To gather, interpret and evaluate information about the chemistry, biology and physics of soil.
Apprentices develop the technical knowledge and applied skills needed to assess, classify and manage soils across a range of land use contexts. The programme covers soil chemistry, biology and physics, including pedogenesis, nutrient management, contamination, compaction and carbon accounting. Apprentices learn to design and implement soil surveys, interpret GIS and Earth Observation data, develop soil resource plans, and advise on land management decisions. They also gain competence in project planning, health and safety compliance, report writing, and communicating findings to both technical and non-technical audiences.
Work varies considerably by employer and project type. In a typical week, an apprentice might carry out field surveys using augers and pit digging, log soil profiles against classification standards, and collect samples for laboratory analysis. Back at the desk, they process GIS data, contribute to technical reports, and help develop project scopes and budgets. They liaise with clients, farmers, planners or contractors depending on the project, and may assist with risk assessments and method statements before site visits. Findings are written up as formal reports or presented to project teams.
Completing this apprenticeship typically leads to roles such as Senior Soil Scientist, Environmental Consultant, Agricultural Land Classifier, or Soil Survey Specialist. With experience, progression into technical director, principal consultant or policy advisory positions is common. Employers span agricultural consultancies, environmental and ecological practices, government agencies such as Natural England and the Environment Agency, infrastructure delivery organisations, research institutions, and NGOs focused on land restoration. The growing policy focus on soil health, carbon sequestration and biodiversity net gain has increased demand across most of these sectors.
Sorted by achievement rate.
No training providers currently listed for this standard.
Completing this apprenticeship typically leads to positions such as Soil Scientist, Senior Environmental Consultant, Land Quality Specialist, or Soil Survey Specialist. Some graduates move directly into Agricultural Land Classification roles or take up positions as Peatland Restoration Scientist and Contaminated Land Consultant. Those in public sector settings often enter roles with government agencies as Technical Adviser or Policy Adviser, contributing soil expertise to regulatory or enforcement work.
Within three to five years, many soil scientists advance to Principal Soil Scientist, Senior Land Quality Consultant, or Project Manager within environmental or geotechnical consultancy. Two distinct tracks tend to emerge at this point: a technical specialism route leading to roles such as Principal Consultant in Contaminated Land or Senior Peatland Ecologist, and a project leadership route toward Associate Director or Technical Director in environmental consultancy. Longer term, some move into research leadership, policy development, or senior advisory positions within government bodies and academic institutions.
Environmental and geotechnical consultancies, both large multidisciplinary firms and smaller specialist practices, are the most common employers. Agricultural and horticultural organisations, infrastructure developers, local authorities, and government agencies such as Natural England and the Environment Agency also recruit at this level. Charities and non-governmental organisations focused on habitat restoration, peatland recovery, and biodiversity net gain are a growing source of demand, particularly as land management regulation tightens across the UK.
Throughout the programme, apprentices build competence in the knowledge, skills and behaviours required of a practising soil scientist, learning while employed and applying that learning directly to real work. Before final assessment can begin, the apprentice must pass through a readiness check, often called the gateway, where the employer and training provider confirm that the apprentice has met all prerequisite requirements and is ready to demonstrate occupational competence. Final assessment then confirms whether the apprentice can perform independently at the level the standard requires. Assessment models for many Level 7 standards are currently being updated; check the standard's gov.uk page for the current specification.
Building a strong evidence base throughout the programme, rather than at the end, makes gateway and final assessment significantly more manageable. Apprentices should keep records of real project work, field surveys, laboratory analysis, stakeholder reports and any project management responsibilities as they arise. Regular three-way conversations between the apprentice, their employer and training provider will help identify gaps in knowledge or skills early and keep progress on track. Treating every significant piece of work as potential assessment evidence from day one is the most practical approach.
Because this is a relatively new and specialist standard, provider track record matters more than volume. Look for achievement rates above 65% on the FATP profile, and check whether employer and apprentice satisfaction scores reflect genuine engagement with field-based learning. A strong provider will have tutors with working soil science credentials, not just general environmental science backgrounds. Ask whether they can demonstrate access to current GIS platforms, Earth Observation data tools and laboratory facilities, since those underpin the technical skills assessed at end-point. Providers with existing relationships across consultancy, land management or government agency employers are worth prioritising.
Be cautious of providers who deliver this standard as a bolt-on to a broader environmental or land-based portfolio without dedicated soil science expertise on the teaching team. Low cohort numbers combined with a vague answer about how field work is structured should prompt further questions. If a provider cannot explain clearly how apprentices gain supervised survey experience across different soil types and land use contexts, the practical depth of the programme is probably limited. Outdated GIS software or no mention of Earth Observation data in the curriculum is a concrete gap given what the end-point assessment requires.
Applicants typically hold an undergraduate degree in a relevant subject such as environmental science, geography, geology, agriculture or biology, as this is a Level 7 standard. Employers set their own entry criteria, so requirements vary. The apprentice must be in paid employment for the duration of the programme, working in a role where they can apply soil science knowledge and skills directly. Prior experience in an environmental, agricultural or scientific setting is often expected, though not always mandatory.
The typical duration is around 24 months, though individual timelines vary depending on the employer, the training provider and the apprentice's prior experience. The apprentice remains employed throughout and applies learning directly to their day-to-day role. A portion of working time is dedicated to off-the-job learning, though the exact proportion is subject to current government reforms. Check the current funding rules on gov.uk for the up-to-date specification before planning a programme.
Before the end-point assessment, the apprentice must pass through a gateway, at which point the employer and training provider confirm the apprentice has demonstrated the required knowledge, skills and behaviours. Assessment models for many standards are being updated under ongoing reforms, so the specific assessment methods may have changed since the standard was published. Refer to the current assessment plan on the Institute for Apprenticeships and Technical Education pages on gov.uk to confirm what the end-point assessment involves.
The funding band for this standard is £21,000, which is the maximum that can be drawn from the apprenticeship levy or claimed through government co-investment. Large employers with a levy account use those funds directly. Smaller employers who do not pay the levy contribute 5% of the training cost, with government paying the remaining 95%. Employers taking on an apprentice aged 16 to 18 may pay nothing at all. Any costs beyond the funding band cap must be met by the employer.
Day-to-day work depends on the employer and sector, but typically includes conducting field surveys and site visits to assess soil types, collecting and analysing soil samples, using GIS tools and digital modelling software, and interpreting data to produce technical reports. Apprentices also liaise with clients, landowners, planners and other specialists, develop project scopes, manage timelines and budgets, and ensure compliance with health, safety and environmental regulations. Some roles involve more laboratory or desk-based analysis; others are predominantly field-based.
Completing a Level 7 apprenticeship places graduates at master's degree equivalent level, which opens routes into senior or principal scientist roles, technical leadership positions, or specialist consultancy. Many progress into roles advising on agricultural land classification, peatland or habitat restoration, major infrastructure projects, or environmental policy. Membership or chartership with professional bodies such as the British Society of Soil Science or the Chartered Institution of Water and Environmental Management is a common next step. Some go on to doctoral research or move into academic and teaching settings.
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: 734.
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.