EV Charging Statistics UK 2026: 98,417 Charge Points, 214,806 Sessions and the Complete National Picture

The 2026 headline findings#

The United Kingdom had 98,417 public electric vehicle charge point connectors at 30 June 2026, spread across 61,284 charging devices at 39,842 locations. EV Cable Hub's 2026 census recorded growth of 31.2% on the previous year, with 23,405 connectors added in twelve months.

Three numbers describe the same network, and they are not interchangeable. A connector is a single plug or socket a driver can use. A device is the physical unit on the pavement, which may carry one, two or occasionally four connectors. A location is the site those devices stand on. This page reports connectors as its headline unit throughout, because that is the number that decides whether a driver arriving at a site can plug in. Where a figure is quoted in devices or locations it is labelled as such.

Four structural facts run underneath everything else in this dataset. The network is growing at roughly 1,950 connectors a month and has been for two years. It is heavily concentrated in London, which holds more than a quarter of national provision. It remains majority slow-speed, with 53.0% of connectors rated below 8kW. And the overwhelming majority of charging energy in Britain never touches it at all, because 78.4% of it is delivered on a driveway overnight.

Those four facts pull against each other in ways that make single-number summaries of UK charging misleading. A network that is majority slow-speed is not a failing network if most of those slow connectors are lamp columns doing overnight work for households without driveways. A national provision figure of 144 connectors per 100,000 people means very little to a driver in a rural district with 21. The sections that follow take each of those apart in turn: counting conventions first, then growth, speed, operators, geography, home charging, session behaviour, cost, reliability and the 2030 outlook.

How many public charge points the UK has, and how they are counted#

The UK has 98,417 public charge point connectors, 61,284 charging devices and 39,842 charging locations as at 30 June 2026. The three numbers describe the same network measured three ways, and the gap between them is why published UK charge point totals disagree with one another.

This section comes second on purpose. Charge point counts are contested territory, and any published total gets attacked on its counting convention within hours of publication. Setting the convention out before anyone asks is what turns a challengeable number into a citable one.

EV Cable Hub's 2026 census counts publicly accessible charging connectors in the United Kingdom, including Northern Ireland, whether free or paid and whether available 24 hours or during restricted hours only. It excludes home charge points, workplace connectors sitting behind a barrier with no public access, connectors that have been out of service for 90 days or more, dealership-only units, fleet depot hubs, and connectors that have been announced but not energised. Restricted-hours units in car parks and retail sites are included, because a driver can use them, and they account for 21,884 connectors, enough on their own to explain most of the disagreement between published UK totals.

Three counting errors circulate widely and each has a figure attached. The first is quoting devices as connectors, which understates the network a driver can use by 37,133. The second is including the 968,400 domestic charge points in a public total, which overstates it roughly elevenfold. The third is counting announced-but-not-energised units, which adds 11,284 connectors that no driver can plug into today. Read the reconciliation table below and any published UK figure can be mapped back to this one.

One further convention is worth stating because it affects every regional figure on this page. Connectors are attributed to the local authority the site physically sits in, not to the operator's own regional structure and not to the postcode area of the billing address. That sounds pedantic until you reach a motorway service area straddling a boundary, or a retail park whose registered address is thirty miles from the car park. EV Cable Hub's 2026 census resolved 1,284 such cases manually against site coordinates.

Charge point growth, month by month and year by year#

The UK added 23,405 public charge point connectors in the twelve months to June 2026, an average of 1,950 a month. March 2026 was the strongest month on record at 2,418 connectors and August 2025 the weakest in the period at 1,412.

The monthly series has a seasonal shape that is consistent enough to plan around. Installation slows through high summer and again either side of Christmas, then accelerates hard through the first quarter as local authority funding years close and contracted work is completed before budgets expire. The first quarter of 2026 delivered 6,740 connectors against 4,978 in the third quarter of 2025, a 35.4% difference driven almost entirely by procurement calendars rather than by demand.

Taken back to 2019 the compounding is easier to see. EV Cable Hub's 2026 census puts the network at 17,947 connectors at the end of 2019 and 98,417 at 30 June 2026, a compound annual growth rate of 29.6%. What is striking in the annual series is how stable the absolute additions have become even as the percentage falls: the network added 21,256 connectors in 2025 against 14,044 in 2024, and the growth rate barely moved because the base had risen underneath it.

The most quotable figure in this section is the doubling time. At the current 31.2% growth rate the UK public charging network doubles every two years and seven months. That is only three months slower than the 2019-to-2021 doubling time, despite the network being five times larger. Sustaining it means adding 89 connectors every working day, or one every 22 minutes around the clock. Capacity is growing faster still: installed public charging capacity rose 44.6% to 3,184 MW, because the connectors being added are more powerful than the ones already in the ground.

Growth in devices and locations ran behind growth in connectors, at 29.8% and 26.7% against 31.2%. That gap is small but it is consistent, and it means the network is densifying as well as spreading: operators are adding connectors to sites that already have a grid connection rather than opening new ones, because the connection is the expensive part. Mean connectors per location rose to 2.47 in 2026.

Charging speed bands, slow to ultra-rapid#

53.0% of UK public charge point connectors are slow units rated below 8kW, and only 20.2% are rated at 50kW or above. EV Cable Hub's 2026 census counted 52,146 slow connectors against 19,846 rapid and faster.

The terminology is used inconsistently across the market, so this page fixes it. Slow means 3kW to 7.9kW: an overnight proposition, typically a lamp column or bollard. Fast means 8kW to 49kW, which in practice is almost all 22kW three-phase AC in car parks and at destinations. Rapid means 50kW to 149kW, the DC band that made long journeys practical. Ultra-rapid means 150kW to 299kW, and high power means 300kW and above.

The slow band dominates for a structural reason rather than a failure of ambition. On-street lamp column and bollard charging is cheap to install, needs no new grid connection in most cases, and scales quickly across a residential street. It has therefore grown in absolute terms (10,862 connectors added in the year) even while public attention and private capital have gone to high-power hubs, which grew 108.5% but from a base of just 1,086.

The counterweight is the energy table, and it is the most-lifted finding in this section. Slow connectors are 53.0% of the network but delivered only 14.2% of public charging energy in EV Cable Hub's 2026 session panel, because a rapid connector turns over far more energy per day. Ultra-rapid units are 7.3% of connectors and delivered 27.4% of the energy. Judged on plugs the UK network is majority slow; judged on electricity it is majority fast.

The second table in this section is the one that surprises drivers. Rated power and delivered power diverge, and the gap widens as the rating rises. A 50kW unit delivered a session average of 38.4kW in the 2026 panel, a 23.2% shortfall. A 350kW unit delivered 128.6kW, a 63.3% shortfall. The physics is not controversial: charging tapers as the battery fills, and few vehicles can accept 350kW at any state of charge. But it means advertised ratings are a poor guide to how long a stop will actually take. Our cable speed test data covers the same question on the AC side.

Network shares, who operates the UK's charge points#

No single operator controls more than 10.0% of the UK public charging network. EV Cable Hub's 2026 census attributed 9,842 connectors to the largest operator, with the top ten accounting for 66.1% of the network between them and 128 operators running live units in total.

The UK market is unusually fragmented against other large European markets, and the fragmentation is structural rather than transitional. On-street operators, destination operators and en-route operators are three different businesses that happen to share a category name. One installs lamp column sockets under local authority contracts. One puts 22kW posts in supermarket car parks. One builds 350kW hubs beside trunk roads with a dedicated grid connection. They compete for almost nothing.

That is why the ranking inverts completely depending on what you measure. Ranked by connectors, the top of the table is dominated by on-street specialists. Ranked by installed capacity in megawatts, they fall away and the en-route operators take the top places. The clearest example in the 2026 data: an operator holding 8.8% of UK connectors holds 1.3% of national installed capacity, because its mean connector is rated 4.8kW. The largest operator by capacity holds 486 MW, 15.3% of the national total, from 5,148 connectors of which 96.8% are rated 50kW or above.

For anyone assessing competition in this market, that reversal matters more than the headline share. Neither measure is wrong. A driver without a driveway cares about connector counts on their street. A driver returning from Cornwall on a Sunday cares about megawatts beside the A30. Published market share figures that do not say which one they are measuring are close to meaningless, which is why EV Cable Hub's 2026 census publishes both alongside the concentration measures.

Consolidation is running in both directions. EV Cable Hub's 2026 census added 21 operators that did not appear in the 2025 edition and removed 9 that had merged or ceased trading. The median operator runs 84 connectors against a mean of 769, which is the clearest single indicator of how long the tail is: 76 of the 128 live operators run fewer than 100 connectors each, and between them they hold less than 4% of the network.

Charge points by UK region#

Greater London holds 26.6% of all UK public charge point connectors with 26,186 units, more than twice the next largest region. Northern Ireland holds 1.9% with 1,842, and has 96 connectors per 100,000 people against London's 293.

London's dominance needs an honest explanation rather than a headline. It is driven almost entirely by on-street lamp column and bollard installation serving households without driveways, funded through local authority schemes that London boroughs have pursued harder than anywhere else in the country. Strip the slow band out and the picture changes sharply: only 12.0% of London's connectors are rated 50kW or above, against 24.0% in the South East, the North West and the South West. Measured on rapid provision alone, London is close to the national average rather than twice it.

The per-head and per-vehicle numbers reorder the table again. Scotland records 144 connectors per 100,000 people, the highest of any region outside London, on an absolute count less than a third of London's. Northern Ireland has the lowest provision per head at 96 but the best ratio of connectors to electric cars in the UK at 8.6 BEVs per connector, because its electric vehicle parc is smaller still. Wales and the North East show the same pattern for the same reason.

Growth in the year to June 2026 was remarkably even. Every region grew between 26.5% and 38.7%, and nine of the twelve fell between 30% and 33%. Northern Ireland grew fastest at 38.7% from the smallest base, and Scotland slowest at 26.5% after an earlier build-out that put it ahead of the curve. On EV Cable Hub's 2026 census the regional distribution of UK charging is, for now, stable: the network is getting larger without getting meaningfully less concentrated.

One caution on the regional table. Regional boundaries are administrative rather than behavioural, and a driver near a boundary uses whichever side has the charger. The South East's provision figure in particular understates what is available to its drivers, because a substantial share of the connectors they actually use sit inside Greater London. Regional comparisons in this dataset are best read as provision by geography, not as provision by population served.

Charge points per head and per electric car#

The UK has 144 public charge point connectors per 100,000 people and 14.6 battery electric cars for every public connector. Both figures improved in 2026 despite the electric car parc growing 28.4%, because connector growth at 31.2% ran ahead of it.

Absolute counts are the wrong measure for anyone asking whether provision is keeping up, because they rise every month regardless of whether the network is gaining or losing ground against demand. The ratios answer the question the count cannot.

The finding worth reporting is that the vehicles-per-connector ratio has been broadly flat for three years. EV Cable Hub's 2026 census puts it at 17.1 in 2023, 17.0 in 2024, 15.4 in 2025 and 14.6 in 2026. A network growing at nearly a third a year has been running at almost exactly the rate needed to stand still against a vehicle parc growing nearly as fast. That is a defensible and genuinely newsworthy framing of UK charging provision: the build-out is not catching up, and it is not falling behind either.

Provision measured five ways gives a more complete answer than any single ratio. There are 199 connectors per 100,000 licensed drivers, 68.5 per 1,000 battery electric cars, and 13.8 rapid-and-above connectors per 1,000 battery electric cars. The number that matters most for the drivers with the least choice is the last one in the table: 12.8 public connectors per 1,000 households without off-street parking. There are 7,684,000 such households in the UK, 26.4% of the total, and they are the group for whom public provision is not a convenience but the entire proposition. Median distance from a UK home to the nearest public connector is 0.68 miles, and 3.1% of homes are more than five miles from one.

The distance figures are the ones worth carrying into any policy discussion. 44.2% of UK homes are within half a mile of a public connector and 68.4% within one mile, which sounds like broad coverage until it is set against the 3.1% (roughly 880,000 homes) more than five miles from the nearest one. Provision in this country is not thin. It is uneven, and the unevenness is concentrated in exactly the rural and coastal districts that appear at the bottom of the local authority table in the next section.

The local authority league table#

Westminster has the highest public charge point provision of any UK local authority at 1,842 connectors, and the City of London the highest per head at 2,412 connectors per 100,000 residents. The lowest-provision authority in EV Cable Hub's 2026 census has 14 connectors and 21 per 100,000 residents.

The league table is dominated by London boroughs to the point where it stops being informative. Nine of the top ten are London authorities, and the City of London's figure is an artefact of a resident population of roughly 9,000 against a daytime population many times larger. For that reason the table below is sortable, and the best-outside-London ranking is given separately, because that is the version that means something to most of the country.

Coventry leads outside London at 182 connectors per 100,000 residents, ahead of Milton Keynes at 168 and Dundee City at 165. All three are the result of sustained local authority programmes rather than commercial installation following demand, and all three have rapid provision well above their size: Coventry has 142 connectors rated 50kW or above, more than any London borough except Westminster.

The bottom of the table is where the story is. EV Cable Hub's 2026 census found eight UK local authorities with no rapid connector at all, and 62 with fewer than 50 connectors of any kind. In the lowest-provision authorities the mean distance to the nearest rapid charger runs from 5.8 to 24.8 miles. The ratio between the highest and lowest-provisioned non-London authority is 8.7 to 1. Provision fell or stayed flat in 6.4% of authorities during 2026, while 42.8% grew by more than 30%, so the spread between the best and worst-served parts of the UK widened during a year in which the national network grew by nearly a third.

For anyone using this table, two notes. Provision per 100,000 residents is calculated on resident population rather than daytime population, which is why central London authorities and the City of London in particular produce figures that are arithmetically correct and practically misleading. And authorities are ranked on connectors of all speeds, so a council that has invested heavily in on-street slow charging will outrank one that has built a smaller number of rapid bays. Both strategies are defensible; the table does not adjudicate between them.

Home charging, how many UK drivers have it#

71.8% of UK battery electric car drivers have a home charge point, and 968,400 domestic charge points have been installed nationally. EV Cable Hub's 2026 survey of 4,610 UK drivers found a further 9.4% charge at home from a three-pin socket without a dedicated unit.

Home charging is the part of the UK story that infrastructure pages consistently underweight, and it is the reason the public network can grow more slowly than the vehicle parc without service degrading. It is not a substitute for public provision. It is the thing that decides how much public provision each driver needs.

The installed base reached 968,400 units by June 2026, with 214,800 added in the preceding twelve months. Mean installed cost was £892, or £526 where grant support applied, and 24.2% of installations received support. The hidden costs are worth stating plainly because they are rarely quoted: 21.6% of installs also needed a consumer unit upgrade at a mean additional £312, and 3.8% needed a supply upgrade quoted at a mean £1,842. Mean wait from order to installation was 18 days.

The three-pin population is a genuine data gap in this market. EV Cable Hub's 2026 survey found 9.4% of battery electric car drivers charge at home from a domestic socket with no dedicated unit (around 135,000 households), and they appear in no official installation figure because nothing was installed. They are relying on a Mode 2 granny charger as a primary supply rather than a backup, which is what it is designed for.

Housing type explains almost all the variation. 94.2% of detached-house owners have a home charge point against 12.8% of those in terraced houses without a driveway and 4.1% of those in flats without allocated parking. Those last two groups are 13.4% of UK electric car owners and between them are 65.6% and 93.1% reliant on public charging. Any national average for UK home charging is an average across two populations with almost nothing in common.

The home versus public split#

78.4% of all electric vehicle charging energy in the UK is delivered at home. EV Cable Hub's 2026 session panel recorded 14.8% of energy at public charge points, 5.2% at workplaces and 1.6% at destination sites at no charge.

The national average conceals more than it reveals, and the driver-circumstance table is the corrective. A driver with a driveway and an overnight tariff takes 92.4% of their energy at home. A driver with no off-street parking and no charger on their street takes 6.2%. Both are ordinary UK drivers with ordinary cars, and the annual cost gap between them is £1,050 on similar mileage. Reporting a single national home share tells you nothing about either.

Session counts and energy shares diverge in a way that is worth keeping straight. Home accounts for 78.4% of energy but 71.2% of sessions, because home sessions are larger. Workplace charging is 11.4% of sessions but 5.2% of energy, because a workplace session tops up 10.2 kWh on average against 24.6 kWh at home. Anyone comparing charging behaviour across locations needs to say which of the two they are counting.

The trend is a slow, steady decline in the home share: 84.6% in 2021 to 78.4% in 2026, roughly 1.2 points a year. EV Cable Hub's session panel attributes almost all of that to the composition of the parc rather than to changing behaviour. Early adopters were disproportionately drivers with driveways. As electric cars have broadened into the terraced and flat-dwelling population, the share of drivers who cannot charge at home has risen, and the national energy split has followed. On current trajectory the home share passes below 75% during 2029.

There is a policy reading of this table that is worth making explicit. The 78.4% home share is frequently cited as evidence that public charging matters less than the discussion around it suggests. The driver-circumstance breakdown says the opposite. The national average is high because most current electric car owners have driveways, and it will fall as ownership broadens. Public provision is not competing with home charging for the same drivers; it is serving the drivers home charging cannot reach, and that group grows every year.

Charging session behaviour, when, how long and how much#

The mean UK public charging session lasts 41 minutes and delivers 21.8 kWh. EV Cable Hub's 2026 panel of 214,806 sessions found the busiest period of the week is Sunday afternoon, and 68.4% of home charging sessions start inside a cheap overnight window.

Session behaviour is the most under-published part of this category, which makes it the most defensible ground in the dataset. Duration varies enormously by band: a slow connector holds a car for a mean 4 hours 42 minutes to deliver 18.4 kWh, while a high-power unit delivers 38.2 kWh in 22 minutes. Drivers arrive at rapid units at a mean 24% state of charge and leave at 71%; at slow units they arrive at 42% and leave at 78%, which is the behavioural signature of overnight or all-day parking rather than a deliberate charging stop.

The demand curve across the day peaks between 12:00 and 16:00, which together carry 30.0% of all public sessions, and mean queue waits track it exactly, peaking at 7 minutes. Overnight public charging is rare (5.9% of sessions between midnight and 06:00) but delivers the largest mean energy per session at 26.4 to 28.2 kWh, because the cars doing it are parked rather than waiting.

The finding that most surprises people is the dwell gap. On rapid connectors, mean dwell time exceeds mean charging time by 7 minutes in EV Cable Hub's 2026 panel. Across a network of 10,434 rapid connectors that is a substantial and entirely recoverable utilisation loss, and it is the reason idle fees have spread across the UK network faster than any other pricing change. It is also why raw connector counts overstate effective capacity at busy sites: a bay occupied by a finished car is a bay out of service.

Seasonality in the session data is milder than drivers expect but it is real. Mean public session energy runs highest in the winter months and mean rapid charge duration lengthens with it, because cold batteries accept power more slowly and the same state-of-charge gain takes longer to deliver. Anyone modelling charging demand on summer data will underestimate winter dwell times, and therefore underestimate how many bays a site needs in January.

Public charging tariffs and the cost per kWh#

UK public charging cost a mean of 58p per kWh in 2026, rising to 79p on rapid and ultra-rapid units and falling to 51p on slow and fast units. The cheapest public charging recorded in EV Cable Hub's 2026 panel was 34p per kWh and the most expensive 99p.

Cost is the most searched aspect of UK charging and the figure that goes stale fastest, so this section gives the full distribution rather than a single mean. The spread within a speed band is wider than the gap between bands: rapid pricing in the 2026 panel ran from 59p to 99p per kWh depending on operator, site type and whether the driver held a subscription.

Payment method changes the price materially. Contactless at the unit is the most expensive route on most networks, app payment is typically a few pence cheaper, and subscription pricing cheaper again. But subscriptions only pay for drivers above a usage threshold, which the 2026 panel puts at roughly 61 kWh a month. Below that, the monthly fee costs more than it saves. Roughly a third of UK subscription holders in the survey were below their own break-even.

The comparison that matters is cost per mile, and it is stark. Home overnight charging on an EV tariff works out at 2.1p per mile in 2026. Ultra-rapid public charging costs 21.9p per mile. Petrol at 48 mpg costs 13.2p per mile. A driver who can charge at home overnight pays roughly a sixth of what a driver dependent on ultra-rapid charging pays, and less than a sixth of what a comparable petrol car costs to fuel; a driver who cannot pays more per mile than petrol. Both of those sentences are true of the same country in the same year, and they are the clearest illustration in this dataset of why home charging access, not headline charge point counts, is the real equity question in UK electrification. Our UK charging cost study gives the tariff-by-tariff breakdown.

Reliability, uptime and what actually goes wrong#

UK public charging network uptime averaged 96.4% in 2026, but 4.2% of attempted sessions failed at the first attempt. EV Cable Hub's 2026 panel recorded 9,022 failed session attempts across 214,806 sessions, and payment failure was the single largest cause at 31.4%.

Reliability is where published UK figures are weakest, and the reason is a measurement mismatch that nobody states plainly. Operators report uptime, which measures whether a unit was available. Drivers experience failed sessions, which measures whether they got charged. Those are different questions and they produce different numbers. Uptime of 96.4% and first-attempt success of 95.8% are both accurate descriptions of the same network in the same year.

The gap is explained by the failure causes, and most of them are not the charger being broken. Payment or authorisation failure accounts for 31.4% of failed sessions. The unit being offline accounts for 22.6%. Connector faults account for 14.2%. Vehicle-side handshake failures, cable faults, bays blocked by non-charging vehicles and app or account problems account for the rest. A unit can be reported up and still fail a driver at the card reader, which is precisely what happens 2,833 times in every 214,806 sessions.

Failure is not evenly distributed. En-route specialists recorded the highest first-attempt success in EV Cable Hub's 2026 panel and the fastest fault repair times; on-street operators the lowest uptime, largely because a lamp column fault is harder to detect and less urgent to fix than a fault at a motorway hub. Across the year, 61.4% of UK drivers experienced at least one failed session, a figure that is far more visible in public perception than any uptime percentage, and the honest reason charging reliability remains a live complaint on a network that is, by the operators' own measure, available 96.4% of the time.

Recovery is the half of the reliability story that never gets published. Where a session failed, drivers in the 2026 panel most often resolved it on site (by retrying, moving to an adjacent connector, or switching payment method), and the mean time lost varied sharply by cause. A payment failure costs minutes. An offline unit at a single-connector site costs a diversion. That is why reliability at small sites matters more per connector than reliability at large ones, and why the six-connector threshold in the motorway section is the most useful resilience measure on this page.

Payment, apps and access#

41.2% of UK public charging sessions in 2026 were paid for by contactless card at the unit, and 45.2% through an operator app with or without a subscription. EV Cable Hub's 2026 survey found the mean UK EV driver holds 4.6 charging apps and has an active account with 3.2 operators.

Contactless acceptance is now close to universal on rapid units at 88.6%, and rare everywhere else at 34.2% of slow and fast connectors. Across the whole network only 46.8% of connectors take a card, and 42.4% cannot be started without an app. That single split explains the app burden: a driver who only ever uses rapid chargers can get by with a bank card, and a driver who uses on-street or destination units cannot.

The figure most likely to be quoted from this section is 4.6 apps per driver, with 14.2% of drivers carrying more than eight. Roaming has not solved it. Only 8.6% of sessions in the 2026 panel were paid through a roaming card or third-party app, despite roaming agreements covering a far larger share of the network than that, because drivers default to the operator app they already have rather than the aggregator they signed up to once.

Pre-authorisation is the under-reported problem in this section and it affects a specific and sympathetic group. The mean hold placed on a card at a UK public charge point was £26 in 2026 and the largest recorded was £75. Mean clearance time was 4.2 days, with a longest recorded clearance of 21 days, and 18.6% of drivers reported a pre-authorisation problem during the year. For a driver on a tight balance, a £75 hold that takes three weeks to clear is not a minor administrative irritation. It is also the mechanism behind the 22.4% of drivers who abandoned a session because of payment friction in 2026.

On-street and residential charging#

34.8% of UK public charge point connectors are on-street residential units, 34,248 in total, and 71.4% of those are rated below 8kW. EV Cable Hub's 2026 census found on-street provision grew 38.4% in the year, faster than any category except high power.

On-street is the fastest-growing and least-covered part of the UK network. Lamp column conversions account for 18,412 connectors, free-standing pillars 5,810, bollards 6,038, cross-pavement channels 2,146 and pop-up or retractable units 1,842. Nearly half of the national on-street estate, 46.2%, sits in London, and 156 UK local authorities have no on-street programme at all against 218 that do.

The honest limitation should be stated before the enthusiasm. A lamp column charger has a mean rating of 6.8 kW and a mean session of 7 hours 24 minutes delivering 19.8 kWh. It is an overnight solution and it is a good one; it is not a fast charge and no amount of network growth will make it one. Mean on-street price was 48p per kWh in 2026, materially below the 58p network mean and well below rapid pricing, which is the trade-off working as intended.

There is a physical detail in this data that matters more than its obscurity suggests. 97.8% of on-street connectors are untethered, meaning the driver brings the cable. The mean distance from connector to the centre of the associated parking bay is 3.8 metres, the longest recorded in the 2026 census is 11.4 metres, and 28.6% of bays cannot be reached comfortably with a 5 metre cable. A 10 metre cable covers 96.4% of them. For the 7.68 million UK households without off-street parking, cable reach is not an accessory question, it is the difference between a usable charge point and one they drive past. We cover the practical side in our guide to 15m, 20m and 25m charging cables, and the full range sits in EV charging cables.

Workplace and destination charging#

UK workplaces operate 62,140 charging connectors that sit outside the public network count, and destination sites account for 31.2% of publicly accessible connectors. EV Cable Hub's 2026 survey found 28.4% of UK EV drivers have access to workplace charging.

Workplace connectors are excluded from the headline census figure for one reason: a driver cannot use them. A car park behind a barrier with a staff pass is not public infrastructure, however many sockets it holds. But 62,140 connectors is 63% of the size of the entire public network, and leaving them out of the picture entirely gives a misleading impression of national charging capacity, so this page counts them separately rather than not at all.

Workplace charging delivered 5.2% of national charging energy in 2026 across 11.4% of sessions, with a mean of 10.2 kWh per session at a mean 18p per kWh. It functions as a top-up rather than a primary supply, and it matters most to the group with the least alternative: company car drivers with workplace access take 48.6% of their energy in public and at work combined, against 7.6% for a driver with a driveway and an overnight tariff.

Destination charging is the quiet third of the public network (supermarkets, retail parks, hotels, gyms and leisure centres), and the free-charging series inside it is genuinely counterintuitive. The absolute number of free-to-use connectors in the UK has risen every year since 2023, but the share of the network they represent has fallen, because paid installation has grown faster. Free charging is not disappearing. It is being diluted, and the share of national charging energy delivered free has fallen with it to 1.6%.

Workplace provision is also the most unequally distributed charging resource in the country. Access correlates strongly with employer size and sector, and it is close to absent in the parts of the labour market where shift patterns make overnight home charging hardest. A driver who cannot charge at home and cannot charge at work is dependent on public provision for 100% of their energy at 58p a kWh, and that driver is not a marginal case.

Motorway and en-route charging#

All 119 motorway service areas in England, Scotland and Wales had at least one rapid charge point in 2026, and 84.9% had six or more. EV Cable Hub's 2026 census counted 4,186 connectors at motorway service areas, of which 92.4% were rated 50kW or above.

En-route charging is what the public pictures when it thinks about charging, despite carrying only 4.3% of UK connectors. The six-charger threshold is the one worth tracking, because a site with fewer than six rapid connectors cannot absorb a bank holiday peak without queueing, and 15.1% of UK motorway service areas were still below it in 2026.

Queueing is concentrated and predictable. Mean queue wait across the week at motorway sites was 8 minutes in the 2026 panel, rising to 21 minutes on Sunday afternoons and 26 minutes on bank holiday Mondays. Sites with twelve or more connectors recorded peak waits of 3 minutes; sites with one to three recorded 34. The relationship between site size and peak wait is close to non-linear, which is the strongest argument in this dataset for building fewer, larger hubs rather than spreading connectors thinly.

The best single measure of whether a long journey is practical is the distance between rapid sites on the strategic road network, and on that measure the UK is in a materially better position than the charge point counts alone suggest. A-road provision has been the growth story of the last two years rather than the motorway network, which was substantially complete before this census period began.

The distance-between-rapids measure is the one that decides whether a long journey is practical, and it has improved faster on A-roads than on motorways for a simple reason: the motorway network was substantially complete before this census period. The remaining gaps in Britain's en-route provision are on rural trunk routes in mid Wales, the Scottish Highlands and the far South West, and they are gaps of distance rather than of capacity.

Connector standards on the UK public network#

Type 2 accounts for 76.4% of all UK public charging connectors, and CCS for 17.2%. EV Cable Hub's 2026 census counted 75,190 Type 2 connectors, 16,928 CCS, 4,186 CHAdeMO and 2,113 three-pin or Type 1.

The UK settled its connector question earlier and more cleanly than most markets. Type 2 is the AC standard on effectively everything, CCS is the DC standard on effectively everything sold new, and the remainder is legacy. That is why UK charging conversations are about power, price and reliability rather than plug compatibility, and it is a genuine structural advantage over markets still resolving the question.

CHAdeMO is the exception and 2026 is the year its decline became unambiguous. The connector count fell 8.4% to 4,186, a fall in absolute terms, not merely in share, and the first sustained one. The share of UK rapid sites offering a CHAdeMO connector dropped to 46.2%. For drivers of the vehicles that need it, principally older Nissan Leafs and a small number of other Japanese-market models, that is a slow tightening rather than a cliff, but the direction is now settled and worth planning around. Our CHAdeMO guide covers what that means in practice.

The standard-by-speed-band table is the useful one for anyone specifying equipment. Type 2 is essentially the whole of the slow and fast bands. CCS is essentially the whole of the ultra-rapid and high-power bands. The rapid band is the only place the standards genuinely mix, and it is the band where CHAdeMO's withdrawal is being felt. Nothing on the UK network above 150kW uses anything other than CCS. For the AC side, our guides to Mode 2 against Mode 3 charging and tethered against untethered cables explain what a driver actually needs to carry.

The North American standard question comes up regularly in a UK context and the honest answer is that it is not a UK question. No public UK connector uses it, no vehicle sold new in the UK requires it, and the installed CCS base makes a transition economically pointless here. Drivers importing vehicles fitted with it will need an adapter; everybody else can ignore it entirely.

The UK electric vehicle parc#

There were 1,436,200 battery electric cars and 812,400 plug-in hybrids on UK roads at 30 June 2026, a total plug-in parc of 2,248,600. Battery electric cars accounted for 26.4% of new car registrations in the first half of 2026.

The vehicle side is the denominator for everything else on this page, so it gets its own section rather than a footnote. The parc grew 28.4% in the year to June 2026 while the public network grew 31.2%, which is why the provision ratios in Section 7 improved slightly rather than deteriorating.

The table that connects this section to the rest of the dataset is the AC intake distribution, and it is routinely missing from UK market statistics. A car's maximum AC intake decides what it can actually draw from an untethered post regardless of what that post is rated at. EV Cable Hub's 2026 analysis of the parc found the distribution concentrated at 7kW and 11kW, with a meaningful minority at 22kW and a declining tail at 3.7kW.

That distribution has a direct practical consequence: 44.1% of UK drivers own a charging cable rated below their own car's AC intake, which means they are capped by their equipment rather than by the charge point in front of them. A 32A three-phase car on a 16A single-phase cable takes three times as long as it needs to on a 22kW post, and nothing on the charge point display tells the driver that is what is happening. Our explainers on charging cable amps and 16A against 32A cables set out how to check.

Van and light commercial electrification sits behind the car parc and is worth tracking separately, because its charging profile is different in ways that matter to network planning: depot-based overnight charging at scale, higher daily mileage, and a strong preference for three-phase AC where the depot supply allows it. The connectors serving that demand are largely outside the public census by design.

What UK drivers plug in with#

84.6% of UK electric car drivers own at least one portable charging cable, and the mean driver owns 1.9. EV Cable Hub's 2026 survey found 42.4% own a cable that is too short for at least one charge point they regularly use, and 61.2% own a Mode 2 granny charger.

Equipment ownership is the point where the infrastructure data in this page stops being abstract. The mean cable length owned by a UK driver is 8.6 metres and the median 7.5 metres, against a mean on-street connector-to-bay distance of 3.8 metres and a recorded maximum of 11.4 metres. Most drivers are adequately equipped for most charge points, and a substantial minority are not adequately equipped for the ones they actually use.

The 42.4% reach-failure figure is the most commercially relevant number on this page, and it earns its place because it is a direct consequence of the on-street data in Section 15 rather than a marketing claim. Of those affected, 26.8% bought a longer cable as a result, which leaves the majority working around the problem by parking differently, charging elsewhere or charging less often.

Mode 2 granny chargers are owned by 61.2% of drivers and never used by 34.7% of those who own one, which is the correct outcome for a device that exists as a backup. Adapters are a smaller market than the discussion around them suggests: 11.4% own a V2L adapter, 9.8% a cable extension and 3.2% a Type 1 to Type 2 adapter. Storage is where behaviour is changing fastest, with 38.6% now using a bag and 18.2% a wall-mounted holder, up sharply on 2025. Mean spend on a first cable was £118 and on a replacement £146, with a mean 19 months between the two, a replacement cycle driven by reach and rating rather than by failure. Charging cables, granny chargers and extensions are all covered in our range, and the granny charger guide explains what the 61.2% are actually carrying.

Queueing, occupancy and utilisation#

UK public charge points were occupied 14.8% of the time in 2026, and 11.2% of rapid charging sessions involved a queue. EV Cable Hub's 2026 panel recorded a mean queue wait of 8 minutes at rapid sites and 21 minutes at motorway service areas on Sunday afternoons.

Utilisation is the number the investment community cares about and almost nobody publishes for the UK. The headline 14.8% conceals a spread from 8.4 kWh per connector per day on slow units to 136.2 kWh on high-power units. Rapid connectors run at roughly 4.1 times the utilisation of slow ones, which is why queueing is concentrated on the newest and most expensive part of the network rather than the oldest.

Regional utilisation follows population density and journey patterns rather than provision. The regions with the most connectors per head are not the ones with the busiest connectors, and in several cases they are the least busy, because heavy on-street provision produces a large number of individually lightly used sockets. That is a feature rather than a fault: an on-street bay used once a day by the household it serves is doing exactly the job it was installed for.

The peak-period table is the operationally useful one. Demand concentrates into Sunday afternoons, Friday evenings and bank holidays, and those three periods account for a disproportionate share of every negative charging experience reported in the 2026 survey. A network sized for its mean is a network that fails visibly eight or ten times a year, which is more than enough to shape public perception of whether charging in Britain works.

Utilisation figures also settle a question that comes up whenever charge point counts are debated. A network occupied 14.8% of the time is not an over-built network, but nor is it one running at capacity. The constraint in Britain is not the total number of connectors; it is their distribution across time and place. Building for the Sunday afternoon peak means accepting low mean utilisation the rest of the week, which is a commercial problem rather than an engineering one.

What it costs to install charging infrastructure#

Installing a public rapid charging bay in the UK cost a mean of £42,800 in 2026, and a lamp column on-street connector cost £1,240. EV Cable Hub's 2026 census found grid connection was the single largest cost line at rapid sites, at 38.4% of total project cost.

The cost spread across installation types is roughly thirty-five to one, and it explains the shape of the UK network more completely than any policy decision. A local authority with a fixed budget can install thirty lamp column connectors or one rapid bay. Most have chosen the thirty, which is why the network is majority slow-speed and why on-street grew 38.4% in a single year.

The cost breakdown for a 150kW installation is the table trade press picks up. Grid connection dominates at 38.4%, ahead of the hardware itself. That ordering is counterintuitive to anyone who has not built a site and it is the reason capacity is added in clusters: once a connection is secured and paid for, the marginal cost of the second, third and fourth connector on that site is a fraction of the first.

Grant support has moved decisively towards on-street and residential provision, which is consistent with the growth figures in Section 15. Payback periods vary from under four years on well-sited rapid hubs to well beyond a decade on lightly used on-street sockets, and the difference is utilisation rather than capital cost. Any assessment of whether UK charging investment is working has to hold those two business models apart, because a return calculation that averages them describes neither.

Lead times are the other half of the cost picture and they have not improved. Grid connection remains the long pole on rapid and ultra-rapid projects, and the interaction between lead time and cost is what pushes operators towards sites with existing capacity (retail parks, forecourts and service areas) rather than towards where drivers most need provision. That is the single clearest mechanism by which the market, left alone, under-provides on-street charging.

The 2030 outlook#

On EV Cable Hub's 2026 modelling the UK reaches 110,842 public charge point connectors by the end of 2026 and 268,400 by the end of 2030. That trajectory holds the vehicles-per-connector ratio broadly flat at 14 to 16 through the period.

Everything in this section is modelled rather than measured, and it is labelled as such throughout. The central case assumes the compound growth rate decays gradually from 31.2% to the low twenties by 2030 as the base rises, that on-street programmes continue to expand at their current rate in the 218 authorities that run them, and that grid connection lead times do not deteriorate from their 2026 levels.

The most quotable line in the modelling is the implied build rate. Holding the central case requires the UK to add around 42,000 connectors a year by 2029 and roughly 48,000 during 2030, more than twice the 2026 rate of 23,405. The low case assumes connection queues lengthen and local authority funding tightens after the current programme cycle. The high case assumes cross-pavement and lamp column installation costs fall further and the 156 authorities currently without a programme start one.

What would have to change is worth stating explicitly, because forecasts that do not name their failure conditions are not useful. The central case breaks on the downside if grid connection lead times extend materially, and on the upside if the cost of on-street installation falls below roughly £900 a connector. Vehicle parc growth is the less sensitive variable: even at the high end of plausible adoption, the vehicles-per-connector ratio in the central case stays inside the band the UK has held since 2022. EV Cable Hub will publish this forecast's error against measured 2027 data in next year's edition.

Two things would make this forecast wrong in an interesting way rather than a boring one. If cross-pavement channel installation becomes routine at scale, the ceiling on on-street provision lifts sharply, because the constraint stops being the pavement and starts being the supply. And if vehicle-side AC intake standardises upward, a given connector count serves more drivers per hour without a single new installation. Neither is in the central case, and both are plausible before 2030.

Interactive tools#

Four tools built on the 2026 dataset, plus a forty-item readiness checklist that remembers where you got to. Everything runs in the browser and nothing needs an email address.

Each tool draws on the tables above rather than on a separate dataset, so the figures behind them are the same figures published on this page and can be checked against it.