Master of Science in Interpreting and Translating

at Heriot-Watt University - Edinburgh Campus United Kingdom

This is an advanced, specialist course in the rapidly expanding area of renewable energy engineering with a clear Mechanical Engineering focus. The course is aimed at students wishing to develop critical understanding of the significant changes afoot in the energy system due to the development and integration of wind, marine, biomass and solar technologies. The course will enable graduates to develop and implement creative solutions to the problems encountered in renewable energy capture, conversion, storage and management.

Students will gain the knowledge and skills to assess renewable energy resources, design appropriate renewable energy systems, evaluate the performance of these systems and assess the wider impacts of renewable energy development. The course provides introductory courses to fundamental energy science and current energy issues, while the project-led courses focus on the design of renewable energy systems. The course concludes with a research-led dissertation in the summer.

Renewable energy research focuses on six main areas:

• Photovoltaics and Solar Energy
• Wind and Marine Energy
• Renewable Energy Systems
• Minimising CO2 Emissions
• Biofuels
• Wind and Marine Energy

This course comprises a core of biology with an additional emphasis on the study of topics central to human health and wellbeing such as nutrition, physiology, and psychology. These themes are developed together throughout the course, with some flexibility in course structure and design, according to your interests or career aspirations.

This programme imparts the understanding and skills to develop advanced software systems to professional standards.

The programme has a flexible structure to suit graduates with a wide spectrum of degrees from those in IT to those with rather less academic computing content. The MSc covers core skills in Information Technology (IT) at MSc level while allowing students to study specialist advanced courses in topics such as animation, databases, e-commerce, games programming, intelligent robotics and network applications.

Graduates can expect to find employment with software houses, IT companies, research and development divisions of companies, financial services organisations, defence contractors or government IT agencies, and as researchers or research students within universities.

Since the 1990s Heriot-Watt University has had an internationally renowned research group in Mathematical Biology, Ecology and Medicine. This group includes Jonathan Sherratt, Andy White and Kevin Painter; all of whom are leading researchers in mathematical biology with strong international reputations.

Building on the strength of this research group we are excited to be launching a brand new MSc Programme in Mathematical Biology Ecology and Medicine. The programme includes high level and high quality courses that will provide a comprehensive training in mathematical modelling of problems in the life sciences, in mathematical techniques to study these models, and in the use of data to both inform and test the models.

During the summer you will do an extended project on a cutting-edge research topic that is aligned with our research interests. These include work on wound healing, pattern formation in developmental biology, epidemics, cancer, semi-arid ecosystems, and evolution. The programme will open up for you a wide range of career paths and possibilities for future study.

BSc Psychology at Heriot-Watt University is accredited by the British Psychological Society – an accreditation required for anyone who wishes to pursue a career as a professional psychologist.

Psychology uses scientific methods to examine key themes in the relationship between mind and behaviour. Through psychological study, we can explore the influence biology has on behaviour; the way humans develop from early infancy to adulthood; and the way people perceive the world, think, solve problems and make decisions.

At Heriot-Watt, we begin with a problem and consider how psychology can help us address it with practical solutions for the real world. We have four specialist research labs which facilitate the work of academics and students alike.

Heriot-Watt’s BSc Psychology degree is informed by the work and knowledge of research-active academics whose expertise in psychology covers three key areas:

• Work, Society and Environment
• Lifespan Health and Wellbeing
• Cognition, Brain and Behaviour

During this degree you will study Cognitive Psychology, Developmental Psychology, Individual Differences, Psychobiology, and Social Psychology. You will develop advanced skills in research, data gathering, data analysis, and report writing. You will also build your creativity, leadership, teamwork, communication, presentation, and problem-solving abilities. In Year 4 you will undertake your own research project.

The MSc in Computing is a two year postgraduate degree. The first year imparts the knowledge and skills needed to study the subject at masters level in the second.

This new degree is open to graduates coming from any discipline. They will start by learning the art of software engineering, study some key computing topics and develop relevant research and technical English skills that prepare them for advanced study of computer science in the following year.

At the end of Year 1 students may progress to Year 2 or graduate instead with a Graduate Diploma in Computer Science.

Our BSc Computer Systems degree is designed for students looking for a sound foundation and applied skills in computing in addition to other professional skills which will enable them to communicate clearly, work independently and co-operate effectively.

This International Marine Science course offers students with a background in marine biology, geology or geography the opportunity to integrate their expertise in the wider marine science context.

The highly interdisciplinary field of Marine Science aims to understand the biology, chemistry, geology and physics of this dynamic system so central to all our lives. It also considers the overarching influence of climate change and how policy can be brought to bear on managing the resources of the ocean as part of the Blue Economy.

The course has two core courses in Oceanography and GIS and offers a wide variety of options with maximum flexibility allowing students to pursue their studies either at our Orkney Campus or in Edinburgh. Furthermore the course offers an online study, through our Distance Learning option, with field work options in Malaysia and Orkney. Depending on the courses selected, Distance Learning students will be required to complete practical lab sessions in Edinburgh – students are responsible for meeting the costs of the travel and maintenance during these periods.

At Heriot Watt, we are delivering a new MSc programme in Subsurface Energy Systems (SES) that will edcate you about unlocking energy resources with a low carbon footprint. This will be a stepping stone for your career in industry, government, non-government organisations (NGOs) or academia.

The programme addresses key concepts in subsurface energy and CO2 storage, geothermal energy or transitional gas while integrating geoscience, engineering, political and societal aspects. It will appeal to geoscientists, reservoir engineers, governmental stakeholders and all those interested in the management of subsurface reservoirs used to switch from a fossil fuel-driven economy to a decarbonised one, using natural gas as a transitional energy resource. Its production from unconventional reservoirs comes with environmental risks that we have to assess and control. This degree is delivered jointly by The Lyell Centre and the Institute of GeoEnergy Engineering.

The recent report by the Intergovernmental Panel on Climate Change predicts serious consequences from further emitting CO2 into the atmosphere, thereby accelerating man-made climate change. This requires a drastic decarbonisation of our economies by switching from fossil fuels to renewable energies like wind, solar, hydro, or geothermal or by implementing carbon capture and storage (CCS) at scale. Renewable energies can readily be used in the form of electrical power. When electricity production exceeds the demand, electricity can be stored in grids or batteries at limited capacity. At larger scale, electricity can be stored in the subsurface after conversion to, for example, hydrogen, thermal energy, or compressed air until needed, allowing for back-production within short and longer time scales of hours to years.

In comparison to temporary energy storage, CCS aims at safe and permanent storage. The UK and especially offshore storage sites in Scotland are attractive targets for CCS and considered to extend the lifetime of oil and gas reservoirs significantly, thereby strengthening the related industrial sectors. The combined technologies of geothermal energy production, subsurface energy storage or CCS refer to the geoengineering aspects of subsurface energy systems (SES). In this context, SES rather refers to the integration of geoenergy applications with energy production at the surface as well as economic, societal and policy aspects.

There is a significant demand globally for research and training in these technologies, given that many small and large integrated oil and gas companies are decarbonising their assets, which at the same time, needs to be monitored and regulated by governmental bodies. Councils across the UK and Europe are increasingly looking at the subsurface for storing or producing energy.

Our BEng (Hons) Architectural Engineering covers a broad range of engineering-related disciplines including mechanics, construction, energy, thermal performance, water and wastewater, acoustics, and human behaviour.

The degree is designed to give you the knowledge and skills needed by industry to design buildings of the future that not only provide sustainable and low-energy built environments that have a positive influence on the health and wellbeing of the people who use them, but buildings that are also resilient and adaptable to future climate change. The later years of the degree focus on practical inter-disciplinary design and management skills, with an emphasis on your personal development as an architectural engineer within the professional environment.

Our architectural engineering degrees are supported by the Architectural Engineering Industrial Advisory Board, which includes representatives from major multi-national employers, ensuring our degrees are exactly what industry needs.