2025 Hyundai Kona Advance EV Electric · DAP 106B

This Hyundai Kona Advance EV presents a critical gap in its roadworthiness documentation, as no MOT history exists to assess its mechanical condition or maintenance adherence. Without prior test records, there is no evidence of how the vehicle has performed under inspection criteria—whether it has passed reliably, failed repeatedly on specific components, or exhibited signs of deferred maintenance. The absence of any MOT data means critical systems such as high-voltage battery integrity, regenerative braking efficiency, or structural corrosion cannot be verified through official testing. Buyers must treat this as a vehicle with an entirely unknown service and fault history, necessitating thorough independent inspection before purchase. The lack of mileage data further complicates evaluation, as the vehicle’s age (2025 model) cannot be contextualised against usage patterns. A typical Kona Advance EV might expect around 10,000–15,000 miles annually under normal usage, but without any recorded service intervals or MOT dates, it’s impossible to determine whether the car has been lightly used, heavily driven, or even stored. The absence of any prior MOT also raises questions about whether the vehicle has undergone necessary EV-specific checks, such as thermal management system functionality or charging interface compliance. This void in documentation suggests either a first-time registration or a deliberate omission of historical records, both of which warrant extreme caution. Given the complete absence of MOT data, a prospective buyer should prioritise an immediate, comprehensive inspection of the high-voltage battery system, including visual checks for swelling, corrosion at connectors, or fluid leaks from cooling circuits. The suspension components—particularly the coil springs, bushes, and stabiliser links—should be scrutinised for uneven wear or binding, as these are common failure points in EVs where weight distribution differs from conventional vehicles. Brake systems, including both regenerative and mechanical components, must be tested for consistent stopping performance, with attention to binding calipers or uneven wear on brake discs. Structural integrity, especially around wheel arches and underbody, should be inspected for corrosion, as EVs with lower ground clearance can be more susceptible to salt damage. Finally, the charging port and onboard charger should be verified for proper functionality, as these are critical for daily usability. Without prior MOT evidence, no assumption of reliability can be made.