2024 Genesis GV60 Premium Electric · OV74 NPK

As of the date of this assessment, there is no DVSA MOT history recorded for the 2024 Genesis GV60 Premium. Under current UK regulations, vehicles are not required to undergo their first MOT test until they reach three years of age, which means this vehicle would only become eligible for testing from 2027 onwards. Because the MOT record is entirely absent rather than merely sparse, no pass or failure trend, advisory pattern, or defect progression can be established from official testing data. A clean slate in this context therefore reflects regulatory timing rather than proven roadworthiness, and any prospective buyer must rely on independent mechanical inspection rather than government test records to verify the condition of the vehicle. With recorded mileage unavailable and an insufficient data set against which to benchmark annual usage, it is not possible to determine whether this Genesis GV60 has covered a typical mileage for a two-year-old premium electric vehicle or whether it has experienced unusually low or high utilisation. For context, average UK annual mileage currently sits in the region of seven to eight thousand miles, and a premium electric crossover such as the GV80 would commonly cover between fifteen hundred and three thousand miles per month in regular service. Regardless of the actual figure, the absence of MOT data means that brake wear, tyre degradation, suspension component fatigue, and high-voltage battery health cannot be inferred from official mileage progression and must instead be assessed through direct physical examination and diagnostic interrogation of the manufacturer’s telematics and service records. Given the lack of MOT history and the premium positioning of this vehicle, a prospective buyer should prioritise a thorough pre-purchase inspection conducted by a specialist familiar with the Genesis marque or high-voltage electric drivetrains. Particular attention should be paid to the condition of the high-voltage battery pack, including its state of health, charging history, and any imbalance between individual cell modules, as degradation here is the single most expensive potential failure on an EV. The 12-volt auxiliary battery, which supports ancillary systems and control modules, should be load-tested, as modern vehicles can suffer parasitic drain that prematurely ages this component even on relatively young cars. Tyres should be examined for sidewall perishing, cracking from age rather than wear, and uneven tread wear indicative of misalignment or suspension geometry issues, while brake discs and calipers should be checked for corrosion, binding, or uneven pad wear, all of which can develop during periods of light use characteristic of low-mileage electric vehicles that rely heavily on regenerative braking. Service documentation should be reviewed carefully to confirm that the manufacturer’s recommended maintenance schedule has been adhered to, including brake fluid replacement, coolant renewal for the thermal management system, and any software updates issued for the battery management system or driver assistance modules. The high-voltage charging system, including the CCS port, onboard charger, and associated wiring, should be inspected for signs of damage, contamination, or thermal stress, and a full diagnostic scan should be undertaken to identify any stored fault codes that may not yet have illuminated a warning on the dashboard. Finally, the buyer should ensure that the vehicle’s HV battery warranty, charging cables, and any associated roadside assistance or manufacturer support packages remain in force, and should consider an independent battery health certificate from a recognised EV specialist to provide long-term assurance beyond what an MOT record would ordinarily offer.