2017 Land Rover Range Rover 4.4L Diesel · WK17 BAY

The vehicle’s most recent MOT test on 2025-11-27 at 115,782 miles passed without defects, confirming it remains roadworthy for the immediate term. The absence of advisories or repeated failures in the last two tests suggests no persistent mechanical issues, though the brief failure in late 2024—just three days before passing—indicates a minor oversight rather than a systemic problem. The pattern of passing tests with no recorded defects implies consistent compliance with MOT standards, though the high mileage per year (12,865 annually) raises concerns about accelerated wear on high-stress components. The recorded mileage shows a steady accumulation of approximately 3,400 miles between each test, with no prolonged periods of inactivity. The gap between the 2024 failure and subsequent pass is unusually short (three days), which may reflect a rushed retest rather than a genuine resolution of a recurring issue. The vehicle’s annual mileage is significantly above average for its age, suggesting either intensive use or a lack of regular servicing to mitigate wear. This pattern warrants scrutiny of consumable parts like brakes, tyres, and suspension, as well as the drivetrain’s longevity under such conditions. Given the lack of defects in recent tests, the primary focus for an in-person inspection should centre on components typically affected by high mileage. The suspension—particularly coil springs, bushes, and dampers—should be checked for uneven wear or binding, as should the brake system for uneven disc thickness or warping, especially if the vehicle has experienced rapid mileage accumulation. The exhaust system should be examined for corrosion or leaks, particularly around joints and mounting points, while the underbody should be inspected for structural rust, especially in areas prone to moisture retention. The high mileage also necessitates verification of fluid levels and condition, including brake fluid, engine oil, and differential fluid, to preempt failures in critical systems.