Physics with Medical Imaging MSci

4 Years On Campus Bachelors Program

University of Nottingham

Program Overview

The MSci Physics with Medical Imaging at the University of Nottingham is a five-year integrated master’s program that blends core physics with advanced imaging science and clinical applications.
It’s ideal for students who want to explore how physics powers modern healthcare — from MRI and ultrasound to radiation therapy — while preparing for careers in medical technology, research, or further clinical training.

Curriculum structure

Year 1: Building Scientific Foundations
You’ll begin with Fundamentals of Classical and Modern Physics I and II, covering mechanics, waves, quantum physics, and relativity. You’ll also study Mathematical Methods and Modelling for Physicists and Professional Skills for Physicists I, which develop your analytical and communication skills. These modules lay the groundwork for understanding how physical principles apply to medical technologies.

Year 2: Introducing Medical Imaging Concepts
Second year deepens your physics knowledge with Quantum Mechanics, Thermal and Statistical Physics, and Electromagnetism. You’ll also take Medical Imaging I, which introduces key imaging modalities like X-ray, CT, and ultrasound. Investigations in Physics II builds your lab and data analysis skills, while optional modules let you explore areas like particle physics or digital signal processing.

Year 3: Advanced Imaging and Research Skills
In your third year, you’ll complete a Physics Research Project focused on imaging science or instrumentation. You’ll study Medical Imaging II, which covers MRI, nuclear medicine, and image reconstruction techniques. Additional modules include Quantum Optics and Condensed Matter Physics, helping you understand the physics behind imaging technologies.

Year 4: Integrated Master’s Research and Specialisation
The fourth year centres on your MSci Research Project, where you’ll work with Nottingham’s research teams on topics such as MRI development, radiation dosimetry, or computational imaging. You’ll also take advanced modules in Medical Imaging III and Radiation Physics, preparing you for clinical or research careers.

Year 5: Master’s-Level Depth and Professional Preparation
In your final year, you’ll refine your research project and choose electives in areas like Advanced Medical Imaging, Scientific Computing, or Radiotherapy Physics. This year is designed to prepare you for PhD study, NHS clinical scientist training, or roles in medical technology and innovation.

Focus areas:
Medical imaging, quantum mechanics, radiation physics, MRI, ultrasound, image reconstruction, clinical instrumentation

Learning outcomes:
Scientific analysis, imaging system design, experimental research, data modelling, clinical physics understanding, communication skills

Professional alignment (accreditation):
Accredited by the Institute of Physics (IOP) — meets the full educational requirement for Chartered Physicist (CPhys) status

Reputation (employability rankings):

Nottingham is ranked among the UK’s top 20 for physics (Complete University Guide 2026)
Home to the Sir Peter Mansfield Imaging Centre, a world-leading MRI research facility
Strong links to NHS and clinical training pathways

Experiential Learning (Research, Projects, Internships etc.)

Students in Nottingham’s MSci Physics with Medical Imaging program gain hands-on experience from day one — working with real imaging systems, simulation software, and clinical-grade instrumentation. You’ll build practical skills through lab investigations, research projects, and advanced modules in MRI, ultrasound, and radiation physics, all supported by Nottingham’s world-class facilities.

Here’s how experiential learning is delivered throughout the program:

Medical Imaging I, II & III: These modules include practical sessions on X-ray, CT, MRI, and nuclear medicine — using simulation tools and real imaging data.
Investigations in Physics I & II: Core lab modules that develop experimental technique, data analysis, and scientific reporting.
Physics and MSci Research Projects: Students work with research teams on topics like MRI development, image reconstruction, and radiation dosimetry — often using facilities at the Sir Peter Mansfield Imaging Centre.
Digital Tools: Students use MATLAB, LabVIEW, and Python for modelling, simulation, and image processing.
Group Projects: Embedded in modules like Professional Skills for Physicists, helping students develop teamwork and communication.
School of Physics and Astronomy Facilities: Includes optics labs, quantum technology equipment, and computing clusters for simulation work.
Sir Peter Mansfield Imaging Centre: A globally recognised MRI research hub, offering access to cutting-edge scanners and imaging research.
Libraries and Learning Spaces: Access to specialist physics and medical imaging journals, e-books, and collaborative study zones across University Park campus.
Internship and Placement Support: Available through the university’s Placements and Internships team, with links to NHS trusts and medical technology firms.

Progression & Future Opportunities

Graduates of Nottingham’s MSci Physics with Medical Imaging program are equipped for high-impact careers at the intersection of science, healthcare, and technology. With advanced training in imaging systems, radiation physics, and clinical instrumentation, they often move into roles such as medical physicist, imaging scientist, NHS clinical scientist, or radiotherapy researcher.

Here’s how Nottingham supports your future:

Careers and Employability Service: Offers tailored support including career coaching, employer events, and access to internships through the Nottingham Advantage Award and Placement Year schemes.
Graduate Outcomes: 90% of physics graduates are in employment or further study within 15 months of graduation.
Salary Potential: Early career salaries typically range from £30,000–£38,000, with strong progression in healthcare, research, and medical technology sectors.
Industry and Clinical Partnerships: Students benefit from links with NHS trusts, Siemens Healthineers, GE Healthcare, and the Sir Peter Mansfield Imaging Centre — a global leader in MRI research.
Accreditation Value: Accredited by the Institute of Physics (IOP) — meets the full educational requirement for Chartered Physicist (CPhys) status.
Graduate Destinations: Alumni work in NHS hospitals, research institutes, and medical technology firms across the UK and internationally.

Further Academic Progression:
Graduates of the MSci program are ideally positioned to pursue PhD study in medical imaging, radiation physics, or biomedical engineering. The integrated master’s year provides a strong research foundation, and many students continue into NHS Scientist Training Programme (STP) or doctoral research in clinical physics.