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Nuclear Energy at the University of Cambridge is a pioneering postgraduate programme designed to equip students with a comprehensive understanding of the science, technology, and policy aspects of nuclear power. This programme offers an in-depth exploration of nuclear physics, reactor engineering, radiation protection, and nuclear safety, providing graduates with the expertise necessary to contribute to the development and management of nuclear energy systems. The course combines theoretical knowledge with practical applications, including hands-on training in reactor operation principles and the analysis of nuclear materials. Students will also examine the role of nuclear energy in addressing global challenges such as climate change and energy security, exploring the latest advancements in reactor technology, waste management, and nuclear policy. The programme is suitable for individuals aiming to pursue careers in the energy industry, regulatory agencies, research institutions, or policy-making bodies. Taught by world-renowned experts from the university and associated research centers, students will benefit from cutting-edge research facilities and collaboration opportunities. The curriculum emphasizes critical thinking, problem-solving skills, and an understanding of the complex safety and environmental issues associated with nuclear power. Graduates of this programme will be well-prepared for leadership roles in the field of nuclear energy, contributing to innovative solutions that advance sustainable and safe nuclear technology worldwide. The programme typically is delivered through a combination of lectures, laboratory sessions, and independent research projects, fostering an interactive and research-driven learning environment. Engaging with industry partners and participating in seminars and workshops throughout the programme ensures students stay up-to-date with current developments and future trends. With its strong emphasis on both scientific fundamentals and policy considerations, the Nuclear Energy programme at Cambridge aims to produce industry-ready specialists capable of shaping the future of nuclear power in the context of global energy needs.
The course is designed to take 11 months, from October to August each academic year, with students taking the equivalent of ten standard (16 lectures each) taught modules plus a long research project and dissertation.
Nuclear Energy Modules
NE1* |
Reactor Physics Core physics and shielding – steady state power and shapes, depletion control elements and use of poisons, core kinetics and system control. |
16 lectures | NE MPhil |
NE2* |
Reactor Engineering & Thermal-hydraulics Coolant types, thermal cycles, heat transfer, thermal limits and Reactor systems, their optimisation and operating characteristics including normal operation and how to address main types of fault condition. |
24 lectures | NE MPhil |
NE3 |
Materials Fuel and reactor materials – including selection, safety and life issues – radiation behaviour and damage, structural integrity and fracture mechanics, EAC |
16 lectures | NE MPhil |
NE4 |
Fuel Cycle, Waste & Decommissioning Whole fuel cycle: mining to waste and how waste is managed, decommissioning principles. |
16 lectures | NE MPhil |
NE5* |
Nuclear Safety Principles and Practice This module will provide an understanding and an ability to recognise key design and safety issues and how they might be addressed, including the principles and practices of reactor safety as it affects design, operation and justification of modern reactors. |
8 lectures | NE MPhil |
NE6* |
Nuclear Technology Policy Energy studies and climate change, economics of energy, nuclear politics, proliferation and physical security. |
16 lectures | NE MPhil |
NE7* |
Nuclear Practice The module consists of a series of lectures by senior external members of the UK nuclear industry and related government bodies, giving their viewpoint and experience of important past events on the current prospects and issues that affect the sector. |
8 lectures |
NE MPhil
|
NE8 |
Computational Reactor Modelling The module covers the basic theory and methods in computational reactor physics followed by a series of practicums with hands-on experience of using state-of-the-art computer codes used for simulation of nuclear systems. |
16 lectures |
NE MPhil |
NE9 |
Advanced Fission and Fusion Reactor Systems This module will provide an understanding of advanced reactor systems, why they are being pursued, their advantages and their difficulties in proceeding to become commercially viable designs. Additionally, an introduction to the main ideas behind nuclear fusion for energy, focusing on the basic ideas and concepts and the practical issues of bringing fusion to market, will be provided. |
16 lectures | NE MPhil |
All these modules are developed specifically for the Nuclear Energy course. They draw on existing teaching in Nuclear Power Engineering from Part IIB of the Engineering Tripos and Nuclear Materials from Part III of the Natural Sciences Tripos. Also, Nuclear Technology Policy makes use of some material from the Technology Policy MPhil in the Judge Business School.
Students are required to take a majority (equivalent of at least five standard modules) of the core nuclear energy material, including those marked with asterisks, which are compulsory.
Course Requirements
Students are required to take a majority of the core nuclear energy subjects, including five compulsory taught nuclear modules:
Michaelmas & Lent TermsEither (standard stream) |
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Or (research stream) | one to four electives from a defined range of existing technical modules | ||
Easter Term | Long research project/dissertation May-August |
Teaching is through lectures, seminars (which all students are expected to attend), supervisions, distinguished lectures and dissertation supervision. Assessment is through written exam papers taken early in the Easter Term with a 15,000 word marked dissertation on a research topic which is to be completed by the end of August.
Elective Modules
Students chose between one and four modules; October to March.
Either (standard stream): | one to four electives from a defined range of existing technical or management modules | |
Or (research stream): | one to four electives from a defined range of existing technical modules (as agreed by the research supervisor) |
The following list indicates the elective modules planned to be offered for the next Academic Year. Modules are drawn from existing courses offered within the Engineering Tripos, Natural Sciences Tripos and as part of MPhils taught by the Judge Business School.
Management
Technology Policy: Concepts and Frameworks |
TP1 |
JBS MPhil |
Strategic valuation: uncertainty and real options in system design | TPE25 | JBS MPhil |
Economic Foundations of Technology Policy* | TP2 | JBS MPhil |
Business, Government and Technology in Emerging Markets | TP4 | JBS Mphil |
Policy, Design and Evaluation | TP5 | JBS MPhil |
Managing the Innovation Process | TPE20 | JBS Mphil |
Entrepreneurial Science & Innovation Policy | TPE21 | JBS Mphil |
Electricity and Environment | TPE22 | JBS Mphil |
Negotiation Skills | TPE23 | JBS Mphil |
Management of Technology | 4E4 | Eng Tripos |
International Business Economics |
4E5 |
Eng Tripos |
Accounting and Finance |
4E6 |
Eng Tripos |
Strategic Management |
4E11 |
Eng Tripos |
* Pre-requisite for TP5
Technical
Practical Optimisation |
4M17 |
Eng Tripos |
Sustainable Energy |
4M15 |
Eng Tripos |
Sustainable Design & Implementation |
ESD 550 |
ESD MPhil |
Driving Change towards Sustainability |
ESD 150 |
ESD MPhil |
Particle & Nuclear Physics/Comp Physics |
PNP |
Nat Sci Tripos |
Extraction & re-cycling | M3 | Nat Sci Tripos |
Steels | M21 | Nat Sci Tripos |
Corrosion & Protection | M15 | Nat Sci Tripos |
Electrochemical Engineering |
B2 |
Chem Eng Tripos |
Fluid Mechanics & Environment |
B6 |
Chem Eng Tripos |
Computational Fluid Dynamics |
4A2 |
Eng Tripos |
Turbomachinery I | 4A3 | Eng Tripos |
Renewable Electrical Power | 4B19 | Eng Tripos |
Design Methods | 4C4 | Eng Tripos |
Design Case Studies | 4C5 | Eng Tripos |
Random and Non-linear Vibrations | 4C7 | Eng Tripos |
Concrete and Masonry Structures | 4D7 | Eng Tripos |
Pre-stressed Concrete | 4D8* | Eng Tripos |
Structural Steelwork | 4D10 | Eng Tripos |
Construction Management | 4D16 | Eng Tripos |
Plate & Shell Structures | 4D17 | Eng Tripos |
Control System Design |
4F1 |
Eng Tripos |
Robust & Non-Linear Systems and Control |
4F2 |
Eng Tripos |
Computer Vision & Robotics |
4F12 |
Eng Tripos |
PDE & Variational Methods |
4M12 |
Eng Tripos |
Present and Future Energy Systems |
4M18 |
Eng Tripos |
Medical Physics |
4I8 |
Eng Tripos |
Please note, occasionally modules may be unavailable.
- Magistr (Master's Degree) at Pass level. Diploma Specialista (completed post-1991) with a minimum overall grade of good or 4/5 Bachelor's from Moscow Institute of Physics and Technology and other prestigious institutions with an overall grade of 4/5 Bologna Bachelor's from other institutions with an overall grade of 5/5, Excellent
- Diploma Specialista (completed post-1991) with a minimum overall grade of Excellent or 5/5 Bachelor's from Moscow Institute of Physics and Technology and other prestigious institutions with an overall grade of 5/5
- IELTS (Academic) 7.0
- TOEFL Internet Score 100
- £50 application fee
- First Academic Reference
- Second Academic Reference
- Transcript
- Personal Reference.
The financing of the Nuclear Energy program at the University of Cambridge typically encompasses a variety of funding sources designed to support both domestic and international students. Tuition fees constitute a significant portion of the program's financial structure, with fees varying depending on the student's residency status and degree level. For UK students, the tuition fees are structured according to the policies set by the university and may be subject to annual adjustments, whereas international students usually pay higher fees reflecting the international fee scale established by the university. Funding options for students include government-sponsored loans, scholarships, and bursaries. The UK government offers student loan schemes that can cover tuition fees and living costs, which are repayable upon graduation based on income thresholds. The university also provides a range of scholarships specifically tailored for students in engineering and energy-related fields, often awarded based on academic merit, research potential, or financial need. Additionally, there are industry partnerships and private sponsorship programs that can provide funding for research projects or tuition support, particularly for students involved in collaborative research or working on applied nuclear energy topics. Students are encouraged to explore external funding sources, including research councils, charitable foundations, and international scholarship programs. The university’s financial aid office offers comprehensive advice on the application procedures and eligibility requirements for various funding options. The cost of attendance includes tuition, registration fees, and estimated living expenses, which students can finance through a combination of personal funds, loans, and scholarships. The university supports students in applying for grants and funding opportunities early in the admissions process to ensure they have adequate financial support throughout their studies. Overall, the financing structure of the Nuclear Energy program is designed to ensure accessible, high-quality education while encouraging students to seek diverse sources of funding to support their academic and research pursuits.
The University of Cambridge offers a specialized program focused on Nuclear Energy within its broader engineering and physical sciences departments. This program is designed to provide students with a comprehensive understanding of the principles, applications, and safety protocols associated with nuclear power generation. It combines theoretical coursework with practical laboratory work and research opportunities, enabling students to develop both technical skills and critical thinking capabilities essential for careers in the nuclear industry.
Students enrolled in this program study core topics such as nuclear physics, thermal hydraulics, reactor design, radiation protection, and nuclear waste management. The curriculum emphasizes the importance of safety standards, regulatory compliance, and environmental considerations associated with nuclear energy use. As part of their training, students may have access to state-of-the-art research facilities, including reactor simulators and radiation measurement laboratories, facilitating hands-on experience in real-world scenarios.
The program also fosters interdisciplinary learning, integrating aspects of mechanical engineering, materials science, and environmental science to prepare graduates for a range of roles within the nuclear sector and related fields. The degree prepares students for employment in various areas including nuclear power plant operation, safety analysis, nuclear fuel cycle management, policy development, and research and development in nuclear technology.
Throughout the course, students are encouraged to engage with ongoing research projects and may benefit from the university's collaborations with industry partners, government agencies, and international organizations. This approach ensures that learners are well-equipped with current knowledge and skills aligned with the evolving landscape of nuclear energy. Graduates from this program are well-positioned to contribute to the safe and sustainable development of nuclear technology, addressing challenges such as climate change and energy security.
The program duration typically spans three to four years, depending on whether students undertake a bachelor's or master's degree, with opportunities for specialization in areas like nuclear safety, reactor engineering, or nuclear policy. The University of Cambridge's reputation for academic excellence and cutting-edge research makes this program highly prestigious and competitive. Graduates are highly regarded both within the UK and internationally, benefiting from the university's extensive alumni network and connections within the global nuclear community.
In summary, this program aims to produce highly skilled professionals capable of advancing nuclear energy technology and policy, ensuring it remains a viable, safe, and sustainable component of the world's energy portfolio.