Cranfield University

What you'll study

This masters programme focuses on the application of computational engineering methods to the design and assessment of vehicle structures. Core topics cover finite element modelling and analysis, crashworthiness and occupant protection, structural optimisation, model validation and verification, and the integration of multi-body dynamics and systems-level virtual testing.

• Finite element modelling & analysis — advanced topics in meshing, contact formulations, nonlinear material and geometric behaviour, and implicit/explicit solution strategies for quasi-static and dynamic events.
• Crashworthiness & occupant safety — design principles for energy absorption, controlled progressive collapse, restraint systems and the use of virtual sled and full-vehicle crash simulations.
• Materials and manufacturing for structures — behaviour of metals, high-strength steels, aluminium alloys and composite materials in structural applications and considerations for manufacturing and joining techniques.
• Multi-body dynamics and systems integration — coupling structural models with vehicle dynamics models, simulation of load paths under operational conditions and multi-physics interactions.
• Optimisation and design space exploration — topology, size and shape optimisation; surrogate modelling and automated workflows for rapid design iteration.
• Model validation and experimental techniques — test planning, sensor selection, data acquisition, modal and fatigue testing, and using experimental data to improve and validate simulation models.
• Virtual testing workflows and CAE management — building robust, repeatable CAE processes, uncertainty quantification and using high-performance computing for large-scale virtual prototyping campaigns.

The programme typically combines formal lectures and practical computer-based classes using industry-standard CAE workflows with laboratory sessions and measurement-led experiments. Assessment is by coursework, individual and group design projects, and a substantial dissertation or industrial research project that applies virtual prototyping to a real structural engineering challenge.

Entry requirements

Applicants should normally hold a relevant undergraduate degree in mechanical, aerospace, automotive or structural engineering, or a closely related discipline. A good honours degree (or equivalent) is expected; relevant industrial experience may be considered where academic qualifications differ.

• Academic transcripts and degree certificate demonstrating strong fundamentals in mechanics, materials and numerical methods.
• Where English is not the first language, a recognised English language qualification is required.
• Applicants are usually asked to provide a CV and one or more academic or professional references; those with industry experience may be invited to discuss a potential industrial project.

Career prospects

Graduates leave prepared for technical roles where virtual prototyping and structural analysis are central. Typical job titles and sectors include:

• CAE Engineer / Structural Analyst in automotive, motorsport, aerospace and defence industries.
• Virtual Prototyping Engineer supporting vehicle concept design, crash and safety programmes, and NVH/structural durability studies.
• Design Engineer specialising in lightweighting, composite structures or manufacturing-aware structural design.
• Research and development roles in universities, research centres or supplier companies, including further study towards a PhD.
• Technical consultancy and specialist roles in simulation process development, CAE toolchain integration and high-performance computing for engineering simulation.

Why study at Cranfield University

Cranfield is a postgraduate specialist university with a strong focus on applied engineering and industry-facing research. The programme benefits from dedicated vehicle and structural engineering facilities, hands-on laboratory resources and access to high-performance computing for large-scale simulations.

Teaching is delivered by staff with active research and industrial experience, and the course maintains close links with companies across the automotive, motorsport, aerospace and defence sectors. This practical, problem-led environment supports real-world project opportunities and prepares graduates to take leading technical roles in virtual prototyping and vehicle structural engineering.