University of Strathclyde

What you'll study

The programme combines advanced taught modules with a substantive research or industry project. Core themes typically include advanced solid mechanics and dynamics, finite element analysis, advanced fluid mechanics and turbomachinery, control systems and mechatronics, and materials and failure analysis. You'll also study advanced design methods, computational methods for engineers (including CAD and CAE), experimental techniques and data acquisition, and manufacturing technologies such as machining, forming and additive manufacturing.

Teaching mixes lectures, laboratory classes, workshops and group design projects. A major individual project or dissertation forms a substantial part of the degree, allowing you to apply analytical, numerical and experimental techniques to a research question or an industry-focused development task. Projects often make use of facilities such as high-performance computing, material testing laboratories, wind tunnels or turbomachinery test rigs, and can be undertaken in collaboration with industrial partners.

Entry requirements

Applicants normally need a UK upper second-class (2:1) honours degree in mechanical engineering, aerospace engineering, or a closely related engineering discipline. Applicants with a lower second-class (2:2) degree plus relevant industrial experience, or a suitable taught postgraduate qualification, may also be considered.

For international applicants, an equivalent qualification from a recognised institution is required. Non-native English speakers must demonstrate English language proficiency; the university accepts commonly used qualifications such as IELTS or recognised equivalents. Applicants should provide a CV and a personal statement outlining relevant academic background and motivation. References and evidence of any practical or industrial experience strengthen applications, and specific modules or experience in mathematics, mechanics, materials and CAD/CAE are advantageous.

Career prospects

Graduates move into roles across design, analysis, testing and management. Typical job titles include mechanical design engineer, structural analyst, computational engineer, test engineer, manufacturing engineer, controls engineer and R&D engineer. The degree is also a route into specialist areas such as turbomachinery, automotive powertrain development, aerospace structures, renewable energy systems and additive manufacturing.

Many students progress either to technical leadership positions in industry or to doctoral research; the programme’s focus on applied projects and industry links helps graduates enter employer-sponsored research and development roles or engineering consultancy. Professional accreditation pathways with bodies such as the IMechE can support progression to Chartered Engineer status where applicable.

Why study at University of Strathclyde

Strathclyde’s Faculty of Engineering is focused on applied research and strong industrial engagement. The department offers well-equipped laboratories, workshops and computing facilities that support advanced experimental and computational work. Students benefit from the university’s active links with local and international engineering firms and research centres, providing opportunities for collaborative projects, industrial placements and knowledge exchange.

The university’s location in Glasgow provides proximity to a wide engineering and manufacturing base, including energy, transport and advanced manufacturing sectors. Support services such as the careers centre, specialist technical staff and research supervisors help students develop both technical competence and professional skills for a competitive engineering career.