2020 Porsche Cayenne 3.0L Hybrid electric (clean) · LM20 AEJ

The Porsche Cayenne in question presents a clean MOT history, with no defects recorded across the three most recent tests—most recently on 21 July 2025 at 18,983 miles. This consistency suggests stable mechanical condition and adherence to basic roadworthiness standards. The absence of advisories or failures over this period implies that routine maintenance has been addressed, at least to the level required for MOT compliance. However, the vehicle’s age and the fact that it has not been tested since July 2025—nearly 13 months ago—mean a pre-purchase inspection should prioritise components not routinely checked by the MOT, such as fluid levels, suspension wear, and hidden corrosion. The car’s mileage of 18,983 miles over six years equates to an average of just 3,164 miles annually, far below typical usage for a premium SUV. The gap between tests is also notable: the 2024 MOT at 17,317 miles was conducted roughly 11 months after the 2023 test at 15,317 miles, indicating a period of minimal use or potential storage. While low mileage generally reduces wear on drivetrain and suspension, it can also mask deferred maintenance—particularly if the vehicle has sat unused for extended periods, risking issues like seized bearings, degraded seals, or fluid degradation. Given the lack of MOT advisories, buyers should focus on non-MOT components during a pre-purchase inspection. Pay particular attention to the suspension—check for worn bushings, coil spring condition, and any signs of binding in the steering or dampers. The braking system should be scrutinised for uneven wear on discs and pads, as well as potential caliper binding, which can occur even with low mileage if fluid has degraded or if the vehicle has been driven infrequently. Examine the undercarriage for corrosion, especially around wheel arches and suspension mounts, as well as the condition of the exhaust system for leaks or rust. Finally, verify all fluid levels—engine oil, brake fluid, coolant, and differential—since stagnation can accelerate component failure.