Home EV Charger Manufacturers

More than 50 manufacturers supply charging units suitable for EV charging at home in the UK¹. That is a crowded market for what is, electrically, a fairly simple device: a wall-mounted contactor, protective devices, a metering and control board, and a Type 2 connection to the car. The differences that matter to a household are power rating, whether the cable is attached, how well the enclosure survives outdoors, and what the charger's software and app do with tariffs, solar and the home's spare supply capacity.

The installed base is large. Zapmap estimates around 1.4 million chargers at UK homes with driveways as of the end of 2025², while Citizens Advice puts the figure at around 1 million home EV chargers³ and Zapmap counts more than one million charge points installed at home or work⁴. The estimates differ because there is no official register of home charge devices in the UK: the numbers are modelled from past government scheme data, vehicle registrations and survey work². For comparison, the public network reached 121,171 public EV chargers on 1 July 2026⁵. Home charging remains the dominant mode: most electric car charging in the UK is done at home, and 82% of EV drivers have access to charging at home⁶.

Prices for the equipment plus installation are quoted in a fairly narrow band. Which? puts the typical cost to buy and install a home charger at £500 to £1,200, with around £900 for a 7kW unit, as read in February 2026⁷. Planning Portal guidance cites research showing installation costs from £450 for a basic model rising to around £1,200 as power and capability increase⁸.

A market of more than 50 manufacturers

No single body publishes a definitive list of domestic charger brands sold in Britain. The count of more than 50 manufacturers providing home-suitable units¹ sits alongside a vehicle market of 51 manufacturers now offering EVs, so the number of charger brands is broadly comparable to the number of car brands a household might be choosing between. Under the grant schemes that preceded the current arrangements, a list of approved manufacturers and models was published on gov.uk, which was for a long time the closest thing to an official roster of domestic units.

The manufacturers fall into recognisable groups. There are dedicated charging specialists whose only product is the wallbox and its app. There are solar and storage companies adding a charger to an existing home energy range: Sofar Solar lists an AC unit, Fox ESS sells a C Series charger, Enphase offers both an IQ EV Charger and an IQ Bidirectional unit, and Haier's HVAC arm lists an EV charger among its energy products. There are electrical accessory and wiring-device manufacturers, of the kind covered on electrical component manufacturers, bringing a charger into a catalogue of consumer units and switchgear, Sync Energy's Link range being one example. And there are open-source and specialist suppliers such as the emonEVSE, offered in 7kW single-phase and 22kW three-phase forms¹⁰.

For a household, the practical consequence of that variety is dependence. A charger is not a dumb appliance: scheduling, solar diversion and tariff response run through a manufacturer's cloud and app, so the brand's continued existence and its firmware support matter over the life of the unit. That is the same exposure described on firmware updates and product support life.

UK-made and imported: where the units come from

Most brands on the UK market assemble overseas, and no published breakdown of manufacturing country covers the domestic charger sector as a whole. There are British-built exceptions: the VEVA 7.4kW single-phase charger is described as a UK manufactured unit¹¹. Buyers who care about origin have to check model by model, since a British brand name is not evidence of British assembly, a point developed on where home energy products are made.

Origin matters less for the hardware than for support. A charger installed on a driveway is expected to work for years in British weather, and the parts, firmware and warranty handling behind it sit with whoever owns the brand. Where a distributor imports a unit under its own label, the chain between the householder and the factory lengthens. The issues are those set out on manufacturer support and spare parts and manufacturer failures and orphaned products.

Power ratings: 7.4kW single-phase against 22kW three-phase

For a typical UK home, the maximum EV charger power is 7.4kW⁷. That ceiling is set by the supply: most houses have a single-phase connection, and 7kW or 7.4kW is what a 32A single-phase circuit delivers. A 7kW charger is the most common choice for home charging in the UK¹², and most UK homes opt for a 7kW unit compatible with standard single-phase supplies¹³. Which? notes that a 7.4kW charger is what gets reasonable charging times from a domestic installation.

Faster units exist. Mode 3 charging at three-phase runs to 22 kW¹⁴, and home chargers up to 22kW are available but need a three-phase supply, which most homes do not have¹⁵. Where three phases are present, some products cover both: the emonEVSE is offered as 7kW single-phase or 22kW three-phase¹⁰, and one maker's range spans 7kW, 11 kW and 22kW¹⁶. Manufacturer documentation sometimes disagrees with itself on which rating a given model carries, so the rating on the specific unit being quoted is what counts.

Power is also limited by what the house can take. EV chargers and other low-carbon technologies can push a home's electricity demand above the available supply, which may require an upgrade¹⁷. This is why load management features, which throttle charging when the rest of the house is drawing heavily, appear across manufacturer ranges: they let a charger coexist with an electric shower, a hob and a heat pump without tripping the main fuse.

Tethered or untethered: which cable arrangement suits which household

Tethered chargers come with a cable and connector permanently installed, while untethered chargers have only a socket into which the driver plugs their own cable¹⁸. Both arrangements are offered across the market: evec, for instance, makes each single-phase unit available as either tethered or untethered¹⁹.

• Tethered units have a permanent lead and connector attached²⁰. The cable is always there, which suits a household with one car and a settled parking spot, and there is nothing to store in the boot.
• Untethered units present a universal socket, usually Type 2 in the UK²¹. The household supplies the cable, which means a damaged cable is replaced rather than the whole unit, and a different connector can be used if a future car needs one.

Almost all electric cars are supplied by the manufacturer with a cable carrying a Type 2 connector at the charger end²², so an untethered wallbox is usable from day one with most vehicles. On the public network the same pattern holds: most standard AC units are untethered and the driver uses their own cable²³.

The choice has a small independence dimension. A tethered charger ties the household to one connector standard for the life of the unit; an untethered one keeps the interface swappable. Against that, a fixed cable is one less item to lose or forget.

The Type 2 connector and what it means for compatibility

Type 2, also known as Mennekes, is the standard for EVs in the UK and Europe for home and public AC charging²³. The EU mandated that all plug-in cars from 2014 must have a Type 2 socket, which is why it is by far the most common type in the UK⁷. It is described as compatible with nearly all modern EVs²⁴, and most modern electric vehicles sold in the UK use Type 2 for AC home charging²¹. Manufacturer specifications reflect this: the Sync Energy Link charger with metal unit lists a Type 2 plug and a Type 2 single-phase socket²⁵.

For a household this is one of the few genuinely settled parts of the system. A Type 2 wallbox is not tied to a car brand, so replacing the vehicle does not usually mean replacing the charger.

Weatherproofing and build: IP54 minimum, IP65 and IK10 in practice

Outdoor EV chargers must be rated at least IP54, and most commercial units are IP54 or IP65 as standard⁹. IP is the ingress protection rating for dust and water; IK is the impact rating, with IK10 the highest figure commonly quoted on domestic units.

Materials follow the rating. The Sync Energy Link charger with metal unit uses an aluminium housing on a polycarbonate base with a matt finish, and measures 568x247x151mm²⁵. Aluminium housings are common on units intended for exposed walls, where an all-plastic enclosure is more vulnerable to impact and ultraviolet degradation over a decade outdoors.

Ratings within a maker's own literature are not always consistent, with the same charger described as IP65 in one place and IP54 in another, so the datasheet for the exact model is the reference. For context on how to read such figures like for like, see comparing manufacturer specifications. Note that a general-purpose outdoor wall socket is expected to carry IP66 or above, a stricter threshold than the IP54 minimum applied to chargers²⁹.

Protective devices are increasingly built into the charger rather than the consumer unit. The Sync Energy Link with metal unit integrates a surge protection device, a 40A MCB and Type A protection, with a rated trip current of 30mA AC plus 6mA DC²⁵. Whether protection sits inside the wallbox or in the board affects the installation cost and the electrician's design, which is why two quotes for nominally similar chargers can diverge.

Smart features: app control, solar diversion and tariff sensing

Smart functionality is not optional. All new home chargers sold in the UK must meet smart functionality requirements²⁴, a point returned to below.

In practice the differences between brands lie in what the smart layer does. Three capabilities recur across the market:

1. App control and scheduling. Manufacturers pair each charger with an app: the Sync Energy Link range is managed through the Sync Energy app³⁰, and dynamic scheduling is listed among the features worth looking for in a solar-integrated charger³¹.
2. Solar diversion. Some chargers have modes that charge the car only from the extra solar energy the house is not using and would otherwise export²⁰. Smart chargers monitor real-time solar production, adjust charging speed accordingly, and switch between solar and grid supply as availability changes³². A solar-aware charger increases charging speed when surplus is available³³. The Sync Energy Link offers Auto Solar Charging³⁰.
3. Tariff response. Chargers that read the household's tariff shift load into cheap windows. The Sync Energy Link calls this Tariff Sense³⁰. The supply side has expanded to match: smart time of use tariffs are offered by British Gas, E.ON Next, EDF Energy, Octopus Energy, Ovo Energy and Scottish Power, as well as smaller firms including 100Green, Fuse Energy, Good Energy and So Energy³⁴.

Communications determine whether any of this works. Units list Wi-Fi, LAN and optional 4G³⁰; Wi-Fi, Ethernet, Bluetooth, CAN and 4G LTE³⁵; 4G, Ethernet, Wi-Fi and Bluetooth¹⁶; or Wi-Fi, Zigbee and Bluetooth³³. The Sync Energy Link with metal unit is specified for Wi-Fi, LAN and 4G²⁵. A cellular fallback removes the dependence on household broadband but adds a dependence on the manufacturer's data arrangement.

The smart charging rules every new home charger must meet

The Electric Vehicles (Smart Charge Points) Regulations 2021 require all charge points sold in Great Britain for private domestic or workplace use to have smart functionality, to help manage the increase in electricity demand from the switch to electric vehicles³⁷. Put more directly, domestic EV chargers must be smart, meaning capable of responding to signals to shift charging to off-peak periods⁹. New home chargers sold in the UK have had to meet smart functionality requirements since 2022²⁴, and all new chargers need to be able to charge when demand on the grid is lower or more renewable electricity is available⁷.

A separate timetable applies through the EU's Alternative Fuels Infrastructure Regulation, under which smart charging, digital metering and vehicle communication are required from 2027. Enphase states that many chargers will need significant redesigns to comply and that its IQ EV Charger 2 is already built with those requirements in mind³⁵.

Certification sits alongside the regulations. The BSI Kitemark for Smart EV Chargers is built on the UK Smart Charge Regulations together with ETSI EN 303 645 and IEC 61851-1³⁸, and BSI offers testing and certification for charge points for both home and commercial use³⁹. Renewable Energy Assurance Limited operates the EV Consumer Code for Home Chargepoints, which sets and enforces standards for domestic chargepoint suppliers⁴⁰. More on these marks is on manufacturer certification and approvals.

Installation rules are separate from product rules. All home EV charger installations in the UK must comply with the IET Wiring Regulations (BS 7671), be carried out by a qualified electrician, and adhere to building regulations and local planning requirements²¹. In England, home EV chargers, public charging points and business installations now fall under permitted development rights⁴¹.

What a home charger costs, and the grant that exists

Published figures cluster between roughly £450 and £2,000 depending on what is counted and how complex the installation is.

Three-phase units are the most expensive class of home charger⁷, and where the supply already exists the hardware itself need not be dear: evec lists a 22kW three-phase untethered commercial charger at £579.99 including VAT and a 22kW three-phase tethered unit at £689.98 including delivery¹⁹. Those are hardware prices from a maker's own listing and exclude installation. The maker's pages quote slightly different figures for the same models depending on whether delivery is included, so the total at checkout is the number that matters.

The remaining grant is narrow. The electric vehicle chargepoint grant offers up to £350 per socket for residential landlords, people living in flats and people who rent their homes⁴⁵; Uswitch notes that this can reduce the installation cost to as low as £650⁴³. Homeowners with driveways are outside that scheme.

Home charging as a piece of household energy independence

Charging at home changes the household's relationship with transport fuel rather than removing it. The car stops being refuelled at a forecourt and starts being fuelled through the domestic meter, on the household's own tariff, at times the household controls. That is real: 82% of EV drivers have access to charging at home⁶, most charging in the UK is done at home⁴⁶, and the public network of 121,171 chargers is a backup rather than the primary source for those drivers⁵. Of those public units, 33% are classed as on-street⁵, which matters chiefly for households without a driveway.

What remains is a chain of dependencies, and they are worth stating plainly:

• The grid and a supplier. Even with solar, year-round EV charging in the UK cannot be covered by panels alone³², and the cheapest charging depends on a time of use tariff from one of the suppliers offering them³⁴.
• The supply capacity of the property. A charger can exceed what the connection allows, requiring an upgrade¹⁷. This is where load management hardware earns its place.
• The manufacturer's cloud and app. Scheduling, solar diversion and tariff sensing run through the brand's software and a Wi-Fi, LAN or 4G link³⁰.
• Regulatory direction. Smart functionality is now a legal requirement for new units in Great Britain³⁷, and further requirements on metering and vehicle communication are set for 2027³⁵.

Where solar is present, the pairing is genuinely productive: a charger with a solar diversion mode converts surplus generation that would have been exported into miles²⁰, which is the same logic that makes a home battery worth having. But the car is a large, intermittent load, and the honest position is that a home charger reduces the cost and increases the control of the energy a household buys rather than replacing it. The wider argument is set out on manufacturers and household energy independence, and comparisons of specific domestic brands are covered on Ohme vs Pod Point, Ohme, Pod Point and Myenergi.