Providing radiological monitoring services in the nuclear industry to protect people, plant and the environment from radioactive contamination.
Apprentices learn how to carry out radiological protection monitoring to safeguard people, plant, and the environment from ionising radiation and contamination. Training covers the use of specialist instruments to measure surface and airborne contamination levels and radiation dose rates, accurate recording of readings, and appropriate responses when limits are reached or exceeded. Apprentices also support radiation-related work activities for nuclear facility teams and may contribute to site emergency response arrangements. The standard develops both technical knowledge and the professional discipline required to work with minimal supervision in a safety-critical environment.
Working on a nuclear site, an apprentice will use calibrated monitoring instruments to take radiation dose rate and contamination readings at the work face, log results accurately, and report findings to the relevant teams. They will support radiological control measures, help enforce safety standards with the wider workforce, and assist facility teams with radiation-related tasks. Shift patterns are common, including nights and weekends, and the role often requires wearing personal protective equipment and respiratory protection in controlled or supervised areas.
Completing this apprenticeship leads directly to a qualified Nuclear Health Physics Monitor role, with typical employers including nuclear decommissioning operators, waste management contractors, and operational power station teams. From that position, progression routes include senior or lead Health Physics Monitor, Radiological Protection Supervisor, and, with further study, Radiological Protection Adviser. The nuclear sector, including organisations involved in decommissioning legacy sites and operating new generation plants, maintains consistent demand for qualified radiological protection staff throughout the UK.
Sorted by achievement rate.
City College Plymouth is a further education college offering a wide range of apprenticeship and voc...
Completing this apprenticeship typically leads to a qualified Health Physics Monitor or Radiological Protection Monitor role on a nuclear site. Graduates work directly at the work face, carrying out contamination surveys, dose rate measurements and personnel monitoring. Some move into HPM Technician positions with slightly broader responsibility for instrument calibration and records, or into radiological support roles within facility teams managing day-to-day radiation safety on operational plant or decommissioning projects.
With experience, HPMs often progress to Senior Health Physics Monitor or Lead HPM roles, taking responsibility for shift teams and mentoring junior monitors. The specialist track leads toward Radiological Protection Adviser or Health Physics Supervisor positions, sometimes supported by further qualifications such as the RPA 2000 certificate. Those who move into leadership can progress to Radiological Protection Manager or Site Safety Specialist. Either route generally requires several years of operational experience across varied radiological environments.
The nuclear industry is the primary employer, spanning civil decommissioning sites managed by organisations such as the Nuclear Decommissioning Authority's estate, operational power stations, fuel processing facilities and radioactive waste management sites. Defence nuclear sites also employ HPMs, as do specialist nuclear services contractors who support site operators. Most roles are permanent, site-based positions. The sector operates year-round on shift patterns, and roles are concentrated in areas with established nuclear infrastructure, including Cumbria, the south-west of England and Scotland.
Throughout the apprenticeship, the learner works as a Nuclear Health Physics Monitor while building the knowledge, skills and behaviours required for the role. This includes radiological monitoring, instrument use, recording and interpreting readings, and applying safety standards in live nuclear environments. Before final assessment, the employer and training provider carry out a readiness check, often called a gateway, to confirm the apprentice is prepared to demonstrate full occupational competence. Final assessment then verifies that standard against the requirements for the role. Assessment models for many standards are currently being updated, so check the gov.uk page for this standard for the current specification.
Because the work is safety-critical and technically precise, keeping records of workplace activity throughout the programme matters considerably more than trying to gather evidence late on. Learners should document radiological monitoring tasks, instrument readings, contamination assessments and any emergency response support as they occur. Working closely with the employer's Health Physics team and the training provider from early in the programme helps to identify any gaps in competence well before the gateway review. Accurate, contemporaneous records make the final assessment process significantly more straightforward.
Look for providers with direct experience delivering training on or near active nuclear sites, whether that is operational power stations, decommissioning facilities, or waste management operations. Achievement rates above 65% are a meaningful baseline; aim for providers sitting at 75% or above, given the precision and compliance demands of the role. Check that training facilities include working radioactive source sets and calibrated instruments. Providers should be able to show a clear pathway from qualification to site clearance, and employer satisfaction scores should reflect genuine engagement with nuclear operators rather than general engineering employers.
Be cautious if a provider cannot demonstrate hands-on access to radiological monitoring instruments and calibrated sources as part of the off-the-job training. A high apprentice volume combined with a falling achievement rate deserves scrutiny, particularly in safety-critical roles where incomplete training creates real site risk. Vague answers about how the provider handles site security clearance requirements, or no evidence of working relationships with licensed nuclear operators, are serious concerns. Providers who bundle this standard into a generic engineering cohort without nuclear-specific delivery staff are unlikely to meet the depth this role demands.
Employers set their own entry requirements, but most will expect a good standard of secondary education, including maths and English at GCSE level or equivalent. Candidates must be able to obtain security clearance, as nuclear sites operate under strict access controls. They also need to be medically fit to wear respiratory protective equipment and other specialist safety gear. A background interest in science or engineering is useful but not always essential.
The apprentice is employed throughout and carries out their learning while working on site. Training is split between on-the-job experience and off-the-job learning such as technical study and safety training. The typical duration is around 24 months, though individual timelines vary. Assessment models and off-the-job requirements are subject to ongoing reform under Skills England, so check the current specification on the Institute for Apprenticeships and Technical Education page at gov.uk before planning.
Before sitting their end-point assessment, the apprentice must pass through a gateway, a formal check that they have met all the requirements of the programme and are competent across the standard's knowledge, skills and behaviours. Assessment typically involves a practical demonstration and a professional discussion, though assessment models for many standards are being reviewed. Always check gov.uk for the current assessment plan, as requirements may have changed since this page was last updated.
The funding band for this standard is £13,000, which is the maximum government contribution towards training and assessment costs. Large employers with the apprenticeship levy use their levy account to pay providers directly. SMEs without a levy account pay 5% of the training costs, with the government covering the remaining 95%. Employers with fewer than 50 employees who take on an apprentice aged 16 to 18 pay nothing; the government funds the full amount.
The role centres on radiological monitoring across nuclear sites. Day-to-day tasks include using specialist instruments to measure surface and airborne contamination, recording dose rates, escorting workers into controlled or supervised areas, and raising alerts when readings fall outside acceptable limits. Monitors also support decontamination activities, maintain equipment records, and may contribute to the site's emergency response team. Shift patterns are common, and the role operates across operational plants, decommissioning facilities and waste management sites.
Completion of this apprenticeship provides a recognised occupational qualification within the nuclear sector and a strong platform for progression. Many monitors move into senior monitoring roles, radiation protection technician positions, or supervisory posts within health physics teams. Some go on to study further qualifications in radiation protection, with professional registration through bodies such as the Society for Radiological Protection a recognised goal. The skills gained are transferable across the full range of civil nuclear facilities in the UK.
Tell us a bit about your team and we'll send a shortlist.
Tell us your requirements and we'll match you with the right training providers.
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: 46.
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.