About the Department of Physics
The Department of Physics, or the Cavendish Laboratory as it is widely known, has a long history of world leading research and teaching. The Cavendish is home to approximately 430 graduate students and admits students to six different programmes although the the majority are studying for a PhD in one of the 14 research groups.
Our seven research themes span the full range of research activities being carried out in the Laboratory and reflect national research priorities. Many themes cover the work of more than one research group, encouraging new associations and cross-disciplinary collaboration. While the core of our research programme is in experimental physics, essential theoretical support is provided by theorists embedded within the astrophysics and high energy physics research groups, while the condensed matter theory group are strongly cross-disciplinary and contribute to most of the themes.
9 courses offered in the Department of Physics
Computational Methods for Materials Science CDT - MPhil + PhD - Closed
The development of new materials lies at the heart of many of the technological challenges we currently face, for example creating advanced materials for energy generation. Computational modelling plays an increasingly important role in the understanding, development and optimisation of new materials.
This four-year doctoral training programme on computational methods for material modelling aims to train scientists not only in the use of existing modelling methods but also in the underlying computational and mathematical techniques. This will allow students to develop and enhance existing methods, for instance by introducing new capabilities and functionalities, and also to create innovative new software tools for materials modelling in industrial and academic research.
The first year of the doctoral training programme is provided by the existing MPhil course in Scientific Computing, which has research and taught elements, as well as additional training elements. The final three years consist of a PhD research project, with a student-led choice of projects offered by researchers closely associated with the CDT. (https://ljc.group.cam.ac.uk)
Data Intensive Science - MPhil - Closed
The MPhil in Data Intensive Science is a 10-month cross-departmental programme in the School of the Physical Sciences which aims to provide education of the highest quality at the master’s level. The programme covers the full range of skills required for modern data-driven science. The course covers material from the fields of machine learning and AI, statistical data analysis, research and high performance computing, and the application of these topics to scientific research frontiers; primarily in Astronomy, Cosmology and Particle Physics.
The course structure has been designed in collaboration with our leading researchers and industrial partners to provide students with the theoretical knowledge, practical experience, and transferable skills required to undertake world-leading data-intensive scientific research. Students will gain the broad set of skills required for scientific data analysis, covering traditional statistical techniques as well as modern machine learning approaches. Both the theoretical underpinnings and practical implementation of these techniques will be taught, with the later aspect including training on software development best practice and the principles of Open Science. The course also aims to provide students with direct experience applying these methods to current research problems in specific scientific fields. Students who have completed the course will be equipped to undertake research on data-intensive scientific projects. Beyond academic disciplines, students will be well prepared for a career as a data science professional in a broad range of commercial sectors.
This course will equip students with all the skills required for modern scientific data analysis, enabling them to participate in large experimental or observational programmes using the latest statistical and machine learning tools deployed on leading-edge computer architectures. These computational and statistical skills will also be directly applicable to data-driven problem-solving in industry.
Interdisciplinary Nanoscience and Nanotechnology - PhD - Closed
The vision of this PhD programme is to deliver bespoke cohort-based interdisciplinary training that promotes holistic problem-focused thinking for nanoscientists, drives new scientific directions, and impactful and responsible translation of research to technologies. A particular emphasis will be exposure to a broad range of world-class research environments to allow students to discover their individual research and technology interests and develop strong ownership of their PhD topic.
The first six months of the programme will provide advanced-level training, specifically designed for students, through an integrated lectures + practicals module on Applied Nanoscience, a module on System Integration for Experimentalists and one short and one longer experimental project prior to the final selection of an interdisciplinary PhD research project between two research groups in the Departments of Physics, Chemistry, Engineering, Materials Science or another relevant department within the University. An additional module on Innovation for Scientists will help students develop a wider perspective, including training on innovation, sustainability and responsible research.
Throughout the programme, there will be an environment that supports creativity, resilience, peer-to-peer learning, networking, and connectivity. The programme will offer professional skills training to support students on different career paths in industry, academia, and beyond, and it will help students discover and nurture their leadership approach in varied contexts. Cross-cohort events will include student-led conferences, research seminars, onsite and offsite research, career development workshops led by internal and external experts, and other activities.
Physics - MPhil
The MPhil is offered by the Department of Physics as a full-time period of research and introduces students to research skills and specialist knowledge. Students are integrated into the research culture of the Department by joining a research group. They are expected to attend the Department’s programme of research seminars and other postgraduate courses but most research training is provided within the group structure and overseen by their supervisor.
Physics - PhD
The PhD in Physics is a full-time period of research that introduces or builds upon research skills and specialist knowledge. Applications for part-time study may also be considered, but attendance requirements need to be fulfilled. Students are assigned to a research Supervisor, a specialist in part or all of the student's chosen research field, and join a research group which might vary in size between a handful to many tens of individuals. Details of the various research groups can be found on the Research Groups page on the Department of Physics website.
Physics - MASt - Closed
The MASt in Physics is a taught master's-level course in which students who applied from outside the University of Cambridge work alongside students taking the final year of the integrated undergraduate-and-master's course in Physics. This year is designed for students who wish to pursue a professional career in physics, (in academic or industrial research) and who are already familiar with the physics covered in a typical three-year UK bachelor's physics programme.
MASt students study alongside the fourth-year students taking the physics part of the integrated Cambridge Natural Science course, commonly referred to as Part III physics. Details of the current Part III physics course can be found on the Department of Physics website.
The MASt in Physics should not be confused with the MASt courses in Mathematics and in Astrophysics, each of which provides an alternative taught master's course with physics components.
Scientific Computing - MPhil - Closed
The MPhil programme in Scientific Computing provides world-class education on high performance computing and advanced algorithms for numerical simulation at continuum and atomic-scale levels. The course trains early-career scientists in the use of existing computational software and in the underlying components of the simulation pipeline, from mathematical models of physical systems and advanced numerical algorithms for their discretisation, to object-oriented programming and methods for high-performance computing for deployment in contemporary massively parallel computers. As a result, course graduates have rigorous research skills and are formidably well-equipped to proceed to doctoral research or directly into employment. The highly transferable skills in algorithm development and high-performance computing make our graduates extremely employable in all sectors of industry, commerce and finance.
The MPhil in Scientific Computing is suitable for graduates from any discipline of natural sciences, technology or engineering, who have good mathematical and computational skills.
Superconductivity: Enabling Transformative Technologies EPSRC CDT - PhD - Closed
This PhD course is part of the Centre for Doctoral Training (CDT) programme in Superconductivity: Enabling Transformative Technologies led by the University of Bristol.
The CDT will create a step change in superconductivity training in the UK by using a cohort-based approach to provide a diverse new generation of researchers with the interdisciplinary and teamwork skills required to develop transformative technologies needed to engineer Net-Zero, advance healthcare, and deliver novel quantum devices.
Bringing together the universities of Bristol, Oxford, and Cambridge, the CDT will deliver comprehensive graduate training across their Physics, Materials Science, Engineering, and Chemistry departments.
The programme will be co-delivered with partners encompassing industry, research facilities, and the educational sector. The CDT will serve as a vibrant hub for the wider UK superconductivity community, with the added value of providing training and networking opportunities to those outside of the CDT.
Sustainable Energy Materials Innovation - PhD - Closed
The Sustainable Energy Materials Innovation PhD course at the University of Cambridge will provide diverse training in the design and discovery, development, scale-up, life-cycle analysis, and systems integration of advanced energy materials and devices in areas strongly guided by the needs of the ‘net-zero’ industry. It will train the future leaders needed for a rapid transition to a zero-carbon society and make transformational, incremental, and disruptive materials discoveries facilitating the energy transition.
6 courses also advertised in the Department of Physics
2D Materials of Tomorrow EPSRC CDT - PhD - Closed
From the Department of Engineering
This four-year doctoral training programme in 2D Materials of Tomorrow is part of the EPSRC Centre for Doctoral Training in 2D Materials of Tomorrow (CDT), and aims to provide students with the knowledge and skills for cutting edge, cross-disciplinary research in the science and applications of two-dimensional materials – a new class of advanced materials with potential to transform modern technologies, from clean energy to quantum engineering. The first six months of the programme are based at the University of Manchester, during which time students will engage in a rigorous training programme with a strong emphasis on experimental skills and techniques underpinning the development of 2D Materials applications. Some students will then transfer to Cambridge, depending on final project allocation. Full funding is available for eligible students.
Potential applicants should contact the CDT directly though its University of Manchester website and receive instructions before accessing this application portal. Home students will be registered at Manchester in the first instance and will use this portal to transfer their registration. International students will be registered at Cambridge from the beginning of the degree (but will still live and undertake the training in Manchester with the rest of the cohort).
Advanced Materials for the Energy Transition - MPhil - Closed
From the Department of Materials Science and Metallurgy
The MPhil in Advanced Materials for the Energy Transition is an 11-month Master's Programme that is designed to deliver outstanding postgraduate level training in the sciences related to the development of new materials for low-carbon energy technologies.
Global warming and energy challenges are putting strong constraints on our society and will lead to major economic and societal changes in the future. To overcome these challenges and promote a sustainable modern society, it is necessary to develop new technologies with minimum environmental impact for example with low energy consumption and low carbon production.
The development of these energy-materials-based new technologies necessitates an interdisciplinary expertise in scientific and technological domains such as Physics, Chemistry, and Materials Science. This interdisciplinary training is necessary to understand and model new materials properties, find ways to synthesize them, and develop new zero-carbon energy technologies.
The Master's level degree responds to this demand and it is shaped to address it. It combines core elements with general and specialised training with a strong research project element. The training will combine different scientific disciplines.
Biological Sciences - PhD - Closed
From the School of the Biological Sciences
The Cambridge Biosciences DTP is a four year fully-funded PhD programme that aims to create highly skilled and employable people. The programme offers training across 23 University Departments/Institutes and 3 Partner Institutes providing access to a wide range of research areas related to the strategic themes of the BBSRC. We offer three types of DTP studentships:
- DTP Standard
- Targeted
- iCase
During the programme, DTP Standard and Targeted students will undertake two ten-week rotations in different labs before commencing their PhD. They will receive training in a variety of areas including but not limited to statistics, programming, ethics, data analysis, scientific writing and public engagement. Students will also undertake a 12-week internship (PIPS).
iCase students are not required to undertake rotations but may do so if they feel that this training would be useful. They must undertake a placement with their Industrial Partner for a minimum of three months and a maximum of 18 months.
Students will be expected to submit their thesis at the end of the fourth year.
Part-time study, whilst not the norm, may be viable, depending on the project, and will be considered on a case by case basis so please discuss this option with your proposed supervisor before making an application for this mode of study.
Developing National Capability for Materials 4.0 EPSRC CDT - PhD - Closed
From the Department of Materials Science and Metallurgy
This PhD course is part of the EPSRC Centre of Doctoral Training (CDT) in Developing National Capability for Materials 4.0 led by the University of Manchester.
Success in achieving net zero, delivering a healthy nation and driving increased national resilience and productivity, will be critically reliant on novel materials and devices. This demands rapid delivery, but it typically takes up to 20 years to bring new materials to commercial use. To move faster we need scientists and engineers able to exploit new developments in high-throughput approaches to making, characterising and testing new materials, and able to deploy materials modelling and materials informatics to generate and exploit materials data. We need to digitalise the materials innovation process to accelerate development, certification and deployment of new materials, and materials systems. We need researchers adept at working across interfaces between machine learning, informatics, physical and cyber systems and modelling, learning from advances in other disciplines and breaking silos. In other words, we need graduates proficient in ‘Materials 4.0’.
The goal of this PhD program is to develop leaders in the field of Materials 4.0 and ambassadors for a broader cultural shift in the practice of materials science. Working across boundaries between fields, the students will develop and advocate for new capabilities (methods and techniques) to drive forward the digitalisation of materials research and innovation.
The CDT will develop the necessary skills in a significant number of new scientists, but our ambition is to build an even broader skills base for UK academia and industry. The training programme is therefore designed to take our students from learners to leaders over the course of the programme. The students will begin by learning core skills, but as they develop proficiency and confidence they will play a role in training others, within and external to the CDT. Their research projects will focus on developing new methods and tools within Materials 4.0 and in their last two years the students will take the lead in developing training materials for these new methods, delivering training and disseminating the new capability.
By training a new generation of researchers in the digitalisation of materials science, the CDT will provide the skilled recruits that UK industry and academia need to shorten time to market, improve productivity and resilience and maintain industrial competitiveness. Moreover, through the innovative delivery mechanism of our national CDT bringing together the strengths of three national institutes, we will drive broad culture change, disseminating skills across industry and academia, making Materials 4.0 a ubiquitous way of doing materials science.
Micro and Nanotechnology Enterprise - MPhil - Closed
From the Department of Materials Science and Metallurgy
The MPhil in Micro and Nanotechnology Enterprise is an exciting opportunity in which world-leading scientists and successful entrepreneurs are brought together to deliver a one-year master’s degree combining an in-depth multidisciplinary scientific programme with a global perspective on the commercial opportunities and business practice necessary for the successful exploitation in the rapidly developing fields of nanotechnology and nanomanufacturing.
The programme is intended for those with a good first degree in the physical sciences and relevant areas of engineering, who wish to develop research skills and commercial awareness of the cutting-edge disciplines of micro- and nanotechnology. The course will provide an unparalleled educational experience for entrepreneurs in these fields.
Planetary Science and Life in the Universe - MPhil - Closed
From the Institute of Astronomy
The MPhil in Planetary Sciences and Life in the Universe is a 10-month cross-departmental programme delivering outstanding postgraduate level training in the search for life’s origins on Earth and its discovery on planets beyond Earth.
The course structure has been designed by leading scientists to provide students with the theoretical knowledge, practical experience, and transferable skills required to undertake world-leading research in Planetary Sciences and Life in the Universe. Graduating students will be equipped with the discipline specific-specialisations and skills of a masters course, whilst gaining understanding in how the core areas that bridge PSLU fields form the cross-disciplinary foundation of this exciting new frontier.
Graduates of the course will gain valuable skills rooted in the study of the physics, chemistry, mathematics, and biology of planetary science and life in the universe. Transferrable skills training is delivered through the three group-based projects running over the year: these provide a unique opportunity for students to gain experience of leadership, collaboration, and written and oral communication. The training provided will be an outstanding foundation for PhD research in planetary science, exoplanetary science, Earth system science, planetary astrophysics, astrobiology and allied disciplines, or for the wide range of careers where analytical skills, excellent communication, and experience of leading collaborations are key.