Bachelor of Arts in Comparative Literatures and Cultures and Portuguese

at University of Bristol - Clifton Campus United Kingdom

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 electrical and electronic engineering with interdisciplinary breadth, creative teamwork and entrepreneurial skills. Alongside your electrical and electronic engineering studies, you will apply your subject knowledge by translating ideas into plans for digital and creative enterprises, both social and commercial.

The course will equip you to use the critical, theoretical and practical skills central to electrical and electronic engineering, allowing you to develop your knowledge and skills across a range of areas. You will gain a grounding in mathematics, computing, analogue and digital electronics, communications, electromagnetics, power electronics and control, and will explore a range of optional courses and individual project topics. The diverse range of units allows you to focus on anything from electrical power systems to electronic communications.

You will come together with students from other innovation disciplines, such as computer science and management, 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

The first year gives you a comprehensive grounding in chemistry, physics and mathematics. Later years focus on atomic and molecular science and its interdisciplinary applications.

You will focus on areas at the interface between chemistry and physics, with less organic and synthetic chemistry and more physical and non-synthetic inorganic chemistry. Similarly, there is very little nuclear and particle physics after your first year but an emphasis on materials science and nanoscience.

As well as lectures and practical classes, small-group tutorials and workshops help develop your understanding of challenging and exciting concepts. You will undertake a project or scientific dissertation, working in a research group with an academic.

The course is accredited by both the Institute of Physics and the Royal Society of Chemistry.

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 before introducing more choice in years two and three, including a week-long field or laboratory 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.

The MSci is particularly suited to students who are planning to continue in plant science research and would like extra experience and a competitive edge when applying for PhDs or research jobs.

Biomedical engineering is an emerging field in the UK that involves applying physical, chemical, mathematical, computer science and engineering principles to the analysis of biological, medical, behavioural and health-related problems. Biomedical engineers develop innovative devices and procedures to help prevent, diagnose and treat diseases. It relies on an in-depth understanding of science and engineering fundamentals, combined with a broad knowledge of physiological and anatomical systems.

This program will enable you to gain expertise in this exciting field and covers both theory and practical applications. You will acquire analytical tools and a broad physical knowledge of modern engineering and science. This is combined with a fundamental understanding of anatomical and physiological systems, and familiarity with recent technological breakthroughs.

Do you like both chemistry and computing? Why choose between them? Modern chemistry relies on the latest computer technologies and computing to address global challenges facing the environment and human society.

BSc Chemistry with Scientific Computing combines study of the structure and synthesis of matter with development of computational and data analysis skills. It creates a new kind of scientist – one with a firm foundation in chemistry, a sound appreciation of scientific computing and an understanding of what can be achieved by combining them.

The course offers a unique combination of units and projects incorporating coding, machine learning and high-performance computing, with fundamental concepts in inorganic, organic and physical chemistry, and applications in analytical, environmental, materials and theoretical chemistry.

You will learn to design experiments, interpret results and apply computing skills to problems in chemistry, and you will take units in communications and mathematics.

Additionally, there is a final-year project. Options include working in a research laboratory or addressing a problem faced by researchers in academia, industry or a local school. You might develop science resources, explore computing applications or carry out chemistry education research. Regardless of the setting, an expert in scientific computing and a specialist in chemistry will both be involved.

Studying neuroscience will enable you to explore the workings of the brain, from molecules to neural systems, answering questions such as: how do neurones communicate with each other to lay down memories? What goes wrong in neuropsychiatric disorders such as Parkinson's and schizophrenia? How do we feel pain?

Your knowledge will build from studying core units in years one and two to studying selected, in-depth courses in your final year. Second-year units explore many aspects of neuroscience, including the neurophysiology of the central nervous system; the pharmacology of drugs that affect the nervous system; and the techniques that have enabled advances in understanding the nervous system.

Final-year units are run at the forefront of current research and include subjects such as synaptic plasticity and brain and behaviour, as well as studying specialised topics, such as neuropsychiatric diseases. You will also spend 30 days on a research project.