IN Brief:
- Wallbox has launched Pulsar Pro, an AC smart charger with integrated MID-certified metering.
- The charger supports reimbursement reporting, RFID access, dynamic load balancing, solar integration, and remote management.
- EV charging design is moving towards metered, managed, and regulation-ready infrastructure rather than standalone hardware.
Wallbox has introduced Pulsar Pro, a smart AC charger designed to support EV charging reimbursement across workplaces, fleets, shared residential sites, and employee home-charging schemes.
The charger integrates MID-certified energy metering directly into the unit, allowing charging sessions to be measured without separate metering hardware. Certified measurement is becoming a practical requirement where electricity costs need to be allocated between drivers, employers, fleet operators, landlords, and charging service providers.
Pulsar Pro is available across European Union markets, with UK and North American availability expected in 2027. The charger extends Wallbox’s AC portfolio with a stronger emphasis on managed charging, user access, metered reporting, and regulatory alignment rather than simple point charging.
Drivers can use the Wallbox App to generate reimbursement reports, configure electricity tariffs, register RFID cards, and share charging data with employers or fleet managers. Larger installations can be managed through the Wallbox Portal, giving site operators oversight across multiple users, chargers, and locations.
The unit also supports solar charging integration, dynamic load balancing, remote management, and user access controls. Those functions bring charging equipment deeper into building energy systems, where electrical capacity, self-generation, tariff structures, and user permissions all affect how the charger should operate.
Fleet electrification creates a metering problem that grows quickly with scale. A vehicle may charge at home, at work, at a depot, or in shared residential parking, with electricity supplied under different tariffs and ownership arrangements. Without certified metering and reliable reporting, reimbursement becomes a manual process and can slow adoption by adding administrative friction to the charging model.
Smart charging therefore combines power electronics, metrology, embedded control, connectivity, cloud software, and compliance. The hardware must deliver energy safely, but it must also measure consumption accurately, apply user permissions, respond to load constraints, and provide usable records. Metering accuracy and software integration become part of the charging product rather than an external billing layer.
Dynamic load balancing is a core feature in multi-charger sites. A building with several chargers cannot simply add unlimited electrical load without considering supply capacity and other connected equipment. Charging systems need to monitor demand and adjust output so vehicles can charge without overloading the installation or forcing unnecessary electrical upgrades.
Solar integration adds another control requirement. Where a building has local generation, charging can be scheduled or modulated around available solar output, improving the economics of installation while reducing grid draw. That creates a more complex power-management problem than fixed-rate charging, but it also makes the charger part of a wider energy-management strategy.
Component-level power efficiency remains part of the same electrification chain, as shown by recent device developments targeting 24V and 48V systems. EV charging operates at site and vehicle infrastructure level, but the same engineering priorities recur across the stack: reduce losses, manage heat, measure accurately, protect the system, and keep operation predictable under varied load conditions.
Charging hardware is increasingly judged by how well it fits into energy management, workplace policy, fleet operations, and grid constraints. Pulsar Pro reflects that movement towards infrastructure-grade charging, where measurement and management are as central as the power output itself. As fleets and shared installations grow, the charger becomes a metered node in an electrical network rather than an isolated appliance on a wall.
