The design of a unique tooling process pathway that enables components to be mass produced in the most economically viable way.
Apprentices learn to design tooling process pathways that allow sheet metal components to be mass produced efficiently and to tight tolerances. This includes determining whether manual or automatic progression press tooling is appropriate for a given production volume, then designing sequential press operations such as blanking, drawing, piercing and forming. Work often involves components that become part of larger welded sub-assemblies. Alongside technical design, apprentices develop skills in commercial analysis, project management, budget accountability and client-facing communication.
A typical week involves interpreting customer component specifications, using CAD and tooling design software to develop process pathways, and evaluating options against cost and quality requirements. Apprentices liaise with customers, suppliers and production teams, moving between the design office and the factory floor to check that tooling concepts are practically viable. They may present proposals to senior managers or clients, contribute to project planning, and support decisions about tooling investment on high-volume production programmes.
On completing this apprenticeship, typical job titles include press tool designer, process design engineer and tooling process specialist, with progression to senior process specialist or technical director level over time. Employers are concentrated in the automotive and aerospace supply chains, particularly companies producing pressed sheet metal sub-assemblies such as door panels, seat chassis and structural components. Because the role carries significant commercial and technical responsibility from an early stage, experienced engineers are in consistent demand from tier-one and tier-two OEM suppliers across the UK.
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Completers typically move into roles such as Press Tool Designer, Tool Process Design Engineer, or Tooling Process Specialist. In these positions, the day-to-day work centres on designing press tooling sequences, including blanking, drawing, piercing, and forming operations, and determining whether manual or progressive tooling configurations best suit production volumes. Most will join or continue within a specialist tooling or manufacturing engineering team, taking responsibility for specific component programmes from concept through to production sign-off.
Within three to five years, engineers commonly advance to Senior Process Specialist or Process Design Engineer with ownership of larger, more complex programmes and direct client-facing responsibility. Beyond that, two tracks tend to diverge: a leadership path toward Technical Director or Head of Tooling Engineering, carrying budget accountability and team management; and a deep-specialist track focused on advanced process innovation for high-tolerance, high-volume components across multiple product families. Both tracks carry significant influence over commercial outcomes.
Employers are concentrated in the sheet metal presswork and stamping supply chain that feeds automotive original equipment manufacturers and aerospace primes. That includes Tier 1 and Tier 2 presswork suppliers, in-house toolroom operations at vehicle assembly plants, and specialist aerospace fabrication businesses. Most employers are small to medium-sized manufacturers, though larger OEM-owned tooling centres also recruit. The sector is predominantly private and UK-based, with clusters in the Midlands, North West, and South Yorkshire.
Learning takes place alongside employment, with the apprentice developing the knowledge, skills and behaviours required for the role throughout the programme. Before moving to final assessment, the apprentice and employer confirm readiness through a gateway stage, which checks that the required standard has been met. Final assessment then determines whether the apprentice can perform competently as a tool process design engineer, covering areas such as tooling process design, analysis of complex technical information, and project and budget accountability. Assessment models for many Level 6 standards are currently being updated, so check the standard's gov.uk page for the current specification.
Building a strong body of workplace evidence throughout the programme is essential, rather than trying to compile it at the end. This means recording design decisions, project outcomes, client interactions and examples of independent judgement as they arise on real work. Apprentices should work closely with their employer and training provider to track progress against the standard's requirements and confirm readiness before gateway. Consistent record-keeping from early in the programme makes the final stages considerably more straightforward.
Providers worth considering will have verifiable experience delivering engineering apprenticeships in advanced manufacturing, ideally with documented links to automotive or aerospace supply chain employers. On the FATP profile, look for an achievement rate above 65% as a baseline; above 75% is a stronger signal given the technical depth of this programme. Because the role sits between design office and factory floor, ask whether the provider has access to real presswork or sheet metal facilities, not just classroom simulation. Employer satisfaction scores and learner reviews referencing genuine industry exposure carry more weight here than generic positive comments.
Be cautious if a provider cannot explain how they cover specific press tooling processes such as blanking, drawing, piercing and forming within their curriculum. A high number of enrolments combined with a declining or unpublished achievement rate deserves direct questions. Providers who describe their engineering offer in broad, sector-neutral terms, without mentioning sheet metal, tooling design or manufacturing tolerances, may be stretching a general engineering programme to fit. Also treat vague answers about employer co-design of the curriculum as a warning sign; at Level 6, the content should reflect current OEM and Tier 1 supplier expectations.
Employers set their own entry requirements, but candidates typically need a strong background in engineering, mathematics, and technical drawing. Many entrants will already have relevant experience in sheet metal, presswork, or manufacturing environments. A level 3 or 4 engineering qualification is commonly expected, though employers may accept equivalent industry experience. Check with individual training providers, as entry criteria vary. The apprentice must be employed in a genuine role throughout.
The typical duration is 48 months. The apprentice remains employed throughout and learns on the job, applying skills directly to press tool and process design work. Some learning takes place off the job, for example through college attendance or study days, and the current off-the-job requirement is subject to revision under ongoing Skills England reforms. Check the current apprenticeship standard on gov.uk for the latest specification before planning a programme.
Before moving to end-point assessment, the apprentice must pass through gateway, where the employer, training provider, and apprentice confirm that the required knowledge, skills, and behaviours have been demonstrated to a sufficient standard. Assessment models for many standards are being updated, so visit the Institute for Apprenticeships and Technical Education page for standard ST0578 on gov.uk to confirm the current end-point assessment approach before enrolling.
The funding band for this standard is £22,000, which caps what can be spent on training and assessment costs. Levy-paying employers draw from their digital apprenticeship service account. Non-levy employers co-invest with government, currently paying a percentage of the training cost while the government funds the remainder. Employers with fewer than 50 employees who take on an apprentice aged 16 to 18 pay nothing for training costs. Funding rules are set by the Department for Education and can change, so confirm current rates on gov.uk.
Day-to-day work centres on designing tooling process pathways for high-volume sheet metal and presswork production, determining the correct sequence of operations such as blanking, drawing, piercing, and forming. The apprentice will interpret customer specifications, analyse component requirements, and work alongside production teams and shop-floor operatives. They will also engage with senior management, purchasing, and customer technical specialists, and take on project management and budget responsibilities as competence develops.
Completion leads to typical job titles including press tool designer, process design engineer, tooling process specialist, and senior process specialist. In smaller companies, the role often reports directly to the production or managing director, giving scope to move into technical leadership or general management. Some completers pursue further qualifications at level 7, such as a masters degree in engineering or manufacturing management, particularly if the employer supports continued professional development or chartered engineering status.
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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: 578.
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.