University of Warwick

What you'll study

The programme combines advanced taught modules with hands-on laboratory work and an independent research project. Core themes include computational and experimental mechanics, dynamics and control, materials behaviour, and advanced manufacturing. Students typically study a mix of compulsory and elective modules to tailor the programme to their interests.

• Computational mechanics and finite element methods – numerical methods for solid and structural analysis, nonlinear problems and simulation workflows.
• Advanced dynamics and control – multi-body dynamics, vibration analysis, controllers for mechanical systems and state estimation techniques.
• Materials and structures – microstructure–property relationships, failure mechanics, composite materials and design for performance.
• Advanced manufacturing and systems engineering – modern manufacturing processes, digital manufacturing, process modelling and production systems.
• Experimental methods and instrumentation – measurement techniques, sensor technology, data acquisition and uncertainty quantification in laboratory and field settings.
• Research project / dissertation – an individual project carried out under academic supervision; projects are often co-sponsored by industrial partners or aligned with departmental research themes.

Teaching is delivered through lectures, seminars, computer workshops, laboratory practicals and project supervision. The programme emphasises transferable skills such as technical communication, project management and industry-focused problem solving.

Entry requirements

Applicants are normally expected to hold a good honours degree (for example an upper second-class or equivalent) in mechanical engineering, aerospace engineering, engineering science, or a closely related discipline. Candidates with a lower-second class degree plus relevant industrial experience, or those with strong performance in a related master's-level qualification, may also be considered.

Applicants whose first language is not English must provide evidence of their English language ability. The admissions process may also take account of references, a personal statement, and any relevant professional experience. International applicants should check the department's guidance on equivalency for overseas qualifications.

Career prospects

Graduates move into a broad range of roles across high-technology sectors. Typical career destinations include:

• R&D or design engineering roles in automotive and motorsport, aerospace, energy and transport.
• Manufacturing and process engineering, including digital and additive manufacturing roles.
• Engineering consultancy, systems integration and project management.
• Specialist positions in computational mechanics, FEM simulation and experimental testing laboratories.
• Further academic research leading to PhD study in mechanical engineering or allied disciplines.

The programme is designed to provide the technical depth and practical experience that employers value, and many students benefit from Warwick's industry links when seeking placements or project collaborations.

Why study at University of Warwick

Warwick is home to internationally recognised engineering research and strong industry engagement, particularly through Warwick Manufacturing Group (WMG). The Department and WMG run collaborative projects with automotive, aerospace and manufacturing companies, giving students opportunities for applied projects and exposure to industrial practice.

Students have access to dedicated laboratories, advanced manufacturing facilities, high-performance computing resources and specialist experimental equipment. The campus-based careers and enterprise services, plus active alumni and industry networks, support transitions into employment or research careers. The programme's links with research groups ensure teaching is informed by current developments across mechanics, materials and manufacturing.