Aerospace Engineer

1What you'd actually do

• Building and running computer models of a part or system - for example stress analysis on a bracket using finite element software (FEA, which breaks a structure into small elements to predict how it deforms and where it might fail), or airflow simulation using CFD (computational fluid dynamics)
• Producing and updating 3D CAD models and drawings, and checking that a design can actually be manufactured, assembled and inspected once it leaves the screen
• Writing and reviewing documents: design justification reports, test plans, requirements specifications, safety cases and airworthiness evidence - engineering in aerospace generates a lot of paperwork because everything must be traceable to a regulator
• Supporting physical testing - preparing rigs, fitting instrumentation, watching a component or engine run, then processing the data afterwards in Excel, MATLAB or Python and comparing it to what the model predicted
• Sitting in design reviews and cross-discipline meetings where structures, aerodynamics, systems, manufacturing and supply chain people argue over trade-offs like weight, cost, certification risk and lead time
• Investigating problems that come in from the factory floor or from operators in service - a part that does not fit, a crack found at inspection, a component failing earlier than predicted - and writing up a disposition or a fix
• Liaising with suppliers and sub-contractors about parts they are building to your specification, and chasing the drawings, test data or non-conformance reports you need from them

2How graduates get in

• Structured graduate schemes at large aerospace, defence and engine manufacturers and their major suppliers - this is the most common route. Schemes typically run a couple of years with rotations across different engineering functions and lead towards chartership support. Application usually opens in the autumn for the following summer and involves online tests, a recorded or live interview and an assessment centre.
• Direct entry to a named graduate engineer post, common at smaller firms, consultancies, component suppliers, space start-ups and maintenance/repair organisations. Less structured, often faster to real responsibility, and vacancies appear year-round rather than in one autumn cycle.
• Converting a placement or summer internship into an offer - a year in industry as part of a sandwich degree is one of the strongest routes in, and many employers recruit heavily from their own placement cohorts.
• MEng or MSc route: an integrated MEng, or a BEng followed by a specialist MSc (aerospace, aerodynamics, space systems, avionics, systems engineering), is a normal way in for people whose first degree was mechanical, general engineering or physics.
• Defence and government routes - the MOD, the Defence Science and Technology Laboratory, and the armed forces' engineering branches all recruit graduates into aerospace-related work. These generally require UK nationality and security clearance.
• Unusual but real: moving in from a technician or apprenticeship background after completing a part-time degree, or moving across from adjacent industries such as automotive, motorsport, nuclear or energy, where the analysis and quality disciplines transfer well.

3What employers ask for

• A degree in aerospace or aeronautical engineering, mechanical engineering, general/integrated engineering, electrical and electronic engineering, physics or maths. The subject matters more here than in many graduate sectors - most roles genuinely need the underlying mechanics, thermodynamics or electronics - but 'aerospace' specifically is not required, and mechanical and electronic graduates are recruited in large numbers.
• Most large employers ask for a 2:1, and some ask for a 2:2 or take a broader view where you have strong placement experience. A-level requirements, where stated, almost always include maths and usually physics.
• Accreditation matters: an engineering degree accredited by a professional institution (in this field usually the Royal Aeronautical Society or the Institution of Mechanical Engineers) is the cleanest path to chartered status later. An accredited MEng meets the academic requirement for CEng on its own; an accredited BEng typically needs further learning on top.
• For defence, military and some space work you will need to be eligible for UK security clearance, which normally means UK nationality and a period of continuous UK residency. This genuinely rules some candidates out of some employers, so check before applying.
• Practical evidence of engineering, not just grades - a placement year, Formula Student, rocketry or UAV societies, a substantial final-year project, or hands-on building and fixing things. Employers weight this heavily because the work is applied.
• Software familiarity varies by employer but commonly includes CAD (such as CATIA, SolidWorks or NX), analysis tools (ANSYS, Abaqus, Nastran, Star-CCM+) and scripting in MATLAB or Python. You are not expected to know a specific package before starting - you are expected to pick one up quickly.

4Skills that matter

5Where it leads

1. Graduate engineer, typically two years on a scheme with rotations, or an equivalent supervised first couple of years in direct-entry roles - the focus is on learning the company's tools, standards and approval processes rather than owning a design.

2. Engineer with a defined area of ownership - a system, a component family, an analysis method - producing work that is checked rather than heavily supervised. Most people work towards Incorporated or Chartered Engineer status (IEng/CEng) through a professional institution during this period, usually taking several years of logged evidence and a professional review; some employers have an approved scheme that structures this, others leave it entirely to you.

3. Senior or lead engineer, taking technical responsibility for a package of work, signing off others' analysis, and representing the discipline in reviews with customers, suppliers and regulators. Some people become design signatories or hold delegated airworthiness authority - a formal, individually granted right to approve certain designs.

4. A fork in the road: a deep technical route towards specialist, principal or chief engineer roles, or a management route into project engineering, programme management, engineering line management or supply chain and manufacturing leadership. Both are well-trodden and pay comparably at the senior end.

5. Common lateral moves include systems engineering, certification and airworthiness, technical sales, consultancy, space and satellite work, or leaving the sector entirely for automotive, energy, rail or nuclear, where analysis and safety-case skills transfer well. Timescales for all of this vary enormously with employer size, sector demand and programme cycles - there is no standard clock.

6Where this varies

The work differs a lot by sub-sector. Civil aviation is dominated by certification and airworthiness - regulator-driven evidence, long timescales, heavy documentation. Defence adds security clearance, classified environments and customer-driven requirements, and can restrict what you are allowed to discuss or put on a CV. Space, especially the smaller-satellite and launch companies, tends to mean broader individual responsibility, faster iteration and less formal process, but often smaller teams and less structured graduate training. Maintenance, repair and overhaul work is closer to the aircraft and more operationally paced. Geographically, UK aerospace clusters strongly - the South West, North West, Midlands, parts of Wales and the East of England, plus a growing space presence in Scotland - so relocation is a genuine consideration in a way it is not for many graduate careers. Graduate scheme structure also varies: large employers run rotational programmes with formal chartership support, while smaller firms may put you straight onto live work with a mentor and no formal scheme at all.