Key information
- Duration:
- 4 years full time
- Typical A-level offer:
- AAA
View full entry requirements - UCAS code:
- F321
- Start date:
- September 2025
- 7th in the UK for our research environment in Physics in REF 2021 (Times Higher Education)
- Top 20 in the UK for Physics (Guardian University Guide 2025)
Quantum technology has the power to transform the way we live and work. This exciting and rapidly growing field could help solve global issues – from making powerful medicines, understanding chemical reactions, creating better batteries and materials, to reducing our carbon footprint, and beyond. On this course, you’ll explore the fascinating world of quantum technology and also gain a broad understanding of the core principles of physics. Throughout your studies, you’ll:
- use the latest equipment and state-of-the-art laboratories
- gain a broad range of skills in theoretical and experimental physics
- develop specialist knowledge in quantum technologies
- learn to apply your knowledge and skills in real-world applications and in industry
- benefit from our strong links with industry and international collaborators.
At Sussex, you’ll learn from world-leading researchers and key influencers in industry. Our research informs your modules. From quantum computers to quantum sensors, and from atomic clocks to the quantum internet, this degree helps you understand and develop a whole new generation of technologies, based on the strange properties of quantum physics. You’ll benefit from the expertise in the Sussex Centre for Quantum Technologies. You’ll join one of our quantum technology research groups as part of your final-year project. From sustainability to economics and modern languages, you take electives from other subjects to open your mind to other disciplines and tailor your degree to your interests.
Your broad training in physics equips you for a wide range of careers, while your specialisation in quantum technology will allow you to join the expanding quantum technology sector. On graduation, you’ll have developed skills much in demand with employers. You’ll have skills in problem-solving, data analysis, technical knowledge and research. Your training will open doors to exciting careers in:
- the quantum technology sector
- research
- finance
- industry.
We understand that deciding where and what to study is a very important decision. We’ll make all reasonable efforts to provide you with the courses, services and facilities described in this prospectus. However, if we need to make material changes, for example due to government or regulatory requirements, or unanticipated staff changes, we’ll let you know as soon as possible.
Course content
Find out about our types of undergraduate degrees, their structure, modules and credits
Your degree
In your first year, you’ll explore classical and modern physics. You’ll build on your mathematics skills to solve problems in physics and find out about the coding language Python. You’ll also explore current research in quantum technology and future frontiers.
Teaching
Teaching methods typically include:
60%: Lecture
40%: Practical
Assessment
Assessment methods typically include:
40%: Coursework
60%: Examination
Contact hours and workload
This year of study includes approximately 1,200 hours of work. This breaks down into about 420 hours of contact time and about 780 hours of independent study.
Engage and actively participate throughout your studies to get the most out of your course.
Your modules
Core modules
Core modules are taken by all students on the course. They give you a solid grounding in your chosen subject and prepare you to explore the topics that interest you most.
Autumn teaching
- Foundations of Data Analysis
- Introduction to Quantum Physics
- Mathematical Methods for Physics 1
- Mechanics
- Physics Study Success
Spring teaching
- Heat and Modern Physics
- Mathematical Methods for Physics 2
- Physics Year 1 Laboratory
- Waves and Fields
We regularly review our modules to incorporate student feedback, staff expertise, as well as the latest research and teaching methodology. We’re planning to run these modules in the academic year 2025/26. However, there may be changes to these modules in response to feedback, staff availability, student demand or updates to our curriculum. We’ll make sure to let you know of any material changes to modules at the earliest opportunity.
We’ll do our best to provide as much optional choice as we can, but timetabling constraints mean it may not be possible to take some module combinations. The structure of a small number of courses means that the order of modules or the streams you choose may determine whether modules are core or optional. This means that your core modules or options may differ from what’s shown here.
Check back in January 2025 for more module details.
Your degree
In Year 2, you’ll build on the knowledge gained in your first year. You’ll develop a more advanced understanding of the principles and techniques needed for quantum technologies. Putting theory into practice, you’ll gain deeper theoretical skills and carry out more advanced experiments.
Teaching
Teaching methods typically include:
50%: Lecture
20%: Seminar
30%: Practical
Assessment
Assessment methods typically include:
40%: Coursework
60%: Examination
Contact hours and workload
This year of study includes approximately 1,200 hours of work. This breaks down into about 320 hours of contact time and about 880 hours of independent study.
Engage and actively participate throughout your studies to get the most out of your course.
Your modules
Core modules
Core modules are taken by all students on the course. They give you a solid grounding in your chosen subject and prepare you to explore the topics that interest you most.
Autumn teaching
- Electrodynamics
- Mathematical Methods for Physics 3
- Physics Year 2 Laboratory
Spring teaching
- Applying Physics Skills
- Quantum Mechanics 1
- Thermal and Statistical Physics
Options
Alongside your core modules, you can choose options to broaden your horizons and tailor your course to your interests. This list gives you a flavour of our options, which are kept under review and may change, for example in response to student feedback or the latest research.
While it’s our aim for students to take their preferred combinations of options, this can’t be guaranteed and will be subject to timetabling. Options may be grouped and if so, students will be able to choose a set number of options from the selection available in any particular group.
Autumn teaching
- Scientific Computing
Spring teaching
- Theoretical Physics
We regularly review our modules to incorporate student feedback, staff expertise, as well as the latest research and teaching methodology. We’re planning to run these modules in the academic year 2025/26. However, there may be changes to these modules in response to feedback, staff availability, student demand or updates to our curriculum. We’ll make sure to let you know of any material changes to modules at the earliest opportunity.
We’ll do our best to provide as much optional choice as we can, but timetabling constraints mean it may not be possible to take some module combinations. The structure of a small number of courses means that the order of modules or the streams you choose may determine whether modules are core or optional. This means that your core modules or options may differ from what’s shown here.
Check back in January 2025 for more module details.
Your degree
In Year 3, you’ll master core topics in physics and explore how they can be applied to quantum technologies.
Teaching
Teaching methods typically include:
59%: Lecture
9%: Seminar
32%: Practical
Assessment
Assessment methods typically include:
40%: Coursework
60%: Examination
Contact hours and workload
This year of study includes approximately 1,200 hours of work. This breaks down into about 420 hours of contact time and about 780 hours of independent study.
Engage and actively participate throughout your studies to get the most out of your course.
Your modules
Core modules
Core modules are taken by all students on the course. They give you a solid grounding in your chosen subject and prepare you to explore the topics that interest you most.
Autumn teaching
- Advanced Physics Laboratory A
- Atomic Physics
- Condensed State Physics
- Nuclear and Particle Physics
Spring teaching
- Advanced Physics Laboratory B
- Lasers and Photonics
- Quantum Mechanics 2
Options
Alongside your core modules, you can choose options to broaden your horizons and tailor your course to your interests. This list gives you a flavour of our options, which are kept under review and may change, for example in response to student feedback or the latest research.
While it’s our aim for students to take their preferred combinations of options, this can’t be guaranteed and will be subject to timetabling. Options may be grouped and if so, students will be able to choose a set number of options from the selection available in any particular group.
Spring teaching
- Advanced Condensed State Physics
- Monte Carlo Simulations
- Researching STEM
We regularly review our modules to incorporate student feedback, staff expertise, as well as the latest research and teaching methodology. We’re planning to run these modules in the academic year 2025/26. However, there may be changes to these modules in response to feedback, staff availability, student demand or updates to our curriculum. We’ll make sure to let you know of any material changes to modules at the earliest opportunity.
We’ll do our best to provide as much optional choice as we can, but timetabling constraints mean it may not be possible to take some module combinations. The structure of a small number of courses means that the order of modules or the streams you choose may determine whether modules are core or optional. This means that your core modules or options may differ from what’s shown here.
Check back in January 2025 for more module details.
Your degree
In your integrated Masters year, you’ll apply all the knowledge and experience gained so far to understand cutting-edge topics in quantum technologies. As part of your research project, you’ll carry out original research in quantum technologies.
Teaching
Teaching methods typically include:
52%: Lecture
48%: Practical
Assessment
Assessment methods typically include:
15%: Coursework
60%: Examination
13%: Practical
12%: Written assessment
Contact hours and workload
This year of study includes approximately 1,200 hours of work. This breaks down into about 300 hours of contact time and about 900 hours of independent study.
Engage and actively participate throughout your studies to get the most out of your course.
Your modules
Core modules
Core modules are taken by all students on the course. They give you a solid grounding in your chosen subject and prepare you to explore the topics that interest you most.
Autumn teaching
- Quantum Optics and Quantum Information
Autumn and spring teaching
- MPhys Final-Year Project
Spring teaching
- Electrons, Cold Atoms and Quantum Circuits
- Practical Quantum Technologies
Options
Alongside your core modules, you can choose options to broaden your horizons and tailor your course to your interests. This list gives you a flavour of our options, which are kept under review and may change, for example in response to student feedback or the latest research.
While it’s our aim for students to take their preferred combinations of options, this can’t be guaranteed and will be subject to timetabling. Options may be grouped and if so, students will be able to choose a set number of options from the selection available in any particular group.
Autumn teaching
- Atom Light Interactions
- Data Analysis Techniques
- Quantum Computing
- Quantum Field Theory
- Symmetry and the Standard Model
Spring teaching
- Advanced Quantum Field Theory
- Beyond the Standard Model
- Introduction to Nano-materials and Nano-characterisation
- Monte Carlo Simulations
We regularly review our modules to incorporate student feedback, staff expertise, as well as the latest research and teaching methodology. We’re planning to run these modules in the academic year 2025/26. However, there may be changes to these modules in response to feedback, staff availability, student demand or updates to our curriculum. We’ll make sure to let you know of any material changes to modules at the earliest opportunity.
We’ll do our best to provide as much optional choice as we can, but timetabling constraints mean it may not be possible to take some module combinations. The structure of a small number of courses means that the order of modules or the streams you choose may determine whether modules are core or optional. This means that your core modules or options may differ from what’s shown here.
Check back in January 2025 for more module details.
Creating the right teaching environment makes an enormous difference to students’ education.”Sebastian Weidt
Professor of Quantum Computing and Entrepreneurship
Co-founder and CEO of quantum computing company Universal Quantum
Read Sebastian’s story
Silver
The student experience and student outcomes are typically very high quality.
This rating was awarded in 2023, for four years.
(Teaching Excellence Framework 2023)
Find out more about our approach to teaching and supporting you to thrive
Our staff
Quantum technology transforms the world in seemingly impossible ways. On this course, you’ll learn from leading experts so you’re prepared to help shape the future of quantum research, applications and industry.”Professor Jacob Dunningham
Professor of Physics
The Department of Physics and Astronomy is a friendly hive of activity. You’ll join a close-knit community. Our open-door policy means that whatever you need, we’ll be there to support you.
Careers
During your studies, you’ll get careers and CV advice. With careers fairs, forums and a dedicated careers officer, we support your career development from day one. You’ll have opportunities to meet potential employers.
In the Department of Physics and Astronomy, you’ll have a wide range of paid work opportunities. This ranges from teaching and research opportunities in the summer, to outreach roles throughout the year. We are a core part of the SEPnet (South East Physics Network) consortium, which gives us links to universities and industries across the region.
On graduation, you’ll have the range of versatile and technical skills required by employers. You’ll be well prepared for a variety of technical and management roles in the quantum technology sector. You could also choose to progress into roles in:
- research and academia
- finance
- teaching
- consulting.
Working while you study
Our Careers and Entrepreneurship team can help you find part-time work while you study. Find out more about career development and part-time work
Design your future at Sussex
Taking the next step in your career can feel daunting, but we’ll help you to explore, connect and flourish throughout your studies and beyond.
As a Sussex student, you’ll learn how to tackle real-world challenges and have access to tailored programmes of careers support:
- our Career Lab helps you to explore your options, build key skills and connect with employers. Take part in internships, community consultancy projects and insight visits, where you can learn about life at organisations including Brighton & Hove Albion Football Club, Gatwick Airport and the Knepp Rewilding Project
- one-to-one coaching with your Faculty Careers Consultant can enable you to identify your career goals, write an effective CV and prepare for future interviews
- entrepreneurship initiatives like StartUp Sussex and Ideas Lab can empower you to turn your concepts into reality.
Explore how our Careers and Entrepreneurship team can support you
Winner
Supporting Student and Graduate Employability Award
AGCAS Awards for Excellence 2024
Winner
Entrepreneurship Catalyst Award
National Enterprise Educator Awards 2024
A-level - contextual offer
AAA