IN Brief:
- Char.gy will deploy more than 3,000 public charging sockets across West Northamptonshire.
- A substantial proportion will use lamp-column and low-impact kerbside infrastructure.
- Installation is expected to begin during 2026 using LEVI funding and private investment.
Char.gy has been selected to deploy more than 3,000 public electric-vehicle charging sockets across West Northamptonshire under one of the UK’s larger local on-street charging programmes.
Concentrating on residential areas where drivers lack private driveways, the rollout will use lamp-column integration and other low-impact kerbside arrangements wherever the existing street and electrical infrastructure allow. West Northamptonshire Council expects installation to begin during 2026.
The programme combines £2.85 million from the government’s Local Electric Vehicle Infrastructure fund with private investment from the charging operator. Public finance will support deployment across a broader range of locations than might initially meet a purely commercial investment threshold.
Site selection will draw on housing and parking data, existing charger coverage, projected vehicle demand, resident requests, highway constraints, pavement width, accessibility, and available electrical capacity. Each location will still require physical and electrical assessment before installation can proceed.
Lamp-column charging can use an existing street asset and electrical supply, avoiding a separate feeder pillar and extensive excavation where the column stands beside a suitable parking space. Its lower charging rate is generally suited to overnight or long-duration residential use rather than rapid energy delivery.
Not every lighting column can accept a charger. Circuit capacity, supply configuration, earthing, protective devices, column condition, cable routes, parking orientation, and the division of ownership between highway, lighting, network, and charging assets must all be examined.
Where columns are unsuitable or positioned away from parking spaces, dedicated kerbside units may be required. These installations can involve new distribution connections, trenching, ducting, pavement reinstatement, communications, bay markings, traffic orders, and protection against vehicle impact.
Scaling beyond isolated charge points therefore requires repeatable design and approval processes. Electrical contractors, network operators, local authority teams, highways specialists, lighting contractors, and charging-system providers must coordinate surveys, permits, connections, commissioning, asset records, and maintenance responsibilities.
Residential charging becomes a network programme
Drivers with off-street parking can generally install a dedicated domestic charging circuit, subject to load assessment, notification, and network requirements. Households dependent on street parking require public infrastructure, transferring more responsibility to councils, operators, distribution networks, and street-lighting asset owners.
Although residential chargers have lower individual power ratings than motorway equipment, their combined demand can be substantial. Local feeder and secondary-substation loading must be assessed, particularly where many vehicles begin charging during the existing evening peak.
Managed charging and time-of-use tariffs can shift demand into quieter periods, but both depend on reliable communications, compatible equipment, and commercial arrangements that reward flexibility without leaving drivers unable to complete a required journey.
Geographic coverage must be balanced against utilisation. Concentrating equipment in the busiest streets can improve early use and revenue, while wider distribution gives more residents access but may leave some assets lightly used until electric-vehicle adoption increases.
The LEVI structure attempts to balance those objectives by combining public support with private capital and operational responsibility. Long-term performance will depend on more than the number of sockets installed, however, because availability, payment reliability, repair times, and unobstructed access determine whether the network is usable.
Faulted sockets, damaged connectors, communications failures, payment errors, and occupied bays can reduce effective capacity even where headline deployment remains strong. Contracts therefore need measurable service levels, remote diagnostics, spare-parts provision, and clear responsibility for physical and software maintenance.
West Northamptonshire’s programme forms part of a broader charging build-out that includes both residential and strategic-road infrastructure. Rising use across GRIDSERVE’s network has strengthened the commercial case for high-power hubs, while local schemes address overnight charging for drivers without private parking.
Future electrical demand must also be considered. Heat pumps, rooftop generation, batteries, and other low-carbon technologies will increasingly connect to the same local circuits. A charging plan based solely on present household demand could underestimate the loading expected over the operating life of the installations.
The 3,000-socket rollout gives West Northamptonshire a substantial residential charging programme, but the final network will be shaped by detailed surveys and local constraints. Lamp-column integration can reduce construction where conditions are suitable, although it does not remove the need for connection assessment, protection design, commissioning, and long-term operational control.
Programme details and future updates are available through West Northamptonshire Council’s project page.
