To take a leading role in the design, manufacturing and testing of complex, high value space hardware and ground support equipment.
Apprentices learn to design, analyse, and test spacecraft hardware and ground support equipment at component and subsystem level. The programme covers orbital mechanics, thermal control systems, structural analysis, propulsion principles, and communications architecture. Apprentices apply finite element analysis and system modelling tools, interpret customer and mission requirements, and produce engineering designs and technical documentation. They work across mechanical, electronic, and thermal disciplines before typically specialising, and develop the skills to contribute to technical proposals, reviews, and test planning within regulated environments.
Week to week, an apprentice will work alongside systems engineers and project managers on live hardware programmes. Typical tasks include running thermal or structural analysis using modelling software, preparing test plans and quality reports, reviewing drawings against ECSS or ISO standards, and contributing to design review meetings with customers or suppliers. They may work in cleanrooms, integration facilities, or propulsion test environments depending on their employer, and will produce technical documentation at each stage of the project lifecycle.
Completing this apprenticeship leads directly to specialist engineering roles in the UK upstream space sector. Typical job titles include spacecraft systems engineer, thermal design engineer, AIT engineer, and payload systems engineer, with progression routes into senior engineering, technical authority, or engineering management positions. Employers range from small satellite manufacturers and specialist ground support equipment suppliers to large aerospace primes and government-funded research institutions. Space agencies, universities, and defence-adjacent organisations also hire from this talent pool.
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Graduates of this apprenticeship typically move into specialist engineering positions within spacecraft programmes. Common entry-level titles include Spacecraft Systems Engineer, Satellite AIT Engineer, Thermal Design Engineer, Spacecraft Mechanical Engineer, Spacecraft Power Systems Engineer, and Spacecraft Propulsion Engineer. Some completers move into payload systems or AOCS engineering, depending on which technical disciplines they specialised in during the programme. Others take up product and quality assurance roles, or control and instrumentation positions supporting ground segment operations.
Within three to five years, engineers typically take on greater ownership of subsystem design, lead technical reviews with customers, or move into a Payload Systems Engineer or senior AIT role. From there, two distinct tracks open up. The specialist route leads to recognised technical authority in areas such as thermal analysis, propulsion, or structural dynamics. The leadership route leads to roles such as Assembly Integration and Test Manager, Chief Engineer, or Project Engineer, with responsibility for programme delivery and cross-discipline coordination. Chartered Engineer status through a relevant professional engineering institution is a common milestone on both tracks.
The primary employers are spacecraft manufacturers, satellite integrators, and space technology companies ranging from small specialist firms to large aerospace primes. Government-funded research establishments, the UK Space Agency, and universities with active space programmes also hire in this discipline. The sector spans both purely commercial operators and organisations working on defence or government-funded science missions, with activity concentrated around established UK space industry clusters.
Learning takes place in the workplace alongside structured off-the-job training, building the knowledge, skills and behaviours set out in the standard. These span orbital mechanics, thermal and structural analysis, propulsion principles, ground support equipment, and the broader discipline of space systems engineering. Before final assessment, both the employer and training provider confirm the apprentice has reached a point of occupational readiness, commonly called the gateway. Final assessment then confirms the apprentice can perform competently at a graduate-level engineering standard in a real space sector context. Assessment models for many Level 6 standards are currently being reviewed as part of ongoing reforms, so check the standard's gov.uk page for the current specification.
Building a strong body of workplace evidence throughout the programme is important rather than attempting to gather it close to the end. Apprentices should keep records of engineering work they contribute to, including design tasks, testing activities, technical documentation and stakeholder interactions. Working closely with both the employer and the training provider to track progress against the standard's knowledge, skills and behaviours will make the readiness assessment more straightforward. Maintaining consistent records of real project work means evidence is available to draw on when it matters.
Providers worth considering will have tutors with direct industry backgrounds, ideally from spacecraft manufacturing, assembly, integration and test (AIT), or subsystems engineering. Check the FATP profile for achievement rates above 65% as a baseline; above 75% is stronger evidence that apprentices are supported through what is a technically demanding four-year programme. Because the cohort of employers delivering this standard is small, ask specifically about employer satisfaction scores and look for learner reviews that mention real project exposure. Providers should be able to demonstrate access to relevant facilities, whether in-house or through employer partners, covering areas such as thermal analysis tools, finite element modelling software, and controlled cleanroom or workshop environments.
Be cautious of providers with a high volume of engineering apprentices but thin evidence of space-sector specialism. Generic aerospace or electronics delivery is not the same as spacecraft systems engineering. If a provider cannot name the simulation or modelling tools used in delivery, or cannot explain how ECSS and ISO standards are woven into the programme, that is a gap worth probing. Vague answers about how the curriculum covers the space environment, orbital mechanics, or propulsion principles suggest the content may be adapted from adjacent standards rather than designed for this one. Opaque cohort sizes are also worth questioning given how niche this standard is.
Employers set their own entry requirements, but most expect applicants to hold A-levels or equivalent qualifications in relevant subjects such as mathematics, physics, or engineering. Some employers accept candidates with existing technical qualifications or relevant industry experience instead. The apprentice must be employed in a role where they can genuinely apply space systems engineering skills throughout the programme, so the job itself needs to involve spacecraft, subsystem, or ground support equipment work.
The typical duration is 48 months. The apprentice remains employed throughout and applies learning directly to their day-to-day role. A portion of working time must be dedicated to off-the-job training, though the exact percentage is subject to current policy and Skills England reforms. Check the current funding rules on gov.uk for the latest requirements before agreeing a training plan with your provider.
Before the end-point assessment, the apprentice must pass through a gateway, at which point the employer and training provider confirm the apprentice has developed the required knowledge, skills, and behaviours. Assessment models for many standards are being reviewed as part of ongoing reforms, so it is worth checking the current assessment plan on gov.uk. Generally, apprentices are expected to demonstrate competence across mechanical, electronic, and thermal engineering disciplines relevant to their specialisation, as well as professional behaviours such as health and safety awareness and teamwork.
The funding band for this standard is £27,000, which is the maximum amount of apprenticeship funding that can be used. Larger employers who pay the apprenticeship levy draw the cost from their levy account. Smaller employers co-invest alongside government funding, typically paying a modest percentage of the training cost. Employers with fewer than 50 employees who take on an apprentice aged 16 to 18 pay nothing towards training costs. Any costs above the funding band are met by the employer.
Day-to-day work involves designing, analysing, and testing spacecraft components and subsystems, including mechanical structures, thermal control systems, electrical assemblies, and propulsion elements. Apprentices review customer requirements, produce engineering drawings and specifications, carry out structural and thermal analysis, and prepare technical documentation such as test plans and quality reports. They work in cleanrooms, workshops, and test facilities, often alongside systems engineers and project managers, and may occasionally support launch campaigns or major project milestones outside standard hours.
Completion leads to a level 6 qualification and opens routes into a range of specialist engineering roles. Typical job titles include spacecraft mechanical engineer, thermal design engineer, payload systems engineer, spacecraft propulsion engineer, and assembly, integration and test manager. From there, engineers can progress into senior technical or leadership positions. Some choose to pursue chartered engineer status through a relevant professional engineering institution, or continue into postgraduate study in aerospace or space engineering.
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Curated by Alex Lockey, FATP founder and editor. Last reviewed: .
Sources include the apprenticeship's official specification on apprenticeships.gov.uk, Skills England guidance, IfATE archive records, DWP funding bands, and provider data sourced directly from the public Apprenticeship Provider and Assessment Register (APAR). Standard reference: 699.
Some sections on this page were drafted with AI assistance from published source data and reviewed by a human editor before publication. See our editorial methodology for how we maintain this content. Spotted something out of date? Tell us.