University of Strathclyde

What you'll study

This programme provides a balance of advanced mechanical engineering fundamentals and specialist aerospace modules. Core themes include: computational fluid dynamics and aerodynamics; structural analysis and lightweight materials (including composites); propulsion and thermofluids; experimental methods and instrumentation; and multidisciplinary systems engineering. Teaching draws on lectures, laboratory sessions, computer-based modelling, and a substantial individual or group research/design project that applies theory to an aerospace engineering challenge.

• Advanced Computational Fluid Dynamics and Aerodynamics
• Structural Integrity and Composite Materials for Aerospace
• Gas Turbine and Propulsion Systems
• Advanced Experimental Methods and Measurement Techniques
• Multidisciplinary Design Optimisation and Systems Engineering
• Control and Dynamics for Aerospace Applications
• Individual Research Project or Industry-linked Capstone Project

Assessment typically combines coursework, laboratory reports, computer-based assignments, exams and the project dissertation. Optional short modules or elective technical topics allow you to tailor the programme toward aerospace design, experimental research or advanced simulation and optimisation.

Entry requirements

Applicants are normally expected to hold a good honours degree (UK 2:1 or equivalent) in mechanical engineering, aerospace engineering or a closely related engineering discipline. Candidates with a lower honours degree (UK 2:2) plus relevant industrial experience may be considered. You should demonstrate competence in mathematics, engineering mechanics and thermofluids; evidence of prior programming/simulation experience is advantageous.

International applicants must hold an equivalent qualification from a recognised institution. Where English is not the first language, a recognised English language qualification at the programme’s required level is necessary. Applicants may be asked to submit a personal statement, academic transcripts and references; interviews or an assessment of prior learning and experience can be part of the admissions process.

Career prospects

Graduates move into a range of technical and professional roles across the aerospace, defence, automotive, energy and advanced manufacturing sectors. Typical roles include:

• Aerospace design engineer (airframes, aero-structures, systems)
• Propulsion or gas-turbine engineer
• CFD/CAE analyst and simulation engineer
• Structural integrity and composite materials engineer
• Systems engineer or multidisciplinary design engineer
• Experimental/flight-test engineer and instrumentation specialist
• Research and development roles or progression to PhD study

The programme is intended to strengthen technical competence for professional registration pathways and to prepare graduates for roles that require advanced simulation, experimental and project management skills.

Why study at University of Strathclyde

Study at the University of Strathclyde offers close engagement with applied engineering research and industry-facing projects. The university’s engineering facilities include specialist laboratories for structures and composites, thermofluids and propulsion testing, and access to high-performance computing for large-scale simulation. Strathclyde has established links with regional and national aerospace and advanced manufacturing companies, providing opportunities for industrial projects, guest lectures and student employability support.

The department emphasises practical, problem-led learning, with staff who are active in research areas relevant to aerospace engineering. Students benefit from a programme designed to develop rigorous analytical skills alongside hands-on laboratory and project experience, preparing graduates to contribute to complex engineering programmes in aerospace and related sectors.