and nano-fabrication tools used to build quantum materials and devices.
Opportunities to learn inside Glasgow’s Centre for Quantum Technology, engaging with researchers working on quantum imaging, sensing, communication, computing and materials.
Laboratory-based training through modules such as Experimental Techniques in Quantum Optics and Quantum Electronic Devices, where you develop real experimental skills rather than only studying the theory.
A major MSc research project where you work within a physics or engineering research group, contributing directly to topics such as quantum materials, device fabrication, quantum-optics experiments or quantum-systems modelling.
Experience with computational and data-analysis tools through modules like Advanced Data Analysis for Physics and Astronomy, giving you practical training in numerical modelling and handling complex quantum-system data.
Exposure to industry-aligned quantum applications through Glasgow’s involvement in national quantum-technology initiatives, which can shape project themes and provide insight into commercial innovation.

Progression & Future Opportunities

Graduates from this MSc enter a field that’s growing at incredible speed — from quantum computing and sensing to advanced imaging and secure communication. Students typically move into roles such as Quantum Engineer, Photonics or Optical Systems Engineer, Quantum Algorithms or Software Specialist, or Research Scientist working with quantum devices and materials. Because the University of Glasgow plays a leading role in the UK’s national quantum-technology effort, employers recognise the strength of this training and the practical experience students gain during the programme.

Here’s how Glasgow actively supports your next steps:

You’ll have access to the College of Science & Engineering’s specialist careers team, offering guidance tailored to technical fields, employer introductions, and STEM-focused recruitment events.
Graduate outcomes for the college are consistently strong, with most students entering employment or further study within 15 months — a reflection of Glasgow’s strong reputation and industry relevance.
The programme is connected to Glasgow’s major quantum-research initiatives, including national-level projects in quantum imaging, sensing, communication and photonics, which often shape project topics and create opportunities to engage with industry and research partners.
Experience gained through the James Watt Nanofabrication Centre — one of the UK’s leading cleanroom facilities — gives graduates a real advantage in roles involving device fabrication, photonics or quantum-materials development.
Students commonly secure roles in quantum-technology companies, national laboratories, semiconductor and photonics industries, or high-tech engineering organisations that value strong analytical and experimental skills.

Further Academic Progression:

If you decide to continue your studies, this MSc provides an excellent foundation for a PhD in quantum technologies, quantum optics, nanoscience, photonics, quantum information, or materials science. Glasgow’s strong research groups and active role in national quantum-innovation programmes make it a natural place to continue into doctoral research — though the preparation you receive also makes you competitive for PhD programmes worldwide.