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L5Apprenticeship441 approved provider
The Level 5 Laboratory Scientist (Degree), and the 1 provider delivering it.
Carrying out technical and scientific activity in laboratories.
About this apprenticeship
What this apprenticeship covers
Apprentices develop the scientific knowledge and practical skills needed to design and lead complex laboratory investigations. The programme covers chemistry and physics principles including thermodynamics, quantum mechanics, spectroscopy, and reaction mechanisms. Apprentices learn purification and characterisation strategies, safe handling of chemical and radioactive hazards, and how to scale up processes for real-world application. They also apply computational and mathematical techniques to model behaviour and interpret data, gaining the depth of technical understanding expected at graduate scientist level.
Day-to-day responsibilities
Working in a laboratory or field setting, apprentices plan and carry out experiments, prepare and analyse samples, and operate both standard and specialist instrumentation. They record results, apply statistical and computational tools to interpret findings, and write up conclusions for review by senior scientists. Depending on the employer, this might involve synthesising compounds, running quality or environmental analyses, or testing physical properties of materials. Regular interaction with colleagues to review methods and troubleshoot results is typical throughout the programme.
Career outlook
Completing this apprenticeship leads to roles across chemistry, biology, physics, and cross-disciplinary science. Common job titles include analytical chemist, process scientist, pharmaceutical scientist, molecular biologist, and materials scientist. Employers span pharmaceuticals, biotechnology, environmental testing, nuclear, defence, and consumer products manufacturing. From this level, scientists typically progress into senior or specialist scientist positions, project leadership, or research roles. Those wishing to continue their academic development may also use this foundation to pursue further study or professional registration with bodies such as the Royal Society of Chemistry or Institute of Physics.
1 approved provider
Sorted by achievement rate.
Macclesfield College
Employer: 3.0
Macclesfield College is a further education provider offering apprenticeships, college courses for 1...
Career outcomes
Roles after completion
Completers typically move into titles such as Analytical Chemist, Associate Scientist, Laboratory Analyst, Process Scientist, Pharmaceutical Scientist, Molecular Biologist, or Materials Scientist, depending on the specialism developed during training. Some move into more applied or niche roles: Medicinal Chemist, Environmental Assurance Officer, Acoustic Scientist, or Optical Scientist. The exact title depends on the employer's sector and whether the apprentice's KSBs lean toward chemistry, biology, or physics.
Progression paths
Within three to five years, many move from associate or graduate-level positions into Scientist or Senior Scientist roles with greater ownership of experimental design and project leadership. From there, two broad tracks emerge: a technical specialist route (Principal Scientist, Research Fellow, or Subject Matter Expert in areas such as formulation, analytical chemistry, or nuclear physics) and a leadership route (Laboratory Manager, Research Team Lead, or Scientific Project Manager). Chartered status with relevant professional bodies, such as the Royal Society of Chemistry or Institute of Physics, supports both tracks.
Where these roles sit
Pharmaceutical and biotechnology companies are significant employers, including contract research and manufacturing organisations. Beyond those, hiring comes from chemical manufacturing, environmental consultancy, nuclear and defence sectors, consumer goods manufacturers, and analytical testing laboratories. Academic and public sector institutions, including the NHS and government research agencies, also recruit at this level. Employers range from small specialist laboratories to large multinationals, across both private and public sectors.
How it's assessed
How the apprenticeship is assessed
Learning takes place entirely within employment, with the apprentice building knowledge and practical competence in scientific investigation, data analysis and laboratory procedures throughout the programme. Before moving to final assessment, the apprentice must pass a readiness check, often called a gateway, where the employer and training provider confirm that the required knowledge, skills and behaviours have been met. Final assessment then establishes whether the apprentice can perform the full scope of the role independently. Assessment models for many standards are currently being updated, so check the standard's gov.uk page for the current specification before enrolling.
What learners need to prepare
Keeping thorough records from the start of the programme makes the final assessment considerably more straightforward. Apprentices should document real laboratory work, experimental outputs, analytical decisions and problem-solving as they happen, rather than trying to reconstruct evidence later. Regular reviews with the employer and training provider help confirm that workplace activities are aligned with what the standard requires, and that any gaps in knowledge or skill are identified and addressed well before the gateway review.
Choosing a provider
What good looks like
Look for providers with an achievement rate above 65% on their FATP profile; given the 60-month duration and degree-level rigour here, completion rates are a meaningful indicator of how well a provider supports learners through a long programme. Strong providers will have clear relationships with university degree-awarding bodies and be able to explain exactly how off-the-job learning maps to laboratory bench work. Employer satisfaction scores above 80% are worth noting, as is evidence that tutors hold current industrial or research experience in chemistry, physics or biology rather than purely academic backgrounds.
Red flags to watch for
Be cautious if a provider cannot specify which degree-awarding institution is attached to the programme or gives vague answers about laboratory access and instrumentation. High learner volumes with a declining achievement rate across recent years suggest retention problems on a demanding five-year programme. Providers who cannot point to alumni working in relevant scientific roles post-completion, or who have thin employer satisfaction scores despite large cohort numbers, deserve scrutiny. Outdated computational tools in the curriculum, particularly for skills around modelling and programming, are also a concern given how central those are to the standard.
Questions to ask before you commit
- Which university awards the degree component, and how is the academic content integrated with workplace learning across the five years?
- What laboratory facilities and specialist instrumentation does the provider give apprentices access to, and how often?
- How does the programme cover computational modelling and programming software, and which specific tools are taught?
- What is your current achievement rate for this standard, and how has it changed over the last two or three cohorts?
- Can you show me examples of the kinds of roles your completers have moved into?
- How do you handle apprentices whose employer sector sits in, say, environmental science rather than pharmaceutical? Is the curriculum flexible enough to reflect that context?
- What support is in place for the end-point assessment, and what does your provider's track record look like at that stage?
Common questions
What qualifications does someone need to start this apprenticeship?
There are no nationally mandated entry requirements set by the standard, so employers set their own. In practice, most employers look for strong A-level results in science or mathematics subjects, or equivalent level 3 qualifications. The apprentice must be employed throughout and the role must genuinely require degree-level scientific knowledge. Check individual training providers and your chosen employer for their specific entry criteria.
How long does the apprenticeship last and what does the time commitment look like?
The typical duration is 60 months. Throughout that period the apprentice is employed full time, combining on-the-job scientific work with off-the-job learning. The exact split between workplace and study time is subject to current reforms under Skills England. For the most up-to-date requirements, refer to the official standard on the Institute for Apprenticeships and Technical Education page at gov.uk.
How is the apprenticeship assessed and what is the gateway?
Before taking the end-point assessment, the apprentice must pass through a gateway, a checkpoint where the employer and training provider confirm the apprentice has met all knowledge, skills and behaviour requirements. Assessment models for many standards are being updated, so the specific components, such as a project report, professional discussion or practical observation, may change. Always check the current assessment plan on gov.uk for the definitive requirements.
How does an employer pay for this apprenticeship?
The funding band for this standard is £27,000, which is the maximum that can be drawn from apprenticeship funding. Levy-paying employers use funds from their digital apprenticeship service account. Smaller employers co-invest with the government, typically contributing 5 per cent of training costs. Employers with fewer than 50 staff taking on an apprentice aged 16 to 18 pay nothing; the government covers the full training cost. Speak to your training provider about how payments are structured.
What does a laboratory scientist apprentice actually do day to day?
Day-to-day work depends on the employer sector, which could be pharmaceutical, chemical, environmental, nuclear or another scientific field. Apprentices design and carry out experiments, operate standard and specialist laboratory equipment, prepare and analyse samples, and interpret results. They also apply safety protocols for chemical and operational hazards, contribute to root cause analysis, and present findings to colleagues. Field-based work is part of the role in some organisations.
What can an apprentice do once they complete this apprenticeship?
Completion leads to a range of scientist roles depending on the sector and specialisation chosen during training, including analytical chemist, molecular biologist, pharmaceutical scientist, physicist or materials scientist, among others. Many graduates move into senior laboratory or research positions. The degree-level outcome also opens routes to postgraduate study, chartered scientist status with relevant professional bodies, and specialist technical or managerial career paths within science and technology organisations.
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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: 44.
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.