Controlling and managing the complex manufacturing processes for different materials
Designed for engineers working in thermal and materials processing, this programme builds deep technical knowledge across casting, forging, coating, welding, brazing, heat treatment, and surface finishing. Apprentices learn to control and manage complex manufacturing processes, define methods of manufacture for high-value components, and evaluate solutions across the full product life cycle. They also develop skills in production planning, project management, and the application of process improvements that affect quality, cost, and delivery performance.
Week to week, apprentices work closely with engineering and operations teams to investigate process problems, define root causes, and implement solutions. Typical activities include writing manufacturing method definitions, preparing reports for team leads and senior stakeholders, supporting new product introduction projects, and contributing to cost reduction programmes. They will also liaise with supply chain, finance, and customer-facing teams as projects require, and may take part in technical discussions with external customers.
Completing this degree-level apprenticeship typically leads to roles such as process engineer, materials engineer, manufacturing engineer, casting engineer, or surface treatment engineer. With experience, progression moves towards senior specialist, subject matter expert, technologist, or engineering fellow positions. Employers span a wide range of industries where materials processing is critical, including aerospace, defence, nuclear, medical devices, energy, and oil and gas. The combination of academic qualification and industrial experience makes graduates well suited to both technical leadership and specialist consultancy tracks.
Sorted by achievement rate.
No training providers currently listed for this standard.
Completers typically move into specialist engineering positions such as Process Engineer, Manufacturing Engineer, Materials Engineer, or Casting Engineer. Those with a welding or joining focus often step into Welding Engineer roles, while others move into Surface Treatment Engineer or Coatings Engineer positions. Some organisations bring completers in as Product Engineers with responsibility for specific component families. The level 7 grading means most employers position these roles at a graduate-equivalent or senior technical grade from day one.
Within three to five years, many engineers progress to Senior Process Engineer or Senior Materials Engineer, taking ownership of larger process improvement programmes and leading cross-functional projects. Beyond that, two tracks tend to open up. The leadership track moves through Principal Engineer and into Engineering Manager or Operations Manager roles. The deep-specialist track leads to Subject Matter Expert, Technologist, or Fellow designations, where the focus is on technical authority rather than people management. Both tracks typically involve input to business cases and new product introduction decisions.
Demand is concentrated in industries where material and process quality directly affects safety or regulatory compliance. That includes aerospace, defence, nuclear, medical devices, oil and gas, and automotive manufacturing. Employers range from large prime contractors and Tier 1 manufacturers to specialist process houses running heat treatment, surface finishing, or precision casting operations. Both the private sector and publicly owned energy organisations recruit at this level, and roles exist across England, Scotland, and Wales wherever advanced manufacturing is established.
Learning takes place alongside employment, with the apprentice applying degree-level engineering knowledge directly to workplace projects across thermal processing disciplines such as casting, heat treatment, welding, and surface finishing. Before final assessment, the apprentice must pass a readiness check, commonly called the gateway, at which their employer and training provider confirm they have developed the required knowledge, skills, and behaviours. Final assessment then establishes whether the apprentice can perform the role to the standard expected of a qualified Materials Process Engineer. Assessment models for many degree apprenticeships are currently being updated, so check the standard's gov.uk page for the current specification.
Building a strong body of evidence throughout the programme is essential rather than leaving it to the final months. Apprentices should record their involvement in real engineering projects, process improvement work, and cross-functional activity as they go, linking that evidence to the knowledge and skills in the standard. Regular progress reviews with both the employer and training provider help ensure readiness for the gateway. Keeping detailed, dated records of decisions made and problems solved gives the clearest picture of competence at the point of final assessment.
Providers worth serious consideration will have tutors or visiting practitioners with current industry credentials in at least one of the specialist process areas: casting, heat treatment, welding, coating, or surface finishing. Because this is a degree-level apprenticeship running for 24 months, look for structured academic delivery alongside real workplace project integration, not just a course mapped loosely onto a job. Check the achievement rate on the FATP profile; above 65% is a reasonable baseline for a relatively low-volume standard like this. Employer and apprentice satisfaction scores above 80% are a useful secondary signal, particularly on whether off-the-job learning felt relevant to actual process engineering work.
Be cautious if the provider cannot name the process specialisms their tutors cover or relies entirely on generic engineering academics with no manufacturing floor experience. For a standard spanning aerospace, nuclear, defence and medical sectors, vague references to "industry links" without specifics are a warning sign. A high number of registered starts combined with a declining or unpublished achievement rate deserves a direct explanation. Providers who cannot describe how apprentices apply product lifecycle and project management skills to real employer projects, rather than simulated ones, should be pressed hard.
Candidates typically need a relevant undergraduate degree or equivalent technical experience to enter at this level, though individual providers may set their own entry requirements. The apprenticeship suits engineers already working in a materials or thermal process environment who are ready to develop specialist expertise. Employers should confirm specific entry criteria directly with their chosen training provider, as requirements can vary.
The typical duration is 24 months. The apprentice remains employed throughout and applies learning directly to real work. Some learning time is structured away from day-to-day duties, often called off-the-job training. The exact proportion required is subject to change under current Skills England reforms, so check the current specification on the Institute for Apprenticeships and Technical Education pages on gov.uk for up-to-date figures before planning.
Before completing, the apprentice must pass through a gateway, where the employer and provider confirm the apprentice has met the required knowledge, skills and behaviours. End-point assessment then tests competence independently of the training provider. Assessment models for many standards are being updated under current reforms, so the precise methods may have changed. Check the current assessment plan on gov.uk for the definitive approach.
The funding band is £17,000, which sets the maximum government contribution. Levy-paying employers draw costs from their Digital Apprenticeship Service account. Smaller employers co-invest, typically paying 5% with the government covering the rest, up to the funding band. Employers with fewer than 50 staff taking on an apprentice aged 16 to 18 pay nothing. Any costs above the funding band are met by the employer directly.
Day-to-day work centres on controlling and managing complex manufacturing and thermal processes, covering areas such as casting, forging, heat treatment, coating, welding, and surface finishing. The apprentice works closely with engineering and operations teams, contributes to cost reduction and process improvement projects, defines manufacturing methods for high-value components, and produces regular reports for team leaders and senior stakeholders. Contact with finance, supply chain, and external customers is common.
Completers are well placed for senior or specialist roles such as process engineer, materials engineer, manufacturing engineer, or domain subject matter expert. With degree-level credentials at level 7, some move into technical fellow or technologist positions. Others progress into engineering management or take on broader responsibility for new product introduction. Professional engineering institutions may offer pathways to chartered status, depending on prior qualifications and experience.
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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: 426.
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.