Master of Science in Communication Networks and Signal Processing

at University of Bristol - Clifton Campus United Kingdom

Our MSci course is ideal if you want to continue in research or to stand out when applying for a PhD.

In your first year you will gain a broad training in biomedical science and will begin to study the cellular and molecular basis of human diseases as well as basic biochemistry, cell biology, pathology and microbiology.

In your second year you will study molecular genetics and learn skills in recombinant DNA technology, which underpins research in many cutting-edge laboratories.

In the third year you will choose options from approximately ten different units, which reflect our research strengths in the areas of cancer biology, stem cell biology and regenerative medicine, and infection and immunology.

The additional, fourth year includes an extended research project and advanced research skills training with an emphasis on enterprise. You will plan projects, communicate with a variety of audiences and learn to translate and commercialise research.

The School of Cellular and Molecular Medicine focuses on turning science into medicine and these courses aim to launch you into a research career with an emphasis on translational research.

The innovators of the 21st century will bring together arts, science, engineering, humanities and enterprise to deliver innovative products, services and ways of living. They will be team players with a breadth of skills and qualities that enable them to work across specialisms and cultures.

This course combines in-depth subject specialism in physics with interdisciplinary breadth, creative teamwork and entrepreneurial skills. Alongside your physics studies, you will apply your subject knowledge by translating ideas into plans for digital and creative enterprises, both social and commercial.

This course combines all that you would expect of a research-informed physics degree with expert tuition, insight and practice in innovation and entrepreneurship. The course will equip you with all the critical, theoretical and practical skills central to physics. You will learn about the fundamental building blocks and forces of nature and how physics enables us to understand the world around us, from subatomic particles to cosmological length scales.

You will come together with students from other innovation disciplines, such as computer science and psychology, each contributing a unique perspective on a challenge as you identify needs and develop ideas. Ultimately, you'll create innovative solutions together.

By the time you graduate you will have a portfolio of work ranging from live client projects to planning your own entrepreneurial venture. You will have learned how to evaluate the potential of your product or service and how to finance it, and you will have a network of peers and advisers who have worked with you along the way.

You will explore the full range of plant biology, from enzymes to ecosystems. You will gain knowledge of the diversity, evolution and function of plants and of the latest developments in functional genomics, bioinformatics, plant developmental biology, plant pathology, parasite biology, cell signalling, pollination biology, ecology, plant conservation and systems biology.

The degree starts broadly and introduces more choice in years two and three, including a week-long field or laboratory-based course and a ten-week practical research project.

The University Botanic Garden is nearby. It was the first new university botanic garden to be built for 40 years and holds more than 4,500 plant species.

We have outstanding facilities in our brand new state-of-the-art Life Sciences Building and our lecturers are world-leading researchers in their fields.

This course provides an exciting intellectual challenge from the outset. In year one you will study physics and mathematics and philosophical topics such as metaphysics, the theory of knowledge, and ethics.

Subsequent years allow you to study the overlap between the subjects in depth and might include units in the philosophy of science and the foundations and philosophy of physics.

The course gives you the opportunity to develop a physicist's broad range of skills, including problem solving, numeracy and communication, and to supplement these with a philosopher's ability to rigorously analyse complex texts and form coherent arguments on complex subjects.

You will join a friendly department with a very active, award-winning student society. The course is accredited by the Institute of Physics.

In your first year you will gain a broad understanding of the biology of normal and cancerous cells. In addition to studying the immune system, you will take pathology, microbiology and biochemistry units.

In the second year you will study the cellular and molecular basis of cancer and its therapy, as well as autoimmune diseases, such as multiple sclerosis, diabetes and arthritis, and human cancers caused by viruses, such as papillomavirus and hepatitis B. You will take molecular genetics and an optional unit, possibly biochemistry or pharmacology, from a selection offered by other schools.

All practical teaching in years one and two is supported by the eBiolabs dynamic laboratory manual.

In the final year you will undertake a research project or scientific dissertation, working in a research group in our Biomedical Sciences building or in one of the surrounding hospitals. Your work may even be published in scientific literature.

The four-year BSc Cancer Biology and Immunology with Study in Industry is available by transfer after securing a placement during your second year.

Bristol and the surrounding area host a thriving and world-renowned semiconductor design industry. The different groups involved in microelectronics research at the University of Bristol have many collaborative links with multinational companies in the microelectronics industry. These organisations have identified a shortfall in graduates with the necessary qualifications and professional skills to work in the sector, so this programme has been designed to meet this need.

A range of taught subjects cover core topics, such as digital and analogue ASIC design, DSP and FPGA-based computing, integrated sensors and actuators, radio-frequency and mixed-signal design. Changes are made periodically to reflect important emerging disciplines, such as electronics for the Internet of things, biomedical applications and quantum photonics applications.

The programme offers you the opportunity to learn from experts in microelectronics, nanoelectronics and computer science. You could move on to start working straight after your degree or continue your studies via a PhD. Special emphasis is put on providing you with a range of contemporary design skills to supplement theoretical knowledge. Lectures are accompanied by lab exercises in state-of-the-art industrial EDA software to give you valuable experience of a professional environment.