Working in an engineering team to maintain and repair assets on the electricity network.
Apprentices train across the core disciplines needed to work as an engineer on electricity distribution and transmission networks. Depending on the role pathway chosen, that covers asset management, network planning, design, control, project engineering, or operational delivery. The training develops the ability to analyse complex network scenarios, apply engineering judgement to solve problems, and manage work safely within budget and quality constraints. Apprentices also learn to work within wider engineering teams, including specialist colleagues from procurement, finance, and telecoms.
The exact work varies by role pathway, but typical activity includes assessing network data to support planning or design decisions, producing or reviewing engineering documentation, coordinating with other engineers and contractors on site or system activities, and monitoring network performance under normal and fault conditions. Control Engineers may operate switching programmes or manage real-time network events. Project Engineers track delivery against programme, cost, and quality targets. Most roles involve regular use of network management systems, engineering design tools, and technical reporting.
Completion leads to roles such as Asset Management Engineer, Planning Engineer, Design Engineer, Control Engineer, or Project Engineer within electricity network businesses. Employers include distribution network operators, transmission operators, and engineering contractors working in the power sector. With experience, engineers typically progress to senior engineer or technical specialist positions, or move into management roles overseeing teams of engineers and craftspersons. The power sector is expanding capacity to meet decarbonisation targets, which increases demand for qualified network engineers across all six specialisms covered by this standard.
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Graduates of this standard typically move into one of six defined engineering roles: Asset Management Engineer, Planning Engineer, Design Engineer, Control Engineer, Electrical Project Engineer, or Operational Delivery Engineer. The role taken on completion usually reflects the specialism followed during training. All six sit within electricity network operations, covering everything from network design and asset replacement to control room operations and project delivery on the ground.
Within three to five years, engineers commonly progress to Senior Engineer level within their chosen specialism, taking on greater responsibility for complex network scenarios, team outputs and budget accountability. Beyond that, two tracks open up. The leadership route leads toward Principal Engineer, Engineering Manager, or Head of Engineering positions. The deep-specialist route leads to recognised technical authority roles in areas such as protection engineering, network planning, or asset strategy, often with influence over company-wide technical standards.
The primary employer base is UK electricity distribution and transmission. That covers distribution network operators serving regional areas, the national transmission operator, and independent connection providers. Roles also exist with engineering consultancies that support network owners, and with large infrastructure contractors delivering capital works on behalf of network businesses. Employer scale ranges from major regulated utilities with thousands of staff to specialist consultancies with a smaller headcount. The sector is almost entirely private, though regulated by Ofgem, with significant ongoing investment driven by grid decarbonisation programmes.
Learning takes place alongside employment, with the apprentice applying engineering knowledge and skills directly to real network scenarios throughout the programme. Before final assessment, a readiness check (commonly called a gateway) confirms that the apprentice and employer are satisfied the required knowledge, skills and behaviours have been demonstrated to the necessary standard. Final assessment then provides independent confirmation that the apprentice can perform competently in one of the six defined engineering roles. Assessment models for many standards are currently being updated under ongoing reforms, so check the standard's gov.uk page for the current specification before enrolling.
Building a strong body of workplace evidence from the start of the programme makes the final stages significantly more manageable. Apprentices should record their work on network planning, design, control, asset management or project delivery as they go, rather than trying to reconstruct it later. Regular reviews with the employer and training provider help identify any gaps in competence early. Staying organised with records of decisions made, problems solved and safety responsibilities held gives the clearest picture of genuine occupational competence when readiness is assessed.
Strong providers for this standard will have direct relationships with Distribution Network Operators, Transmission System Operators, or specialist power engineering contractors. On their FATP profile, look for an achievement rate above 65% (above 75% is strong for a technically demanding 30-month programme), and check that employer satisfaction scores reflect genuine engagement rather than passive delivery. Because this standard covers six distinct roles, ask whether the provider structures learning pathways that reflect real operational differences between, say, a Control Engineer and a Design Engineer, rather than delivering a single generic programme for everyone.
Be cautious of providers with high cohort volumes but declining achievement rates, which can signal that learners are being enrolled without adequate employer support structures in place. Providers who can't demonstrate access to live network environments, simulation suites, or up-to-date protection and control equipment should be questioned carefully. If a provider is vague about how they accommodate the role-specific splits across the six occupations, or cannot point to alumni working in defined power network engineering positions, that is a material concern for an employer hiring into a specific function.
There are no nationally mandated entry requirements set within the standard, so employers set their own criteria. In practice, most look for a relevant Level 3 qualification such as a BTEC or A-levels in engineering, physics or maths, or prior experience in a power or electrical engineering environment. Apprentices must be employed in a role where they can genuinely practise the engineering activities covered across the six specialist pathways.
The typical duration is 30 months, though the actual time depends on prior learning and how quickly the apprentice reaches gateway readiness. Apprentices remain employed throughout and apply their learning directly to live engineering work on the electricity network. For current requirements on off-the-job training, check the latest version of the occupational standard on the Institute for Apprenticeships and Technical Education website, as these figures are subject to revision under ongoing Skills England reforms.
Before reaching end-point assessment, the apprentice must pass through a gateway, demonstrating they have met all the competence requirements set out in the standard. Assessment models for many standards are being updated, so it is worth checking gov.uk for the current specification. Generally, end-point assessment tests whether the apprentice can apply engineering knowledge and skills to real network scenarios, covering planning, safety management, asset integrity and their chosen specialist pathway.
The funding band for this standard is £27,000, which is the maximum that can be drawn from the apprenticeship levy or co-investment arrangement. Large employers with a levy account use those funds directly. Smaller employers co-invest with the government, typically contributing a small percentage of the training cost. Employers with fewer than 50 staff taking on an apprentice aged 16 to 18 pay nothing, with government covering the full training cost. Providers agree fees within the funding band cap.
Day-to-day work depends on the chosen pathway. A Control Engineer manages electricity flow across the network in normal and fault conditions. A Design Engineer produces technical designs for network infrastructure. A Planning Engineer assesses capacity and future network requirements. Across all pathways, apprentices work in engineering teams alongside craftspersons, senior engineers and business specialists. They are responsible for the quality and safety of their own work, meeting stakeholder requirements on time and within budget while maintaining network integrity.
Completing this standard at Level 4 positions engineers for senior or specialist roles within the power sector, including progression to Chartered Engineer status through a relevant professional body such as the Institution of Engineering and Technology. Many employers offer structured career paths into principal or lead engineering positions across asset management, project delivery or network planning. Some apprentices go on to degree-level study or higher apprenticeships to deepen their technical or management expertise.
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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: 216.
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.