Masters in Aerospace Engineering in ${country}

This accelerated version of our Master of Professional Engineering (Aerospace) degree is designed to provide you with deep technical skills in your chosen field of engineering combined with professional development in the areas of communication, leadership, and time and resource management.

The Master of Professional Engineering (Accelerated) is the ideal two-year full-time degree for those engineers who have previously graduated with an undergraduate engineering degree in a related field seeking recognised accreditation to practice in Australia and overseas.

This professionally accredited course aims to provide you with a broad base of engineering, computational and analytical skills, as well as the specific knowledge and experience required for careers in the aeronautical industry.

You also have the chance to complete an integrated year abroad at one of our partner universities where you can challenge yourself in a different academic and cultural environment. You will then return to Imperial to complete your studies during your fifth and final year.

Our MSc Satellite Data for Sustainable Development is a globally unique Masters degree which embraces the UN Sustainable Development Goals to offer a cross-disciplinary approach to teaching of satellite applications, space system design, data science and sustainability. The applied learning activities of the MSc programme is strategically aligned with the goals and interests of the University of Strathclyde’s Centre for Sustainable Development, to give students a wider exposure to the global movement that surrounds the 17 UN SDGs. 

The course will have a focus on the practical use of satellite data in direct applications to SDGs through the analysis of case studies and engagement, through student projects and invited talks with start-ups and NGOs actively working in the field.  Students will gain an insight in to the broad use of satellite data across various industries and will be equipped with the necessary technical skills and critical thinking to understand the challenges we are facing globally and develop innovative solutions, through project based learning (some of them group based) and a final individual project.

Aerospace engineering is a rapidly changing and challenging discipline in which areas such as aerodynamics, flight mechanics and performance, wind energy, propulsion, aerospace structure and materials and space engineering and robotics are being studied and researched. Addressing the future sustainability of air transport, earth bounded transport systems and indeed performance of sport vehicles such as Formula 1 cars depends on the innovations in which aerodynamics, flight performance, propulsion, and materials play an essential role.

In Year 1 you’ll build a strong foundation in fundamental engineering concepts such as fluid mechanics, design, materials and mathematical modelling, whilst being introduced to Aerospace engineering through our ‘Explore Aerospace Engineering’ module. Modules in design and experimental practice, will help you to develop the practical workshop and laboratory-based skills necessary for all engineers, and put core programme material into perspective and to practical use.

During Years 2 and 3, you’ll develop your understanding of this rapidly changing and challenging discipline studying areas including flight mechanics and performance, and aircraft and spacecraft design. We’ll also explore innovation in aerodynamics, flight performance, propulsion and materials and how these fields can be used to address the future sustainability of both air and space transport, as well as earth-bounded vehicles and energy technologies such as cars and wind turbines.

Students who choose to take the MEng degree will learn advanced modules and carry out an industry or research-linked project that focuses on solving real engineering research and design problems. Recent projects have included designing and constructing a rocket capable of breaking the UK altitude record and designing a solar-powered racing car.

We place strong emphasis not only on the technical content of our modules, such as mechanics, thermodynamics and design, but also on the cross discipline skills vital for an engineer to function in the work place. We have mapped the modules in our programmes to a range of attributes that we would like our students to attain, within the areas of creativity, resilience, communication and professional practice in order to produce well-rounded, interested and highly employable graduates. This mapping ensures these skills are embedded in the technical modules on the programmes. This not only ensures that the students develop technical knowledge and understanding as they progress through their degree, but it also gives us the confidence that students will graduate with skills they can apply to a range of future careers or higher-level study.

We've recently undertaken a review of our programmes to ensure that they will prepare you for life beyond 2030 and ensure they reflect the global challenges facing both our society and your future as engineers. We have developed the modules we offer in consultation with our students, staff and industry to enhance your student experience and graduate employability.

An aerospace professional needs to be able to communicate effectively with experts in different fields. By the time you graduate, you'll have plenty of experience with this.

All first year students also take the Global Engineering Challenge, where teams of students work to solve engineering problems in developing countries. This is designed to develop you as a professional engineer and enhance your career prospects. Second years get to work on a project to solve a problem set by one of our industrial partners.

Your year in industry will put your studies into context and enhance your career prospects. You will pay a reduced fee to the University for that year and you'll be paid a salary.

After a year of core study, you'll choose either the avionic systems or aeromechanics stream. In your final year, you'll work on a research project led by one of our world leading academics.

Our aerospace engineering courses encompass advanced materials, design, aerodynamics, space systems, propulsion, and the latest in computational and simulation tools.

By using our extensive facilities for aerodynamics and materials testing, including our demonstrator jet engine and flight simulator, you’ll put the theory you learn into practice.

With our research-led teaching, specialists will guide you in areas such as aircraft and environmental aerodynamics, propulsion, computational fluid dynamics and modelling of flows in gas-turbine engines (with links to our Rolls-Royce University Technology Centre).

You can apply to study for either a BEng or MEng. The latter builds on the BEng with a masters year and is a direct route to a masters qualification. Find out more about the benefits of an integrated masters degree.

This is for you if you are interested in studying Aerospace Engineering at an advanced level.

The course builds upon the General Engineering structure of the Department of Engineering. Hence, you will be exposed to a wide range of subjects across the Aerodynamics and Fluids, Materials and Control themes. There are few General Engineering departments in the UK which can offer such a broad perspective.

The modules of the course are organised in four themes. Control, Fluids, and Mechanics of Materials are core aerospace technology themes, which match the research background of the staff of the Department of Engineering. The fourth theme is the application of systems engineering to aerospace projects and missions.

The course includes the option of an industrial placement, which is a great way to gain valuable experience.

The University of North Dakota is the place to be for UAS. The New York Times called our Grand Forks campus “the Silicon Valley of unmanned aircraft systems,” and students here regularly have the chance to interact with small and large UAS companies such as:

• Northrup Grumman
• General Atomics
• Rockwell Collins
• SkySkopes

Our students benefit from a curriculum high on hands-on, real-world UAS experience. Systems engineering curriculum well-suited for a broad spectrum of engineers — including mechanical, electrical and robotic — as well as aerospace and computer science majors.

Build a future working with aircraft, spacecraft, rockets, unpiloted aerial and space robotic platforms, and more. In this program, you'll have opportunities for advanced education and creative research. These are essential skills for careers in teaching, research, or design. Through your study, you'll also find opportunities to contribute to the body of knowledge in the field. When you graduate, you'll be ready to design and analyze the systems used in aerospace, aeronautics, and astronautics.

Aerodynamics and fluid dynamics, aerospace structures and materials, and combustion and propulsion are the three areas of concentration at Florida Tech for students seeking a master’s degree in aerospace engineering. Located in the heart of Florida’s Space Coast near Kennedy Space Center, Florida Tech was founded in support of the space program, and since 1958 has offered students a comprehensive aerospace and aeronautics education.

The aerospace engineering master’s program prepares students for a challenging professional career or for further graduate study in the doctoral program, putting emphasis on advanced knowledge, problem-solving expertise, and rigorous scientific research beyond that normally obtained during an undergraduate engineering education.

The MEng in Engineering, Aerospace Systems Engineering Concentration is a professionally-oriented degree program for students whose primary intent is a career in industry or government. This degree differs from the Master of Science degree in that it is a terminal degree and not a pathway to a doctoral program. The Aerospace Systems Engineering Concentration is available on campus and online. Other concentrations under the MEng in Engineering major include Autonomy and Robotics, Energy Systems, Plasma Engineering, and Railway Engineering.