Electric mobility

EV charging engineered around available power and real operating needs.

Installing chargers is not enough. Available power, dwell time, vehicle demand, solar, storage and load management must operate as one coordinated system.

Energy Division concept study

A charging hub can become an integrated energy and operating infrastructure.

These two configurations, developed for a client proposal, show how a solar carport, high-power chargers, access lanes, a control point and vehicle flows can be coordinated from the earliest design stage.

Energy Division concept for an EV charging hub with a straight photovoltaic roof
Linear roof. A regular, modular solution with four bays, two chargers and separated access routes.
Energy Division concept for an EV charging hub with a curved photovoltaic roof
Curved architectural roof. The same functional logic with a stronger visual identity.

Concept-study images. Dimensions, power ratings, layout, accessibility and equipment must be validated for the actual site.

Charging must work within the real energy system.

We analyse available power, vehicle use, dwell times, simultaneous demand, grid limits and operational priorities. Charger quantity and rating follow these data rather than a catalogue value.

Corporate parking, fleets, logistics, retail and transit locations require different configurations. Solar, carports, BESS and EMS can reduce peaks, use local generation and support future expansion.

Integrated configurations

Systems we engineer

Workplace and fleet charging

AC and DC infrastructure for companies, operational fleets and parking facilities, sized around dwell times, shifts and actual demand.

High-power DC charging up to 700 kW

High-power solutions for transit locations and professional applications, coordinated with the grid, substations and service priorities.

Carports, solar and BESS

Solar generation, shading, storage and charging are integrated to make better use of space and available energy.

Lighting and autonomous infrastructure

All-in-one solar lighting and independent systems for parking areas, roads and sites without suitable electrical infrastructure.

How we develop the infrastructure

Sizing route

1. Operating data Collect vehicle types, mileage, dwell times, shifts, available power and expected growth.
2. Energy scenario Compare power levels, simultaneous demand, charging profiles and integration with solar and BESS.
3. Integration Coordinate chargers, switchboards, protection, substations, EMS, carports, payments and connectivity.
4. Scalability Define monitoring, maintenance, access management and future expansion.

Where it applies

Operating contexts

  • corporate fleets and logistics
  • parking, retail and hospitality
  • service areas and high-power charging
  • solar carports and energy hubs
  • autonomous and remote infrastructure

Maximum charger power does not define the project.

A 700 kW charger is useful only if the grid, substation, vehicles and operating model can use it. We compare charging speed, electrical availability, dwell time and costs before defining the architecture.

Energy integration

Solar, BESS and energy management

Where the grid is constrained, the solution can coordinate solar generation, storage, dynamic power limits and charging priorities. The objective is to serve vehicles without making every capacity increase a grid problem.

Do you want to size an EV charging infrastructure?

Share vehicle number and type, dwell times, available power, location and expected growth. We can establish an initial technical architecture and connect it to Project Check 90.