2026 Tesla Model Y Long Range AWD Electric · GD75 AVV

As of the assessment date in September 2026, the 2026 Tesla Model Y Long Range AWD has no recorded DVSA MOT test history. This absence of data does not indicate a failure or a mechanical defect, but rather reflects the vehicle's registration status, as a car of this model year is not yet eligible for compulsory roadworthiness testing. The first MOT test for vehicles in the United Kingdom is normally required once the car reaches three years of age, placing this Tesla outside the standard testing window. Consequently, there are no advisories, failure points, or defect trends available from the Driver and Vehicle Standards Agency to evaluate, and any judgment on the maintenance trajectory must rely on physical inspection and service documentation rather than official test records. The recorded mileage for this vehicle is not provided, which prevents any meaningful comparison between annual usage and the vehicle's age. Given the early registration date, the model year, and the absence of mileage history, prospective buyers must not assume that low mileage equates to mechanical soundness. A brand-new or low-mileage electric vehicle can still present age-related defects if it has been stored for prolonged periods, while a higher-mileage example used predominantly for long-distance motorway commuting may exhibit different wear characteristics. The mechanical implications of unknown mileage are particularly relevant to components such as tyres, brake systems, suspension components, and drivetrain elements, all of which should be physically inspected regardless of the odometer reading. Because there is no MOT history to reference, the prospective buyer should undertake a comprehensive physical inspection focusing on age and usage-related deterioration rather than recurring advisories. Tyres should be examined closely for sidewall perishing and cracking, as rubber compounds degrade over time even with limited use, and uneven tread wear across the axles may indicate suspension geometry faults or tracking misalignment. The braking system, which on a Tesla relies heavily on regenerative deceleration, should be checked for corroded or seized brake calipers, pitted brake discs, and binding handbrake mechanisms resulting from prolonged standing. Suspension bushes, coil springs, and anti-roll bar linkages should be inspected for early perishing, corrosion, and knocking symptoms when the vehicle is driven over uneven surfaces. It is also advisable to inspect the underbody and high-voltage cabling for signs of corrosion or impact damage, particularly around the front and rear subframes. Additional checks should focus on the electrical architecture and the service requirements specific to this model. The 12-volt auxiliary battery, which operates ancillary systems separate from the main traction battery, is known to degrade over time and should be tested for voltage stability and cranking performance, as failure of this component can render the vehicle immobile regardless of traction battery condition. Coolant systems for the battery pack and electric motors, brake fluid, and any remaining transmission fluid should be evaluated for calendar-based degradation, as these fluids lose protective properties over time even without significant mileage accumulation. Prospective buyers should verify the presence of a complete service book with digital or paper stamps, confirm any outstanding manufacturer warranty coverage, and request the results of any Tesla-approved diagnostic scans to ensure no fault codes are stored within the vehicle control modules. A pre-purchase inspection by a qualified independent technician familiar with electric vehicles is strongly recommended, as it will provide assurance beyond what MOT records can currently offer for a vehicle of this age.