Cranfield University

What you'll study

This programme combines rigorous numerical methods with practical application to aerospace problems. Core topics include computational fluid dynamics (CFD), numerical methods for partial differential equations, turbulence modelling (RANS/LES), aero-thermodynamics, heat transfer and compressible flows. You will also study high-performance computing (HPC) and parallel algorithms, mesh generation and grid adaptation, verification and validation, and uncertainty quantification. Contemporary modules often cover data-driven techniques such as machine learning for modelling and optimisation methods used in multidisciplinary design.

Teaching is delivered through lectures, computer laboratory classes and practical workshops using industry-standard solvers, in-house codes and HPC facilities. The programme culminates in an extended individual research project where you apply computational tools to a real aerospace problem, often in partnership with industry or a research laboratory. Typical assessment methods include coursework, practical assignments, exams and a dissertation.

Entry requirements

Applicants normally hold a good honours degree in aerospace engineering, mechanical engineering, physics, applied mathematics or a closely related subject. A UK upper second-class honours degree (2:1) or international equivalent is the typical requirement. Candidates with a lower-class degree but significant relevant industrial or research experience may be considered.

All applicants whose first language is not English must demonstrate proficiency in English through an approved qualification. Applicants with appropriate professional experience or qualifications may also be eligible through the university's consideration of prior learning and experience.

Career prospects

Graduates go on to technical and research careers across the aerospace and defence sectors, engine and component manufacturers, and specialised consultancies. Typical roles include CFD engineer, aerodynamicist, simulation engineer, flight physics analyst, thermal/heat-transfer engineer, and multidisciplinary design optimisation specialist. The programme also provides a pathway to doctoral research or technical roles in adjacent industries such as automotive, energy and civil engineering where computational simulation skills are in demand.

Cranfield's strong industry links mean many students undertake project work commissioned by employers or carry out placements that lead directly to employment. The emphasis on practical application and HPC-ready skills helps graduates move into roles that require immediate competence with industrial solvers, scripting and parallel computing.

Why study at Cranfield University

Cranfield is a postgraduate-focused university with a long-established reputation in aerospace engineering and applied research. The campus hosts specialised facilities relevant to computational engineering, including dedicated high-performance computing resources, wind tunnel and test rigs for experimental validation, and the National Flying Laboratory Centre for flight testing. Teaching staff include academics active in computational research and experienced engineers seconded from industry.

The university's close collaboration with aerospace companies, government research establishments and supply-chain organisations provides project opportunities, guest lectures and networking routes into industry. The programme's applied orientation, access to industry-standard tools and emphasis on verification/validation make it particularly suitable for students aiming for technical roles in simulation-led design and analysis.