2023 Land Rover Defender 3.0L Electric diesel · URZ 6067

A consistent record of clean roadworthiness defines this vehicle, with the most recent MOT test on 20 May 2026 returning no defects. The absence of recorded failures or advisories across its testing history suggests that the primary structural and mechanical components inspected by the DVSA have met the required standards without flagged issues regarding emissions, braking efficiency, or lighting. The vehicle's usage profile shows a relatively high accumulation of mileage for its age, covering 36,828 miles over approximately three years. This equates to an average annual distance of roughly 12,276 miles, which is higher than the typical UK average for this vehicle class. Mechanically, this level of usage implies that consumable components such as brake pads, discs, tyres, and suspension bushes will have undergone more frequent wear cycles than a lower-mileage equivalent. While the MOT record is clear, the higher mileage suggests that the drivetrain and chassis have been subjected to more regular operational stress. Given the lack of specific advisories in the recent history, there are no recorded defects regarding corrosion on the subframe, leaks from the engine or gearbox, or wear in the suspension linkages. However, because of the higher-than-average mileage, a prospective buyer should focus on the physical condition of the suspension system and steering components. During a test drive, listen for any rhythmic knocking or clunking sounds when traversing uneven surfaces, which could indicate premature wear in the coil springs or bush components. Further inspection should include monitoring the braking system for any signs of pedal judder or uneven pulling under deceleration, which would indicate disc or caliper issues. It is also advisable to check for any fluid weeping around the dampers or engine bay during a stationary inspection. While the official DVSA records show no current faults, the mileage profile warrants a close physical examination of all wear-prone mechanical interfaces to ensure they remain within optimal operating tolerances.