How long does a Nissan LEAF take to charge?

The headline numbers come from independent guidance and from Nissan itself. On a 50kW DC charger the LEAF takes approximately 43 minutes to go from 20% to 80%, adding roughly 14 to 116 miles of range¹. Nissan's own press material quotes under 30 minutes for the same window². On a 7kW home charger, independent guidance gives approximately seven hours from 0% to 100%¹, while a product listing gives 7.5 hours³ and Nissan gives 7 hours 30 minutes⁴.

The LEAF is one of the most common used electric cars in the UK, and its charging behaviour is well documented. What follows sets out the times by charger type, what drives the differences, and what the numbers mean for a household trying to run a car without leaning on public networks.

Charging times at a glance: 30 minutes to 11 hours

The spread is wide because charger power varies by more than an order of magnitude. A three-pin socket delivers around 2.3kW⁷. A dedicated home wallbox delivers about 7kW⁵. A rapid charger delivers 43 to 50kW, and the LEAF's own DC ceiling is 46kW¹.

Official guidance from the Society of Motor Manufacturers and Traders puts slow charging at 12 to 40 hours or sometimes more for a full charge⁸. Independent guidance from the Energy Saving Trust splits it more finely: low speed chargepoints below 3.7kW take 12 to 15 hours for a full charge, while standard chargepoints between 3.7kW and 8kW take five and a half to 11 hours⁹. That second band is where most home wallboxes sit.

The two rapid figures disagree, and the documents do not resolve it. Nissan's under 30 minutes is a maker's headline for a new car under ideal conditions; the 43 minutes is independent guidance for a used example. Both are worth knowing before buying.

Rapid charging: 20 to 80% in around 30 to 43 minutes

Rapid charging is the LEAF's weakest point relative to newer cars, and the reason is the DC ceiling. The car accepts a maximum of 46kW on DC¹, so a 150kW ultra-rapid charger delivers no more than a 50kW unit would. Independent guidance is explicit that even when connected to a fast charger rated above 6.6kW, the LEAF will only charge at 6.6kW on AC³.

For context, ultra-rapid chargepoints of 150kW and over take many newer models from 20% to 80% in 10 minutes to one hour⁹, and general guidance for rapid and ultra-rapid stations suggests allowing around 40 minutes¹⁰. The LEAF sits at the slower end of that band because of its hardware, not because of the charger.

Nissan's own figure for the LEAF is a DC quick charging time of under 30 minutes for 20% to 80%². Independent guidance gives approximately 43 minutes on a 50kW DC charger, adding roughly 14 to 116 miles of range¹. A practical rule of thumb from one charging guide is that a 45-minute rapid charge usually gets a car from about 20% to 80%⁵.

The 20% to 80% window matters because charging slows sharply above 80% on any lithium-ion battery. Charging to 100% on a rapid charger takes disproportionately longer and is not how the network is designed to be used.

Home charging on a 7kW wallbox: a full charge in about 6 to 7.5 hours

A 7kW wallbox is the standard UK home solution and the one that makes the LEAF practical for most households. Independent guidance gives approximately seven hours from 0% to 100% on a standard 7kW AC home charger¹. A product listing for the LEAF gives 7kW charging to 100% in 7.5 hours³. Nissan's own figure is 7 hours 30 minutes on a 7kW charge point⁴.

For an 80% charge rather than a full one, independent guidance gives around six hours for the 40kWh LEAF on a home charger³. That is the more realistic daily pattern: most owners charge to 80% rather than 100% to reduce time at high state of charge.

The range added per hour is the figure that matters for planning. A 7kW wallbox adds roughly 30 miles of range per hour⁵. General guidance for Level 2 charging, the North American term for the same 7kW class of equipment, gives about 20 to 40 miles of range per hour¹¹. A 40kWh LEAF MkII has a real-world range of 160 miles¹², so a seven-hour overnight charge covers it comfortably.

The wallbox itself is only part of the picture. Installation, electrical capacity and notification to the network operator all bear on what a household can actually run. The EV charging at home guide covers the full process, and electrical requirements for a home EV charge point sets out what the supply needs to support.

Slow charging on a domestic 3.7kW supply: up to 11 hours

A 3.7kW supply is the slowest dedicated circuit a household is likely to have, and it roughly doubles the charge time. Nissan gives 11 hours for a 40kWh LEAF on a 3.7kW charger⁴. Independent guidance for standard chargepoints in the 3.7kW to 8kW band gives five and a half to 11 hours for a full charge⁹, which brackets the same figure.

A three-pin domestic socket is slower again. One maker guide states that three-pin sockets deliver around 2.3kW and that charging an average EV battery could take over 24 hours⁷. Independent guidance is blunter: a three-pin plug can work in a pinch but is very slow, often taking 30 to 35 hours to fully charge depending on the battery⁵. Another guide puts three-pin charging at 6 to 8 hours, which is inconsistent with the rest and appears to describe a much smaller battery¹³.

The practical position is that a three-pin socket is a fallback, not a routine. It adds about 4 to 5 miles of range per hour¹⁴, so an overnight session of ten hours adds 40 to 50 miles. That covers a short commute but not a full recharge.

What the charging time means in miles of range

Charging time only becomes useful when converted into distance. The simplest rule from independent guidance is that the charging power in kW roughly translates to the number of miles added from 20 minutes of charging⁹. A 7kW charger therefore adds roughly 7 miles in 20 minutes, and a 50kW rapid adds roughly 50.

That rule is approximate. Measured figures put a 7kW wallbox at roughly 30 miles of range per hour⁵, and Level 2 charging generally at 20 to 40 miles per hour¹¹. Level 1, the three-pin equivalent, adds about 4 to 5 miles per hour¹⁴.

The rapid figure is not linear because charging rate tapers as the battery fills. The 14 to 116 miles range for a 20% to 80% session on a 50kW charger¹ is wide because it depends on which LEAF battery is fitted and the conditions on the day.

For a household, the arithmetic is straightforward. A 40kWh LEAF with a real-world range of 160 miles¹² needs about 30 miles a day for a typical commute, which is one hour on a 7kW wallbox. The rest of the overnight window is spare capacity, and that spare capacity is what makes time-of-use tariffs and solar charging worth considering. The EV charging running costs page works through the cost side.

Does the 40kWh LEAF charge faster than the 75kWh version?

On the same charger, yes, because there is less energy to replace. Nissan gives 11 hours on a 3.7kW charger for the 40kWh battery⁴, and 6 hours on a 7kW charge point⁴. A larger pack takes proportionally longer at the same power.

The 75kWh LEAF is the newer, longer-range model, while the 40kWh battery remains the smaller option; a 40kWh LEAF takes 11 hours to charge from empty to full on a 3.7kW charger¹, and around 6 hours to reach an 80% charge on a faster home unit². A bigger battery means more miles per charge but also more hours per full charge on any given charger.

The trade-off is not simply about time. A larger battery accepts a higher peak rapid rate in many designs, so the 20% to 80% window can be quicker in absolute terms even though a full charge takes longer. For the LEAF specifically, the DC ceiling of 46kW applies across the range¹, so the rapid advantage of a bigger pack is limited.

For a household choosing between used examples, the question is how much of the battery is used on a typical day. A 40kWh car charged overnight on a 7kW wallbox covers most UK commuting patterns. A 62kWh car reduces the number of rapid charges needed on longer trips, at the cost of a longer full charge at home.

Battery warranty and what it covers

Nissan's published battery warranty covers defects in materials and workmanship for five years or 100,000 kilometres⁶. That figure comes from a 2013 press release and is stated in kilometres rather than miles. Warranty terms vary by model year and market, so the booklet supplied with a specific car is the document that governs any claim.

The LEAF was also sold with battery leasing contracts at one point, alongside the Renault Zoe¹⁵. A used buyer needs to establish whether the battery is owned outright or subject to a lease, because that changes both the running cost and what happens at the end of the term.

Battery condition matters more than warranty paperwork on a used car. State of health testing is the practical check, and the EV batteries and degradation page explains what the figures mean. For charge point warranties rather than car warranties, the EV charge point warranties page covers the equipment side.

Is the Nissan LEAF compatible with vehicle-to-grid charging?

Only on a DC CHAdeMO port with a V2G-capable DC charging station. Nissan's support article states that the LEAF is not compatible for V2G with the PowerPort AC Level 2 charger, and that it can perform V2G charging only on a DC CHAdeMO port with a V2G DC charging station¹⁶.

The LEAF uses Type 2 and CHAdeMO inlets³. Type 2 handles AC charging, and CHAdeMO handles DC. Because V2G on this car runs through the DC path, the AC bidirectional hardware sold for other models is not the route.

Vehicle-to-grid charging allows energy stored in the vehicle's battery to be exported to the grid during periods of high demand¹⁷. For a household, that is the difference between a car that only consumes electricity and one that can earn from it. The vehicle-to-grid and vehicle-to-home page covers the UK position, and V2G earnings sets out what the schemes pay.

The dependence that remains is worth stating plainly. A LEAF charged at home still draws from the grid, still depends on a supplier and a tariff, and its smart charging features depend on the manufacturer's app and connectivity. V2G adds a route to export, but only through a DC charger that supports it, and only where a network offers the service.