2022 Land Rover Defender SE D Mhev Auto 3.0L Diesel · AE72 RRO

A single major fluid leak from the nearside rear shock absorber on the October 2025 test, followed by a clean pass in January 2026 with only an advisory note for inner brake disc corrosion, points to a vehicle whose mechanical story is presently defined by suspension hydraulic wear rather than structural or brake-system decline. The shock absorber failure is a notable event for a Defender of this age and mileage, as gas-hydraulic dampers are generally expected to remain sealed well beyond a few years of service. The fact that the vehicle subsequently passed its most recent MOT on 9 January 2026 suggests the defective unit has been replaced, and no further advisories have been logged against the rear suspension, indicating the repair was likely completed properly. The advisory regarding pitted inner faces on both front discs is a common finding on lightly used four-wheel-drive vehicles, where low mileage translates to infrequent brake use and surface corrosion develops on the unworked areas of the rotors. With only 20,431 miles recorded over approximately four years, this Defender has averaged just over 5,100 miles annually, which is well below typical usage rates for a vehicle of this class and capability. Such modest accumulation generally preserves engines, transmissions and drivetrain components from premature wear, but it does place greater emphasis on the condition of items that suffer from standing rather than active use, including brake rotors, brake caliper slide mechanisms, rubber bushes, driveshaft gaiters, and underbody fasteners susceptible to galvanic and surface corrosion. The recorded mileage progression is consistent and shows no signs of clock irregularities or extended gaps in testing, which lends confidence to the odometer reading. That said, the relatively low annual figure means the braking system will have experienced fewer thermal cycles than a higher-mileage equivalent, which is consistent with the inner-face disc pitting currently flagged. For a prospective buyer, the priority on inspection should be the rear suspension system, specifically the area around the nearside rear shock absorber that previously failed. During a stationary visual check, look for any residual dampness, staining or white salt-like deposits on the new unit, and confirm that the mounting bolts at the top and bottom of the shock are torqued and undamaged. On a test drive at low speed over uneven surfaces, listen for any clonking, knocking or squeaking emanating from the rear axle, which could indicate that accompanying components such as the trailing arms, Panhard rod bushes, or anti-roll bar links have been disturbed during the shock replacement or are beginning to deteriorate in their own right. Pay particular attention to how the vehicle settles after passing over speed bumps; a single weak damper can produce a perceptible secondary bounce. The front braking system merits close attention given the advisory recorded on the inner disc faces. During a road test, expect to detect any vibration, judder or pulsing through the brake pedal under firm application, particularly from higher speeds, as inner-face corrosion can lead to disc thickness variation once the pitted material begins to wear unevenly against the pad surface. With the wheel turned to full lock, listen for any scraping or binding from the front calipers, which is a common consequence of infrequent use allowing the slider pins to seize. Under the vehicle, inspect the underbody, subframe mounts and exposed brake lines for any surface corrosion, and check that the brake hoses retain flexibility without visible cracking. Finally, because the Defender is fitted with the MHEV mild-hybrid electrical system, confirm that the auxiliary belt-driven components operate smoothly from cold start, as long stationary periods can encourage premature ageing of ancillary drive components that may not yet have surfaced as testable defects.