2026 Polestar 4 Plus EV AWD Electric · OV26 CAA

As a 2026 model year Polestar 4 Plus EV AWD, this vehicle falls into a category that presently has no recorded DVSA MOT history. Because the car is a new registration, it has not yet reached the three-year point at which an MOT test becomes mandatory in the UK, which fully explains the absence of any test outcomes, advisories, or failures. From a roadworthiness documentation perspective, there is simply no empirical MOT evidence to evaluate — no pass or fail record exists, and therefore no component defects, corrosion findings, brake wear items, or suspension concerns have been formally logged against the vehicle. The mechanical story at this stage is effectively a blank slate, with the only data point being the vehicle's zero-MOT-test history rather than any specific pattern of roadworthiness decline or strength. Mileage for this vehicle is recorded as unknown, which prevents any meaningful assessment of usage intensity or annual accumulation rates. With a 2026 registration and a high-output electric drivetrain delivering considerable performance, an AWD EV of this specification can cover substantial mileage quickly, but without confirmed odometer readings, there is no way to gauge whether the car has been used predominantly for short urban commutes, long motorway runs, or a mix of both. The absence of mileage data also removes the ability to cross-reference any usage pattern with subsequent component wear, which is particularly relevant for an EV where brake disc and pad life, tyre rotation frequency, and high-voltage battery thermal cycling are all influenced heavily by driving habits. Until an odometer reading is verified, any inference about mechanical state based on usage is purely speculative. For a prospective buyer, the practical implication of the absent MOT record is that the standard DVSA verification route cannot be relied upon as a condition report. Inspection focus should therefore shift to areas commonly affected on low-mileage or near-new EVs, including careful examination of the alloy wheels for kerb damage, the tyres for uneven shoulder wear that can indicate misalignment of the suspension geometry, and the brake discs for surface corrosion or pitting caused by limited pad application in EV regenerative braking systems. A test drive should include firm pedal applications to confirm the regenerative and friction braking systems integrate smoothly without vibration, and a steady run over varied road surfaces to detect any knocking, creaking, or abnormal noise from the suspension bushes, anti-roll bar links, or dampers. Steering should be checked for any pull, vibration through the rim at speed, or inconsistent self-centring, all of which would warrant further investigation on an AWD platform. Additional buyer diligence should include verification of the high-voltage battery state of health through the Polestar service interface or an independent specialist, as battery degradation is not visible through any external inspection. Charging port condition, high-voltage cable integrity, and the cooling system for the battery pack and drive units should be visually inspected for leaks, corrosion, or impact damage. A diagnostic scan should be requested to confirm the absence of stored fault codes across all control modules, particularly the battery management system, electric drive units, and ADAS sensor suite. Given the vehicle's age and zero-MOT history, a pre-purchase inspection by a specialist familiar with Polestar or Volvo-derived EV platforms remains the most reliable method of establishing current mechanical condition in lieu of any statutory test data.