Support the development, manufacturing, assembly, integration and testing of complex, high value space hardware and ground-based equipment.
Apprentices learn to support the development, manufacturing, assembly, integration and testing of satellites, spacecraft subsystems and ground support equipment. Practical work covers areas such as mechanical structures, power generation and distribution, attitude control, thermal control, propulsion, communications and sensors. Apprentices interpret technical drawings, specifications and formal procedures set by employers and customers including space agencies, apply sector-specific techniques such as space-grade electronics soldering, and work in compliance with standards from bodies including ISO and ECSS.
Work takes place in controlled workshops, cleanrooms, development areas and occasionally at integration facilities or launch sites. Week to week, apprentices carry out assembly and integration tasks on mission-critical hardware, follow formal test procedures, contribute to inspection activities and record their work accurately. They work alongside systems engineers, spacecraft subsystems specialists and quality assurance staff, and may interact with customer representatives from space agencies or satellite operators during site visits. Precision and documentation are central to the role.
Completion opens routes into roles such as integration and test technician, spacecraft mechanical or propulsion engineering technician, electrical or electronic engineering technician, and quality and product assurance technician. With experience, technicians can progress into senior technician or lead engineer positions. Employers are primarily satellite and spacecraft manufacturers, specialist space technology contractors and facilities such as the National Satellite Test Facility at Harwell. The sector is growing, with increasing demand for these skills as UK launch capability and satellite manufacturing capacity expand.
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Graduates typically move into specialist technician positions within satellite and spacecraft manufacturing programmes. Common job titles include Integration and Test Technician, Spacecraft Mechanical Engineering Technician, Spacecraft Propulsion Engineering Technician, Electrical and Electronic Engineering Technician, and Quality and Product Assurance Technician. Some move into Assembly and Advanced Manufacturing Technician roles, working directly on satellite structures, subsystems, or ground support equipment at secure production and test facilities.
Within three to five years, technicians often take on greater responsibility for complex assemblies or lead small technical teams through senior technician grades. From there, two tracks tend to open up: a leadership path towards Engineering Team Lead or Production Supervisor, overseeing technician teams across a programme; and a deep specialist path into areas such as propulsion systems, thermal control, or spacecraft integration, which can lead to Systems Engineer or Spacecraft Systems Specialist positions. Formal engineering qualifications pursued alongside work can accelerate the specialist route.
The primary employers are spacecraft and satellite manufacturers, which in the UK tend to be mid-to-large engineering firms and subsidiaries of international space primes. Roles also arise at satellite test centres and ground support equipment suppliers. The sector spans both private commercial operators and organisations supporting government and defence contracts. Key UK locations include the South of England, with activity also around the National Satellite Test Facility at Harwell and emerging spaceport-adjacent facilities in Scotland and Cornwall.
Throughout the apprenticeship, learning takes place alongside real employment in satellite manufacturing, assembly, integration, or testing. The apprentice builds competence in the knowledge, skills and behaviours required of a space engineering technician while working on actual hardware and procedures. Before final assessment, there is a readiness check (commonly called a gateway) where the employer and training provider confirm the apprentice is ready to be assessed. Final assessment then verifies that the apprentice can genuinely perform the role to the required standard. Assessment models for many standards are currently being updated as part of wider reforms, so check the standard's gov.uk page for the current specification.
Apprentices should collect workplace evidence throughout the programme rather than trying to reconstruct it at the end. This means keeping records of tasks completed, procedures followed, and problems solved on real projects, including work carried out under the strict quality and compliance standards typical of space hardware production. Close, regular communication with both the employer and training provider helps ensure the evidence gathered reflects the full range of the role. Arriving at gateway with well-organised, dated records makes the final assessment process considerably more straightforward.
Look for providers with an achievement rate above 65% on their FATP profile, and check whether their employer satisfaction score reflects genuine engagement with space or high-precision manufacturing employers rather than general engineering clients. Strong providers will have direct relationships with space primes or tier-one suppliers, deliver off-the-job training in controlled, cleanroom-adjacent environments, and cover ECSS standards and space-specific soldering processes (such as IPC-A-610 Space Addendum). Check learner reviews for references to hands-on integration and test work, not just classroom theory.
Be cautious of providers who deliver this standard alongside a very large portfolio of unrelated engineering apprenticeships, where space may be a small afterthought. If a provider cannot clearly explain how apprentices gain exposure to mission-critical assembly environments, formal procedure compliance, or ground support equipment, that is a meaningful gap. Declining achievement rates combined with high cohort volume, or vague answers about which space employers they currently work with, suggest the provider lacks the sector depth this standard demands. Generic electronics training without space-standard equivalents is also a concern.
Employers set their own entry criteria, but candidates typically need a good level of maths and English, often at GCSE grade 4 or above, along with an interest in engineering or technical work. Some employers look for prior technical qualifications or relevant practical experience. Apprentices must be employed by a space sector organisation involved in satellite manufacturing, assembly, integration, testing, or ground support equipment. Check individual provider requirements, as these vary.
The typical duration is 48 months. Apprentices remain employed throughout, splitting their time between on-the-job work and off-the-job learning. The exact split is subject to current Skills England reforms, so check the gov.uk page for the live specification before planning a programme. Towards the end, apprentices go through a gateway review to confirm they are ready for end-point assessment.
Assessment models for many standards are being updated under current reforms, so it is worth checking the gov.uk page for the current specification. In general, apprentices must demonstrate full occupational competence before passing through the gateway. At that point, an independent end-point assessment organisation evaluates their knowledge, skills, and behaviours. The apprentice cannot proceed to end-point assessment until the employer, training provider, and apprentice all confirm gateway readiness.
The funding band is £19,000. Larger employers who pay the apprenticeship levy draw training costs from their levy account. SMEs that do not pay the levy co-invest with government, contributing a small percentage of the training cost while government pays the rest. Very small employers taking on an apprentice aged 16 to 18 pay nothing. Funding covers training and assessment costs only, not the apprentice's wage. Contact your training provider for a breakdown.
Day-to-day work involves assembling, integrating, and testing satellite structures and subsystems such as power generation, propulsion, thermal control, and communications equipment. Technicians interpret engineering drawings, formal procedures, and customer specifications. They carry out specialist tasks including electronics soldering to space-grade standards, support quality inspection activities, and work within controlled environments and cleanrooms. They also interact with systems engineers, procurement teams, and occasionally customer representatives such as space agency staff during site visits.
Completers are well placed to move into specialist technical roles such as integration and test technician, spacecraft mechanical or propulsion engineering technician, quality and product assurance technician, or control and instrumentation technician. With experience, progression into senior technician, lead engineer, or systems engineering roles is common. Some go on to higher-level apprenticeships or part-time degree programmes in engineering disciplines. The upstream space sector is growing, so demand for experienced technicians is expected to remain strong.
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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: 594.
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.