2014 Nissan E-NV200 Electric · HF64 SXB

The e-NV200 shares the NV200's tailgate hardware and its recall: the anti-corrosion coating on the back door gas stay does not meet Nissan's design requirement, the outer tube corrodes and cracks, the pressurised gas escapes and the stay can no longer support the rear door, which is then free to drop onto the person loading. The DVSA register covers e-NV200s built between 1 April 2014 and 4 March 2016, with 4,377 UK vehicles across the campaign, and My MOT Checker lists the same defect with the remedy being replacement of the gas stay. On a van that lives outside, the hinges and mountings corrode too, so a strut replacement is often only half the job.

The e-NV200 (both 24 kWh and 40 kWh versions) utilizes a passively air-cooled lithium-ion traction battery located beneath the cargo floor, lacking active liquid cooling or refrigeration. In intensive commercial delivery duty, sustained motorway cruising combined with repeated DC fast-charging (CHAdeMO) quickly raises cell temperatures above 45°C. To protect cell health, the Battery Management System (BMS) severely throttles rapid charging speeds down from 46 kW to 12–18 kW ('Rapidgate'), substantially lengthening commercial turnaround times. Repeated thermal stress also accelerates irreversible battery capacity loss, visible via lost capacity bars on the cluster gauge and reducing real-world winter range to 60–80 miles on 40 kWh models and 30–45 miles on early 24 kWh vans.

Although equipped with a large high-voltage lithium-ion propulsion battery, the e-NV200 depends entirely on a standard 12V lead-acid auxiliary battery to power the onboard control units (VCM and BCM) and energise the high-voltage safety contactors. Frequent short delivery stops, leaving the van parked in accessory mode, or continuous parasitic draw from commercial telematics equipment drains the small 12V unit. If 12V terminal voltage drops below approximately 10.5V, the high-voltage contactors cannot pull in, the van refuses to switch into 'READY' drive mode, the gear selector stays locked in Park, and a cascade of spurious warning lights appear across the binnacle.

The integrated AC on-board charger (housed within the Power Delivery Module / PDM beneath the bonnet) can develop internal component failure, including degraded high-voltage smoothing capacitors, blown internal safety fuses, or short-circuited rectifier diodes. When the OBC fails, the vehicle completely rejects AC charging from domestic 3-pin trickle cables, dedicated home wallboxes, or public Type 2 destination charge points, often tripping the home or commercial depot RCD consumer unit instantly upon connection. DC rapid charging via the front CHAdeMO port typically remains operational because it feeds directly to the traction battery, bypassing the internal AC charger. Main dealer replacement of the entire PDM assembly is expensive, though independent EV electronics specialists provide component-level board repairs.