2017 Land Rover Discovery 3.0L Diesel · LS17 WDY

The latest MOT test for the 2017 Land Rover Discovery at 69,893 miles was passed on 2026-04-08, marking a continuation of a stable maintenance record with no defects reported. The vehicle’s MOT history over the past four years shows a consistent pattern of passing tests, with the only advisories recorded in 2024—both related to corrosion and grease accumulation on the rear brake pipes between flexi hoses. These advisories, while not failing the test, indicate a recurring issue that suggests either poor maintenance of the brake system or environmental exposure that accelerates corrosion. The absence of further failures or repeated advisories in the intervening years implies that while the problem persists, it has not progressed to a critical stage requiring immediate rectification. This stability is reassuring for a prospective buyer, though the advisories warrant closer attention during a physical inspection and routine servicing. The vehicle’s mileage of 69,893 miles at the time of the latest MOT represents a reasonable annual usage rate of approximately 7,766 miles per year, which is typical for a car of this age and class. This usage profile suggests moderate, regular driving rather than heavy or high-mileage accumulation, which could otherwise accelerate wear on components like suspension bushings, brake pads, and drivetrain elements. However, the lack of significant mileage gaps between MOT tests does not necessarily rule out periods of prolonged inactivity, which can exacerbate issues such as standing corrosion on brake components, fluid degradation in hydraulic systems, or the perishing of rubber seals and gaskets. Buyers should be aware that while the mileage is not excessively high, the age of the vehicle means that time-based wear—such as the aging of brake fluid, coolant, and transmission fluid—could also be a factor, particularly if the car has been stored for extended periods. Given the presence of the 2024 advisories on the rear brake pipes, the prospective buyer should prioritise a thorough inspection of the entire brake system during the test drive and at the point of purchase. Look for signs of corrosion beyond just the pipes, such as pitting or cracking on the brake discs, caliper seals, and brake hoses. Listen for unusual noises during braking, such as grinding (indicating worn pads or damaged discs) or squeaking (suggesting warped discs or low pad friction). The grease or debris on the pipes may also indicate brake fluid contamination, which can compromise system effectiveness—test for fluid leaks around the calipers and master cylinder, and ensure no brake pedal travel is spongy or spongy when pumping. If the advisories are confirmed as persistent but not failing, the buyer should budget for a professional assessment to determine whether the pipes need replacement or if the corrosion can be mitigated with protective treatments. For the broader physical inspection, the buyer should also address several age-and-mileage-appropriate checks. Given the vehicle’s age, inspect the tyres for signs of sidewall cracking or perishing, which can compromise structural integrity and increase the risk of sudden failure. Check the tyre tread depth and ensure there are no irregular wear patterns that may indicate misalignment, suspension issues, or uneven load distribution. The suspension should be examined for signs of excessive play or binding, particularly in the coil springs and shock absorbers, which may reveal wear in the suspension bushes or strut mounts. Additionally, verify the condition of the 12-volt battery and associated electrical connections, as older vehicles are more susceptible to battery failure or corrosion in terminals. Finally, since the vehicle has not undergone a full service in recent years, consider checking the service book for stamps or records of fluid top-ups, particularly for the automatic transmission fluid, which degrades over time and should be replaced every 60,000 to 100,000 miles or every 3 to 5 years, whichever comes first. Calendar-based fluid servicing is critical for maintaining performance and preventing catastrophic failure.