Bachelor of Engineering in Aeronautics and Astronautics

at University of Southampton - Highfield Campus United Kingdom

Our MSc Aerodynamics and Computation degree focuses on numerical methods and the physics and computation modelling of turbulence. It will enhance your knowledge of flow physics and your ability to use state-of-the art computational tools to improve industrial designs. This course is ideal if you’re an engineering, maths or science graduate with a strong background in fluid dynamics or aerodynamics.

This degree will prepare you for a career in industrial research and development, or ongoing postgraduate research.

You’ll take part in individual and group practical work as well as a critical research project, developing your expertise in aerodynamics.

You’ll examine current trends and challenges and engage in discussion and research on critical issues in the field. You'll also develop your ability to use experimental and advanced computational methods, such as particle image velocimetry (the measurement of the velocity of fluids), finite volume method and high-order finite difference methods

Research projects are often linked to our current research activities, or supported by industry or government funding bodies. Past students have undertaken research projects such as:

• The investigation of the installation effects on the noise of Dyson high-spend fans
• Aerodynamic load estimation from particle image velocimetry
• Morphing wings aircraft modelling

You’ll benefit from state-of-the-art facilities including high-performance computers and the RJ Mitchell Wind Tunnel, the largest university wind tunnel in the UK. Recent graduates have gone on to work at organisations such as Dyson and Rolls-Royce.

On this master's degree you'll gain a detailed overview of how to design a total space system. You’ll learn how the various component subsystems function and integrate with one another, and gain advanced knowledge of space systems engineering. 

Drawing on content from the professional courses we run for the European Space Agency and spacecraft industry, this master's course is ideal for both graduates and those who already have some professional experience of astronautics or aerospace engineering.

The degree has a strong practical focus. You’ll take part in individual and group design projects as well as conducting your own critical research project, allowing you to develop your expertise in spacecraft engineering. 

You’ll be able to put theory into practice with the help of world-class facilities such as our spacecraft propulsion laboratory, autonomous systems test bed and shaker table.

Develop the analytical and statistical skills for success in industry, business or public sector on this MSc Operational Research and Statistics at the University of Southampton. You’ll work with multinational industry partners on real case studies, and learn operational research techniques and applied statistical methods at an advanced level. You’ll graduate with the knowledge and practical skills in 2 highly valued disciplines. 

Operational researchers use analytical methods to help organisations become more productive through better planning of strategy and delivery. 

Statistics is an important tool for operational researchers, because it involves decision-making in the face of uncertainty. 

On this operational research UK master’s course you’ll learn to develop solutions to complex organisational problems using mathematical modelling, experimental design, statistical analysis and numerical computation. 

You'll gain essential skills in the 4 main areas of real-world problem-solving: 

• Analysing the problem through designing experiments, and collecting and visualising data
• Formulating the problem mathematically and offering solution approaches
• Providing statistical analysis and computation
• Presenting and communicating the results

A highlight of this statistics and operational research course is the 3-month summer project, when you’ll have the chance to compete to work with an external organisation on a real problem. This could relate to operational research, statistics, or both. 

This European master’s in embedded computing systems (EMECS) is a 2 year course run in partnership with Kaiserslautern University in Germany and the Norwegian University of Science and Technology (NTNU).

We are experts in system-on-chip (SoC) and electronics, NTNU specialise in electronics and communications, and Kaiserslautern in embedded systems. You’ll learn the fundamentals of embedded computing systems and experience life and study in different countries.  

Our MSc embedded systems degree is a European-based master’s. It allows you to study in 2 countries at different universities.  

On this embedded systems master’s degree you’ll learn the technologies that are transforming our communication systems. You'll get expert training from the:

• University of Southampton as a leader in system on chip electronics   
• Kaiserslautern University for embedded systems  
• Norwegian University of Science and Technology for electronics and communication

You’ll study the fundamentals of embedded computing systems to the same education level at any of the universities. You’ll get to choose what electives you study the options on offer reflect the university’s individual profiles and their research institutions.  

Become a leader in sustainable chemical engineering with this full-time master’s degree in Advanced Chemical Engineering. You’ll gain real-world insights working on actual industrial issues and will be equipped with the specialist skills needed to design sustainable technologies and processes.

As a chemical engineering graduate, you'll have excellent job prospects in sectors such as energy, pharmaceuticals and biochemicals. The skills you’ll gain in state-of-the-art reactor design, advanced understanding of safety and risk management and computer systems to control processes are in demand from companies around the world.

This chemical engineering degree has a strong focus on sustainable chemical engineering. On completion, you’ll have the skills to help the world transition to a more sustainable future. Through your optional modules, you can personalise your learning to a particular theme. You could focus on:

• Wastewater
• Reactors
• Biochemical engineering
• Electrochemical engineering
• Sustainable energy systems

Employability is embedded throughout this degree. As part of a group design project you'll work with a team to time and budget to design, prototype, computer model and/or manufacture a product that meets an industrial brief. Your project will be showcased in our annual Engineering Design Show.

You'll also complete an independent research project. Conducting independent, original and critical research on a subject of your choosing. This research can be done on an industrial placement.

We’ve recently invested £12 million in our chemistry laboratories, which include specialist chemical engineering equipment. You’ll work in our purpose-built engineering design studios using industry-standard tools and facilities.

Learn about the physics of magnetic resonance and its real-world applications on this unique master’s course at the University of Southampton. Nuclear magnetic resonance spectroscopy is crucial in providing insights for chemistry, biology and medicine. On this MSc you’ll benefit from hands-on experience with the latest magnetic resonance equipment. You’ll graduate with the knowledge and practical skills to move into industrial or academic research.

Magnetic resonance occurs when materials are placed in a strong magnetic field and exposed to radio waves.  

It is used in chemistry through nuclear magnetic resonance (NMR) spectroscopy, and in medical diagnostics through magnetic resonance imaging (MRI).

On this UK master’s course you’ll learn how fundamental physics can be used to help solve real-world problems: with this degree you could help develop new applications for diagnosing cancer or protecting the environment.

The topics you’ll study include:

• The dynamics of nuclear spins
• The practical aspects of magnetic resonance research
• Current problems in magnetic resonance research
• Numerical simulation methods

There’s a strong focus on practical experience throughout the course. We’ll teach you how to:

• Use modern magnetic resonance spectrometers
• Gather and process NMR data
• Interpret NMR data to answer research questions
• You’ll also benefit from our strong industry connections and industry-standard facilities.

Our world-leading contributions to magnetic resonance research include:

• Designing the NMR pulse methods used in all NMR spectrometers
• The discovery of nuclear spin quantum states with exceptionally long lifetimes
• Developing miniature NMR detectors to study extremely small samples

Our flexible approach means you can adapt the course to your personal interests or career plans. A wide range of optional modules allows you to complement your knowledge of magnetic resonance with specialist courses in molecular cell biology, cancer biology, advanced quantum physics or computational chemistry.

Our MSc Environmental Monitoring and Assessment master’s degree develops the professional skills required for a rewarding career as an environmental scientist in a fast-growing and rapidly-changing industry.

Highly skilled environmental scientists are critical for the safe and responsible governance of our environment. This environmental management degree will give you the ability to carry out environmental assessments and audits, handle environmental information and work with geospatial data.

On completing the course, you’ll be able to show your knowledge and understanding of:

• The importance of environmental concepts, terms, principles and methods
• The value of using techniques and ideas in different subject disciplines
• The socio-economic context of environmental issues and the legal framework for environmental regulation
• The contribution of science, engineering or communication to the identification and resolution of environmental issues
• The human causes and consequences of environmental impacts
• General environmental concerns, including biodiversity, environmental limits to economic or population growth

You’ll also have opportunities to work with environmental organisations and visit leading environmental and sustainability initiatives such as infrastructure projects.

Prepare for a career as an expert actuary with our actuary master's degree at the University of Southampton.

You'll have an early advantage in your career with a professional actuary degree that is recognised by the Institute and Faculty of Actuaries.

By the end of your studies, you’ll be able to assess and manage risk using advanced actuarial science methods. You can apply what you’ve learned to work as an analyst, or to many other careers that need quantitative skills.

You’ll learn how to become an actuary – a specialist who identifies, analyses and manages risks with long-term financial consequences. This expertise is vital in many businesses across the financial services industry.

This degree covers a broad collection of topics including:

• Actuarial maths
• Statistics and probability
• Economics
• Accounting and finance
• Survival models and analysis

The course is flexible and will cater to students both with and without actuarial education. When you start, we’ll advise you on module choices to meet your specific needs.

On this MMath Mathematics degree, you’ll work with leading researchers who’ll introduce you to pure and applied maths. Learn advanced mathematical and statistical concepts, covering topics from cryptography to black holes. You’ll graduate with the technical skills sought after by employers in finance, commerce, industry and research.

The first 3 years of this integrated master's degree are similar to both the Mathematics and the Mathematics with Statistics courses, covering:

• Algebra
• Calculus
• Number theory
• Statistics
• Mathematical modelling

In the fourth year, you’ll study advanced concepts such as representation theory, harmonic analysis, advanced general relativity or Lie groups.

There is also an MMath Mathematics with Statistics pathway available as part of this programme. Following the Statistics pathway you could study topics such as machine learning, survival analysis and other modern applications of statistics.

As part of this course you’ll:

• Study advanced research methods in algebra, analysis, geometry and topology
• Have the option to specialise in statistics
• Undertake an individual research project in a field of your choice
• Use our student centre, a dedicated learning and social space for maths students
• Use mathematical and computational packages such as Python and the statistics package 'R'

You’ll be taught through a combination of lectures and workshops, by leading researchers in fields, such as group theory, the mathematics of nature and experimental design.

Become a proficient data scientist with a master’s in Data Science at the University of Southampton.

You’ll study the latest techniques and technologies, including data mining, machine learning, and data visualisation. By the end of your studies, you’ll be able to develop original ideas and solve problems using advanced data science methods. You can apply what you have learned in fields such as data journalism, open government and social media.

Data scientists help organisations handle large amounts of data produced by digital technologies. Southampton is recognised around the world as a leader in many of the topics that form our data science curriculum. We offer one of the only data science master's programmes in the UK that covers every subject needed to become a skilled data scientist in industry, government or academia.

Our module teachers use their latest research to inform their teaching in emerging topics like:

• Intelligent agents
• Computational finance
• Open data innovation
• The science of online social networks
• Deep learning

Module options are flexible, so you can pursue your interests and adapt the programme to prepare you for your ideal career. We’ll also give you access to dedicated project labs, computer workstations, and infrastructure for large-scale analysis.