EV Charging

EV charging • Residential • Commercial • Industrial

EV charging solutions for homes, businesses and industrial sites

ADS Solar provides EV charging solutions for Australian homes, workplaces, commercial properties, fleets and industrial sites. We can also design charging around residential solar, commercial solar, battery storage and site load management.

Home EV charging
Workplace and fleet charging
Commercial and industrial charging
Solar + battery integration
ResidentialHome EV charging
CommercialWorkplace and visitor charging
IndustrialFleet and depot charging
IntegratedSolar + battery + EV charging
One EV charging page, all applications

EV charging solutions across residential, commercial and industrial properties

EV charging needs change with the property and the vehicle. A home may need one smart AC charger. A workplace may need multiple shared chargers. A fleet depot may require managed AC charging, DC fast charging or staged infrastructure for future vehicles.

Residential EV charging

Dedicated charging for houses, townhouses and suitable strata properties, with solar-aware and smart charging options.

B

Commercial EV charging

Charging for offices, retail sites, hospitality, visitor parking, staff vehicles and commercial fleets.

I

Industrial EV charging

Charging infrastructure for warehouses, depots, logistics, service vehicles and high-use industrial sites.

EV charger levels

AC and DC EV charging explained

Charging speed depends on the charger, the vehicle’s maximum charge rate, battery state of charge and electrical supply. The largest charger is not always the best choice.

Charging typeTypical powerCommon applicationsKey consideration
Level 1 ACUp to about 2.4kW from a standard outletOccasional or lower-distance home chargingSlow charging; use a safe, suitable outlet and avoid extension leads or power boards.
Level 2 ACTypically 7–22kWHomes, workplaces, apartments, car parks and destination chargingVehicle AC limit, phase supply, switchboard capacity and parking duration.
Level 3 DCAbout 25–350kWFleet depots, rapid turnaround sites, public charging and selected commercial locationsHigh site power demand, vehicle DC capability, network capacity and project cost.

Charging ranges are general guidance only. Actual charging speed depends on the vehicle, charger, battery temperature, state of charge and electrical infrastructure.

Home EV charging

Residential EV charging for Australian homes

For many EV owners, home is the main charging location. A dedicated Level 2 EV charger can provide faster and more controllable charging than a standard power point.

A home charger is commonly rated between 7kW and 22kW. The usable charging rate still depends on the vehicle’s onboard AC charger and the home’s electrical supply.

  • Single-phase and three-phase charger options
  • Smart scheduling and off-peak charging
  • Solar-aware charging where supported
  • Load management to protect household supply
  • Battery and future energy planning

Do you need 7kW, 11kW or 22kW charging?

The answer depends on the vehicle and the property. For example, a 22kW charger will not make a vehicle charge at 22kW if the vehicle can only accept 11kW AC.

Parking time matters too. If the EV is parked overnight, a lower AC charging rate may still provide enough energy for normal daily driving.

ADS Solar can review the vehicle, electrical supply and future charging needs before recommending a charger size.

Solar-powered EV charging

Charge an EV with rooftop solar

Solar can reduce the amount of grid electricity used for EV charging when the vehicle is connected while the solar system is generating. Smart charging can help align vehicle charging with available solar production.

Solar + battery + EV charging

Battery storage can form part of an integrated energy strategy. The battery may store suitable solar generation, support household or business loads, and interact with EV charging depending on the system controls.

However, an EV battery is large compared with many stationary batteries. Charging strategy should therefore consider which energy source is most valuable at each time.

Integrated energy

Combine EV charging with solar and battery storage

ADS Solar can assess the complete site rather than treating the EV charger as an isolated appliance.

  • Solar generation available for charging
  • Home or commercial battery capacity
  • EV charging schedule
  • Peak site demand
  • Grid import limits
  • Future EV numbers
Strata and apartments

EV charging for apartments and strata buildings

Apartment EV charging needs additional planning because parking areas and electrical infrastructure are shared. Residents may also need approval from the owners corporation or strata body before installation.

Personal parking-bay charger

A suitable resident may be able to install a dedicated charger where approval, cabling and metering arrangements allow.

Shared charging infrastructure

Buildings can plan multiple chargers and shared infrastructure to avoid repeated upgrades as EV ownership grows.

Dynamic load management

Load-management systems can reduce simultaneous charger power to keep total building demand within available capacity.

Workplace charging

Commercial EV charging for workplaces and customer parking

Workplace chargers can support staff vehicles, visitors, customers and fleet vehicles. The charging design should reflect how long vehicles stay parked and how many may need to charge at once.

Office charging

AC charging can suit staff vehicles parked for several hours during the workday.

Retail and hospitality

Destination charging can provide a service for customers while they visit the site.

Fleet charging

Fleet vehicles need charging schedules based on daily kilometres, return-to-base times and next-shift requirements.

Shared chargers

User access, billing, reporting and charger availability may need to be managed across multiple drivers.

Industrial and fleet depots

Industrial EV charging for fleets, depots and logistics sites

Industrial charging can create large new electrical loads. The design should consider vehicle duty cycles, dwell time, charger power, site maximum demand, network capacity and staged expansion.

Depot charging

Return-to-base fleets can often charge during predictable parking windows, allowing scheduled and managed charging.

DC fast charging

Higher-power DC charging may suit vehicles that need a shorter turnaround time, subject to vehicle and site capability.

Staged infrastructure

Cabling, switchboards and charger locations can be planned for future fleet growth rather than only today’s vehicles.

Solar integration

Large commercial or industrial solar can help supply charging loads during suitable daytime periods.

Battery integration

Commercial storage may support a wider site energy strategy, including selected demand management applications.

Energy monitoring

Monitoring can help track charger consumption, site demand and energy use across vehicles or charging groups.

Site capacity

Will EV charging require a switchboard or electrical supply upgrade?

Possibly. EV chargers are significant electrical loads, especially when several chargers operate together. A qualified assessment should check the existing supply before installation.

Available electrical capacity

Existing household or site loads need to be considered alongside the proposed charger load.

Switchboard condition

The switchboard may require additional protection equipment, space or an upgrade depending on the installation.

Load management

Smart or dynamic load control may reduce the need for all chargers to draw maximum power at the same time.

Smart charging

Why EV load management matters

Load management controls charger power based on available electrical capacity or operating rules. It becomes especially useful when several chargers share the same site supply.

Charging challengePossible strategyWhy it helps
Home has limited spare capacityDynamic load managementReduces charger output when other household loads are high.
Multiple workplace chargersPower sharingDistributes available charging power across connected vehicles.
Large fleetScheduled chargingPrioritises vehicles based on departure time or required energy.
Solar available during the daySolar-aware chargingCan increase charging during periods of stronger on-site solar generation.
High site demandDemand-aware controlsMay limit charger power when total site demand approaches a defined threshold.
EV charger selection

What to compare before choosing an EV charger

Charger selection should be based on the vehicle, property and charging objective rather than charger power alone.

Vehicle compatibility

Check the vehicle’s AC and DC charging limits and connector requirements.

Charging power

Choose a rate that matches parking time, daily energy use and the site’s available electrical capacity.

Smart features

Consider scheduling, solar integration, load management, app control and energy monitoring.

Future vehicles

Plan for a second household EV, more staff vehicles or fleet expansion where relevant.

Access control

Commercial sites may need RFID, app access, user groups or public/private charging controls.

Billing and reporting

Workplaces and public-facing sites may need energy reporting or cost recovery across different users.

Location and cable reach

Parking layout, charger position and cable management affect usability.

Electrical installation

Protection, cabling, switchboard work and network requirements should form part of the total project.

EV charging installation

How ADS Solar approaches an EV charging project

The process changes with project size, but good planning starts with the vehicles, the property and the available energy infrastructure.

1

Understand the vehicles

Review daily kilometres, parking time, vehicle charging capability and future EV plans.

2

Assess the electrical site

Review switchboard, supply, phase configuration, existing demand and proposed charger locations.

3

Design the charging solution

Select charger power, load management, solar integration and staged infrastructure where required.

4

Install and commission

Complete electrical installation, testing, configuration and user handover through appropriately qualified personnel.

EV charging quote

Request an EV charging assessment

Tell ADS Solar whether you need residential, workplace, commercial, fleet or industrial charging. Include the EV model, property type, number of chargers and whether solar or battery storage is already installed.

Plan EV charging around the property, vehicles and energy system

ADS Solar can assess EV charging alongside solar, battery storage and electrical capacity for residential, commercial and industrial sites.

EV charging FAQs

Frequently asked questions about EV charging

What size EV charger do I need at home?

Many dedicated home chargers are rated between 7kW and 22kW. The right size depends on the EV’s AC charging limit, household supply, parking time, daily driving and available electrical capacity.

Can I charge an EV from rooftop solar?

Yes. When the EV is connected during solar-generating periods, suitable solar energy can support charging. Smart or solar-aware charging may help align the charger with available rooftop solar production.

Do I need three-phase power for EV charging?

Not always. Many homes can use a single-phase charger. Higher AC charging rates may require three-phase supply, but the EV itself must also support the higher AC rate.

Can I install a 22kW charger if my EV only accepts 11kW AC?

The vehicle will generally limit AC charging to its own maximum supported rate. Installing a higher-rated charger does not make a vehicle exceed its charging capability.

Does an EV charger need a licensed electrician?

A dedicated EV charger connected to the electrical installation should be installed by appropriately licensed electrical personnel. The installation may also require switchboard or supply upgrades.

Can an EV charger work with a home battery?

Yes, depending on the battery, charger and energy-management system. The operating strategy should consider battery capacity, household demand, solar production and the EV’s energy requirement.

What is load management for EV chargers?

Load management controls charger power so EV charging does not exceed a defined site limit or can be shared across multiple chargers. It can be useful in homes, strata buildings, workplaces and fleet depots.

What is the difference between AC and DC EV charging?

AC chargers supply alternating current to the vehicle, which uses its onboard charger to convert it to DC for the battery. DC fast chargers supply direct current to the battery and can charge at much higher power where the vehicle supports it.

What EV charging is suitable for a workplace?

Level 2 AC charging often suits workplaces where vehicles remain parked for several hours. Fleet or rapid-turnaround applications may require higher-power or DC charging after site capacity is assessed.

Can businesses charge multiple EVs at once?

Yes, but simultaneous charging can create significant site demand. Power sharing, scheduling and dynamic load management can help distribute available power across multiple chargers.

What charging is suitable for an industrial fleet depot?

The answer depends on vehicle type, daily energy use, dwell time and turnaround requirements. A depot may use managed AC charging, DC fast charging or a mix of charging types.

Can commercial solar reduce EV charging costs?

On-site solar can reduce the amount of grid electricity used for charging when vehicles are connected during solar-generating periods. The actual benefit depends on solar production, charging schedules and business electricity tariffs.

Can I install an EV charger in an apartment building?

Potentially, but approval from the owners corporation or strata body may be required. The building’s electrical capacity, parking arrangement, metering and future charging needs should also be assessed.

How should a business plan for future EV charging?

Consider expected vehicle numbers, charger locations, electrical capacity, load management, network upgrades, solar and battery integration, user access and whether infrastructure can be staged for future expansion.