2017 Subaru Forester 2.0L Petrol · HJ17 AAE

The 2017 Subaru Forester has maintained a consistent MOT pass record over the past five annual tests, with no defects recorded in any of the inspections conducted between June 2022 and June 2025. The most recent test on 5 June 2025, at 52,791 miles, confirms the vehicle remains roadworthy under current DVSA standards, though this does not preclude hidden wear or deferred maintenance. The absence of advisories or failings suggests the tester did not identify any immediate structural or mechanical risks during those examinations, though this does not guarantee future reliability without further inspection. The vehicle’s mileage progression indicates unusually low annual usage, averaging just 5,866 miles per year over the past nine years. This pattern suggests prolonged periods of inactivity, which can accelerate certain forms of degradation—particularly in suspension components, rubber seals, and battery health—even if the tester did not flag these issues in recent MOTs. The largest mileage gap occurs between the 2022 (36,886 miles) and 2023 (44,067 miles) tests, a 7,181-mile increase over a single year, which may imply either a period of heavier use or a delay in MOT testing. Without service records, it is impossible to determine whether critical fluids were changed or whether the vehicle was stored with protective measures during these intervals. Given the lack of recorded defects, a buyer should prioritise an independent inspection of suspension integrity, focusing on worn or perished bushes, coil springs, and shock absorbers—components that degrade even with low mileage when a vehicle is stationary for extended periods. The brakes, while not failed in MOTs, should be scrutinised for uneven wear, binding calipers, or corrosion on the rear discs, as these can develop silently over years of infrequent use. Tyre tread depth, despite passing MOTs, may have worn unevenly due to uneven loading during storage, and the battery—often neglected in low-mileage vehicles—should be tested for residual capacity. Structural corrosion, particularly around wheel arches, sills, and subframes, is another critical area, as prolonged exposure to moisture without movement can accelerate rust formation.