2026 Tesla Model 3 Electric · LE75 AVZ

Because this 2026 Tesla Model 3 carries no recorded MOT history on the DVSA database, the only roadworthiness narrative available is one of complete absence rather than documented performance. New vehicles in the United Kingdom are not required to undergo MOT testing until they reach three years of age, which aligns precisely with this example's registration date relative to today's date of 2026-09-04. While this absence is entirely normal and expected for a car of this age, it means there is no historical DVSA evidence to evaluate, no advisory patterns to scrutinise, and no prior failure data to reconcile. Any prospective buyer should therefore understand that MOT roadworthiness for this particular vehicle has yet to be formally documented. Regarding usage patterns, the recorded mileage is listed as unknown, and there is insufficient data to calculate any meaningful annual accumulation rate against the vehicle's age. Without mileage readings across successive tests, it is not possible to identify periods of heavy motorway use, prolonged inactivity, or rapid accumulation that might point to specific mechanical wear concerns such as premature suspension degradation, brake disc corrosion from short-cycle urban driving, or tyre shoulder wear from sustained high-speed cruising. The absence of both mileage records and MOT entries places this Model 3 in a category where mechanical condition can only be established through direct physical inspection rather than historical inference. For a buyer approaching this vehicle, the absence of MOT history shifts the entire burden of verification onto a present-day mechanical appraisal. A thorough physical inspection should focus on the areas that most commonly affect electric saloons of this generation: the condition of the lower suspension arms, anti-roll bar bushes, and rear multilink components for any knocking or uneven tyre wear; the brake discs and calipers for corrosion or binding, particularly given that regenerative braking often leads to surface rust and pad glazing on the rear axle; the underbody battery enclosure and surrounding structural panels for any signs of impact damage, fluid ingress, or corrosion; and the tyres for even tread wear, as any camber or alignment deviation will accelerate inner or outer shoulder loss on a vehicle of this weight. A pre-purchase inspection carried out on a lift by a technician familiar with Tesla platforms is strongly advisable, as the high-voltage battery pack, drive units, and associated cooling systems require specific diagnostic access that a generalist garage may not be equipped to provide. On a test drive, the buyer should be attentive to specific symptoms that would indicate developing concerns rather than relying on generic observations. Listen for any clonks or rattles from the suspension over uneven surfaces, particularly at low speed over speed humps, which would suggest worn bushes or top mounts. Feel for any vibration through the steering wheel or pulling to one side under braking, both of which could indicate warped discs or uneven pad transfer. Monitor the efficiency readout on the trip computer for any sudden reduction in indicated range, which on a Tesla can be an early indicator of battery degradation or auxiliary system faults. Finally, confirm that the high-voltage system, 12V battery, and all drive unit warning indicators illuminate and clear correctly during the startup sequence, and ensure that the vehicle's software recognises all associated systems without fault codes stored, as a clean diagnostic readout is currently the only available proxy for the kind of roadworthiness assurance an MOT pass would otherwise provide.