Universitat Politècnica de València (UPV)
Master's Degree in Thermofluids in Aerospace Systems
Hangzhou, China
Master degree
DURATION
1 year
LANGUAGES
English, Spanish
PACE
Full time
APPLICATION DEADLINE
EARLIEST START DATE
Sep 2027
TUITION FEES
EUR 4,290 *
STUDY FORMAT
On-Campus
* for all EU, national, foreign, and international students: 4290,6 €
Key Summary
About: This Master’s in Aerospace Systems trains specialists in fluid mechanics for aeronautical engineering, covering aerodynamics, computational fluid dynamics (CFD), aircraft design, structures, materials, vibration, noise, control and propulsion. It includes numerical methods, computer vision, dynamic systems modeling, ethics and scientific writing. Teaching mixes theory, labs, industry projects, international collaboration between Beihang University and the Universitat Politècnica de València, and a research master’s thesis on aerospace innovation.
Career Outcomes: Key career opportunities include aerodynamic simulation engineer, propulsion specialist, computational fluid mechanics researcher, simulation consultant and software developer. Graduates can work as R&D, test or certification engineers in aerospace, propulsion sectors.
The Master’s in Aerospace Systems is designed to train highly qualified professionals in the field of fluid mechanics applied to Aeronautical Engineering, with the ability to respond to the technological and strategic challenges of the aerospace sector. The programme integrates advanced courses in aerodynamics, computational fluid mechanics, aircraft design, structures and materials, vibration and noise analysis, predictive and robust control, as well as cutting-edge technologies in transport and propulsion systems.
It is complemented by supporting subjects such as numerical methods, computer vision applied to industry and dynamic systems modelling, together with training in ethics, scientific writing and language skills, providing students with a comprehensive, global and multidisciplinary perspective.
The degree combines theoretical and practical teaching with an approach applied to research, development and technological innovation. Students participate in aerospace engineering laboratories, joint projects with industry and international cooperation activities. The programme fosters a close university-industry relationship, collaboration between Beihang University and the Universitat Politècnica de València, and the development of a master’s thesis with innovative contributions.
In this way, the master’s degree prepares professionals capable of leading aircraft design, simulation and optimisation projects, addressing complex problems in aerodynamics and structures, and contributing to the sustainable evolution of the aeronautical sector in a highly competitive global context.
Module 1: Compulsory (minimum credits: 40)
Subject: Mathematical tools
- Matrix Theory and Applications
- Numerical Analysis
Subject: Physical and Aerodynamic Principles of Aerospace Vehicles
- Advanced experimental fluid mechanics
- Modern aircraft design
- Vibration and noise analysis
Subject: Modeling and Analysis of Aerospace Flows
- External Aerodynamics and High Mach Number Flows
- Fundamentals of R&D&I applied to computational fluid dynamics
- Geometry and Meshing Technics
- Turbulence: physics and modelling
Module 2: Complementary Training (minimum credits: 8)
Subject: Complementary Training
- Advanced thermal Analysis
- Chinese / Spanish
- Engineering ethics
- Fundamentals for simulating Computational Multiphase Flow
- Modeling Systems with Motion
- Scientific writing and presentation
Module 3: Master's Thesis (minimum credits: 12)
Subject: Master's Thesis
- Master's Thesis
Fundamental
- Independently integrate and apply the knowledge, techniques and skills acquired in the Master's Degree to prepare an original research work or an advanced project in the aerospace field, presenting and defending it publicly before a university tribunal with technical rigour, methodological solvency and critical capacity.
- Model and analyse complex aerospace flows
- Know different computer tools for the preprocessing of computational fluid mechanics problems
- Design and execute computational simulation processes
- Know the different strategies for modelling turbulence depending on the nature and characteristics of the problem under consideration
- Integrate research and development (R+D) methodologies in the resolution of advanced problems
- Understand the basis of the different numerical methods available for solving problems associated with aerospace systems
- Select the methods and numerical schemes best suited to the nature of the problem under consideration
- Know the different methods of solving and analysing equations that govern the physics of aerospace systems
- Analyse vibration, noise and structural dynamics phenomena in aerospace vehicles
- Integrate physical, aerodynamic, and structural principles into the preliminary design of aircraft
- Interpret and validate experimental results related to the aerodynamic behaviour of aircraft
The Master’s in Aerospace Systems aims to train highly specialised professionals in the analysis, simulation and optimisation of aerodynamic phenomena using advanced experimental and computational fluid dynamics (CFD) techniques. The degree responds to the growing demand in the aeronautical and aerospace sector for engineers capable of tackling the design and validation of aircraft, engines and propulsion systems through cutting-edge numerical tools.
The curriculum combines solid theoretical foundations with practical applications oriented towards real engineering projects and research in collaboration with industry.
The graduate professional profiles are as follows:
These profiles have been defined in collaboration with sector experts and renowned researchers, ensuring that the master’s degree provides excellent, relevant training aligned with the needs of industry and research. The combination of advanced technical competences and transversal skills will enable graduates to integrate into multidisciplinary teams and perform competently in a highly competitive global market.
- Aerodynamic Simulation Engineer: Specialised in the use of CFD methodologies for the analysis of aircraft behaviour, optimising their aerodynamic performance and energy efficiency.
- Propulsion and Internal Flow Specialist: Focused on the modelling of turbines, jet engines and propulsion systems, with the ability to solve complex problems related to turbulence, combustion and heat transfer.
- Computational Fluid Mechanics Researcher: Oriented towards the development and validation of new simulation techniques, numerical models and high-fidelity algorithms applied to the aeronautical and aerospace field.
- Aeronautics and Advanced Simulation Consultant: Capable of advising companies in the sector on the implementation of CFD solutions, integrating computational models into aircraft design, certification and improvement processes.
- Scientific Simulation Software Developer: Prepared to design, adapt and optimise simulation codes in supercomputing environments, contributing to innovation in aeronautical engineering.
Mainly aimed at
- Mainly aimed at university graduates whose academic profile is related to aerospace engineering and related studies.
- Graduates in Aerospace Engineering or equivalent degrees.