IN Brief:
- UK public EV charger deployment slowed in the first half of 2026.
- Zapmap recorded 121,171 public chargers across 46,731 locations at the end of June.
- Rapid and ultra-rapid deployment continues to grow faster than the wider charging network.
Zapmap recorded 121,171 public EV chargers in the UK at the end of June 2026, spread across 94,595 devices and 46,731 charging locations.
The first half of 2026 added 5,119 public chargers, marking a slower pace than the rapid expansion seen in recent years. The total network was up 10% year on year, while deployment data indicates that growth has eased from the stronger levels recorded during 2024.
Rapid and ultra-rapid infrastructure continues to expand more quickly than the total charger base. At the end of June, the UK had 28,887 rapid and ultra-rapid chargers across 7,005 locations. Zapmap recorded 513 net new rapid and ultra-rapid chargers during the month, with higher-power units now making up around 24% of chargers but a larger share of available charging capacity.
Ultra-rapid chargers rated at 150kW and above remain the critical segment for long-distance travel, motorway services, high-turnover retail sites, and fleet use. Their growth suggests that the market is shifting towards higher-power infrastructure even as the overall number of installed public chargers grows more slowly.
The UK’s public charging challenge is now more complex than charger count alone. The 300,000 public charge point ambition for 2030 remains politically visible, but network quality, power rating, geographic distribution, uptime, payment reliability, and grid connection speed increasingly determine whether infrastructure is genuinely usable.
Installation costs continue to shape the pace of deployment. Public chargers require civils works, grid connections, metering, protection equipment, back-office systems, payment hardware, maintenance provision, and landowner agreements. Higher-power sites can also require transformer upgrades, additional low-voltage or high-voltage works, and reinforcement where local networks are constrained.
Local deployment and power sourcing are becoming increasingly connected. TotalEnergies’ expansion of charging infrastructure in Islington and the link between solar generation and ubitricity charging demand both reflect a market where chargers, electricity supply, and site-level grid capacity have to be planned together.
Distribution-network capacity will shape where new chargers are installed. Lower-power destination chargers can often be deployed with lighter grid work, but rapid hubs and ultra-rapid corridors require more substantial electrical infrastructure. In constrained areas, the limiting factor may be the connection queue rather than the availability of charging hardware.
The changing mix of charger types also affects utilisation and revenue. A large number of low-power chargers can improve residential and destination coverage, while high-power chargers deliver more energy in less time and are more important for drivers who cannot rely on private charging. Operators have to balance headline site numbers against power capacity, dwell time, utilisation, and maintenance cost.
Vehicle demand signals will continue to influence charging investment. Charge point operators plan against expected EV uptake, fleet electrification, local authority demand, and manufacturer sales trajectories. Where vehicle deployment becomes less predictable, infrastructure providers may become more selective about sites, grid spend, and expansion timing.
The UK charging network is still growing, and the rapid and ultra-rapid segment remains stronger than the wider market. The slower first half of 2026 points to a more demanding deployment phase, where the remaining build-out depends on grid coordination, clearer demand signals, and installation models that can absorb rising delivery costs.
