2024 Tesla Model 3 Electric · ML24 BVC

As a 2024 registration, the Tesla Model 3 falls just outside the statutory three-year MOT exemption threshold, meaning it would not yet have been required to undergo its first DVSA roadworthiness test. Consequently, no MOT history is presently available for this vehicle, and there is no recorded test outcome, advisory, or failure data to evaluate. While the absence of any MOT record is perfectly normal for a car of this age, it does mean that there is no official longitudinal maintenance trend to assess, and any judgement on its mechanical condition must rest entirely upon a physical inspection and verification of its service history rather than upon governmental testing records. Mileage data has not been supplied for this vehicle, which makes it impossible to benchmark annual usage against the national average or to detect any significant gaps or unusually rapid accumulation of miles. For a two to three year old electric vehicle, an average annual mileage would typically fall somewhere between eight thousand and twelve thousand miles, though Tesla Model 3s are frequently used for higher-mileage commuting. Without this figure, a prospective purchaser should establish the present odometer reading, cross-reference it with the in-service date on the V5C logbook, and confirm consistency across the dealer or specialist service records. It is also worth noting that electric vehicles place very different wear profiles on components compared with internal combustion cars, with minimal engine and transmission stress but often higher demands upon tyres and suspension components due to the instant torque and additional weight of the battery pack. Given that there is no MOT history to draw upon, the buyer must place considerable emphasis on a thorough physical appraisal. Tyres warrant close attention, particularly the sidewalls, as even lightly used or correctly inflated tyres can suffer from rubber perishing and cracking due to UV exposure and age; tread depth should be measured across the full width and any uneven wear patterns investigated, as these may indicate misalignment, worn suspension bushes, or compromised coil springs. Brake discs and calipers should be examined for corrosion or seizing, as electric models rely heavily on regenerative braking, meaning the friction brakes can seize or develop surface rust from prolonged inactivity. The twelve-volt auxiliary battery, distinct from the main traction pack, should be load-tested, as these units commonly fail between the third and fifth year of service and can cause various electrical faults. Beyond the running gear, particular attention should be given to the high-voltage system and ancillary items specific to this model. A diagnostic scan using Tesla-approved equipment is strongly recommended to identify any historical fault codes relating to the drive units, battery management system, or charging hardware, as such issues would not surface during a conventional walkaround. The regenerative braking function, steering response, and suspension should be evaluated on an extended test drive, listening for any clonks, knocks, or uneven pulling that might suggest worn suspension links or anti-roll bar bushes. Cooling system hoses for the battery and drive units should be inspected for leaks, the underside examined for any evidence of corrosion on suspension arms or structural members, and all fluid services verified by date and mileage, as brake fluid and cabin filter replacement are calendar-based items that require attention regardless of low annual mileage. Finally, ensure that any outstanding software recalls or over-the-air update histories are documented, as Tesla routinely issues updates addressing driveline and charging refinements which are best confirmed through the official Tesla account or service records.