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Commercial EV charging for Canadian businesses.

INFRASTRUCTURE · DESIGNED FOR COMMERCIAL OPERATIONS

We build commercial EV charging infrastructure engineered around your facility's electrical profile, operational requirements, and long-term energy goals — ensuring infrastructure that performs today and scales for the future.

Commercial Level 2 EV charging station servicing fleet vehicles in a corporate parking facility — stock reference
Why EV charging

Four reasons EV charging supports long-term facility value.

Commercial EV charging infrastructure supports fleet electrification, tenant expectations, and long-term property modernization — while positioning facilities for the next phase of transportation and energy transition.

Fleet Electrification
TRANSPORTATION READINESS

Support electric fleet and operational vehicle charging.

EV infrastructure helps facilities prepare for fleet vehicles, service operations, and future transportation electrification.

Property Modernization
TENANT AMENITIES

Add modern infrastructure modern tenants and employees expect.

Commercial charging stations improve property competitiveness and support workplace and visitor convenience.

Incentive Funding
CAPITAL SUPPORT

Reduce project costs through available incentive programs.

Federal and provincial funding can significantly offset EV charging infrastructure investments.

Future Capacity
LONG-TERM PLANNING

Build electrical infrastructure designed for expansion.

Charging systems can be planned around future fleet growth, load management, and site capacity requirements.

Prepare your facility for electrification

Green Integrations designs and manages commercial EV charging projects including infrastructure planning, utility coordination, electrical design, incentives, and turnkey installation for commercial and industrial facilities across Canada.

The process

From electrical assessment to operational fleet.

Commercial EV infrastructure is an electrical project first — site capacity, panel headroom, and load management are determined before a charger model is specified.

01
Electrical & Fleet Assessment

Assess

Existing electrical capacity, panel headroom, and available load are assessed alongside current and projected fleet size. Charger level (Level 1, 2, or DC fast) is confirmed based on vehicle dwell time, charge speed requirements, and electrical capacity.

DeliverableSite electrical assessment + fleet capacity analysis + charger level recommendation
02
Infrastructure Design

Design

Charging system design covers charger type and quantity, placement, load management strategy, and integration with solar or storage where in scope. Incentive applications are prepared in parallel with the design.

DeliverableSystem design + load management strategy + financial model + incentive applications
03
Installation & Commissioning

Install

ESA-licensed installation covering panel upgrades where required, conduit and cabling, charger mounting, and network configuration. Commissioning includes charge management platform setup and driver orientation.

DeliverableCommissioned charging system + charge management platform
04
Ongoing Management

Operate

Charge management software monitors utilisation, manages load to avoid demand-charge increases, and provides fleet operators with charging cost and utilisation reporting.

DeliverableCharge management platform + ongoing monitoring + utilisation reporting
Start your assessment
EV charger levels

The right charger for your application.

The right level depends on how long vehicles are parked, how much charge they need per session, and what the facility’s electrical infrastructure can support.

L1120V AC

Level 1

Power output
1.4 – 1.9 kW
Range added
~8–12 km/hr
Best suited for

Vehicles parked 8–12+ hours overnight. Personal vehicles with low daily mileage.

Commercial context

Rarely specified for commercial installations. No electrical panel upgrade typically required. Limited to very low charge volume applications.

★ Most common
L2208–240V AC

Level 2

Power output
3.3 – 19.2 kW
7–22 kW typical
Range added
~50–80 km/hr
commercial config
Best suited for

Employee parking, fleet vehicles, retail, warehousing, hospitality. Vehicles parked 2–8 hours.

Commercial context

Standard commercial installation. Networked with load management. Qualifies for federal Clean Technology ITC. Electrical upgrade may be required for larger deployments.

L3400–1,000V DC

Level 3 · DC Fast

Power output
50 – 350+ kW
Range added
~100–350 km
per 30 minutes
Best suited for

High-throughput public charging, transit depots, commercial fleets needing fast turnaround.

Commercial context

Significant electrical infrastructure required — typically a dedicated transformer. Higher capital cost. Best justified for high-utilisation or mandatory fast-charge applications.

Our take

For most commercial and industrial facilities in Canada, Level 2 is the right starting point. It provides adequate charging speed for typical fleet and employee dwell times, qualifies for federal incentives, and does not require the electrical infrastructure investment of DC fast charging. Level 3 is specified where the application demands it — not as a default upgrade.

Integrated energy infrastructure

The future of EV charging is integrated energy infrastructure.

When EV charging, solar, and battery storage are designed together, facilities can reduce grid dependency, flatten peak demand, and avoid portions of the utility infrastructure upgrades often triggered by large charging loads.

INTEGRTED ENERGY SYSTEMS
UTILITY GRIDFACILITYSOLAR PVBESSPANELEV CHARGERS01020304
Solar + BatteryPeak demand flattened
01
Demand-Charge Reduction

Solar generation offsets daytime charging demand while battery storage dispatches during peak charging periods—helping flatten facility demand spikes and reduce monthly demand charges.

02
Reduced Utility Upgrades

Battery storage can reduce the peak electrical demand placed on the grid, helping facilities avoid or defer costly utility infrastructure upgrades, transformer replacements, and service capacity expansions.

03
Solar-Powered Charging

Daytime EV charging aligns naturally with commercial solar production. Co-locating solar with EV infrastructure reduces net charging costs and improves long-term energy economics.

04
Infrastructure Designed for Expansion

Integrated systems allow facilities to scale fleet electrification over time while planning electrical infrastructure, charging loads, solar generation, and battery capacity together from the start.

Integrated energy infrastructure

The future of EV charging is integrated energy infrastructure.

When EV charging, solar, and battery storage are designed together, facilities can reduce grid dependency, flatten peak demand, and avoid portions of the utility infrastructure upgrades often triggered by large charging loads.

INTEGRTED ENERGY SYSTEMS
UTILITY GRIDFACILITYSOLAR PVBESSPANELEV CHARGERS01020304
Solar + BatteryPeak demand flattened
Swipe to explore01 / 04
01
Demand-Charge Reduction

Solar generation offsets daytime charging demand while battery storage dispatches during peak charging periods—helping flatten facility demand spikes and reduce monthly demand charges.

02
Reduced Utility Upgrades

Battery storage can reduce the peak electrical demand placed on the grid, helping facilities avoid or defer costly utility infrastructure upgrades, transformer replacements, and service capacity expansions.

03
Solar-Powered Charging

Daytime EV charging aligns naturally with commercial solar production. Co-locating solar with EV infrastructure reduces net charging costs and improves long-term energy economics.

04
Infrastructure Designed for Expansion

Integrated systems allow facilities to scale fleet electrification over time while planning electrical infrastructure, charging loads, solar generation, and battery capacity together from the start.

See our integrated projects →
Applications

EV charging infrastructure for commercial properties.

Commercial EV charging applies across property types — from residential and office to retail, logistics, and fleet operations. The right scope depends on dwell time, vehicle mix, and electrical capacity.

EV charging infrastructure for condominium and multi-unit residential propertiesMulti-unit residential

Condominiums

Residential buildings with structured parking require charging infrastructure planned around suite count, electrical service capacity, and strata or ownership governance requirements.

EV charging infrastructure for warehouse and logistics fleet operationsCommercial fleets

Warehouses & Logistics

Distribution and fulfilment facilities operate continuous loading schedules and increasing electric fleet requirements. Charging infrastructure is planned around operating hours, load management, and available electrical capacity.

Customer EV charging stations at retail and commercial shopping centresCustomer charging

Retail Centers

Retail properties with customer parking benefit from Level 2 charging stations that support longer dwell times. Infrastructure is planned around parking turnover, service capacity, and co-location with on-site solar where applicable.

Workplace EV charging infrastructure for commercial office buildingsWorkplace charging

Office Buildings

Office and mixed-use properties require charging infrastructure for employees, tenants, and visitors — planned around daytime occupancy patterns, parking allocation, and building electrical capacity.

Commercial parking facility equipped for public and private EV charging infrastructurePublic & private

Parking Facilities

Stand-alone and structure-integrated parking facilities require charging systems scaled to stall count, turnover rate, and utility service constraints — with load management to control demand charges.

Fleet depot EV charging infrastructure supporting commercial vehicle electrificationDedicated systems

Fleet Depots

Commercial and service vehicle depots require dedicated charging infrastructure planned around fleet size, overnight charge windows, vehicle mix, and connection to on-site solar or battery storage where applicable.

Not sure where your facility fits? That's usually the right place to start a conversation. A 20-minute call is enough to map your charging requirements against the right scope of work.

Client testimonial

Responsive and aligned with operational constraints.

Green Integrations worked within our site requirements and timelines, delivering a professional and responsive experience from assessment through execution.

Client
John Blanchard
Company
Markland
Sector
Commercial Real Estate · Ontario
Often planned alongside EV

Services that complement EV infrastructure.

Each solution integrates into the same long-term energy strategy, helping facilities evaluate charging infrastructure, on-site generation, energy storage, and future electrification requirements together.

On-site solar reduces the net operating cost of EV charging — particularly for daytime Level 2 fleet charging.

Explore

Storage buffers EV charging demand to prevent demand-charge increases and enables overnight charging from solar.

Explore

An electrical capacity assessment establishes whether existing infrastructure can support EV charging without upgrades.

Explore
Knowledge Centre

Commercial EV Charging Questions

Straight answers from our engineering team — explore the most-asked questions on this topic.

View all EV charging questions
Start your assessment

Plan your charging infrastructure before the deadline.

A facility assessment establishes electrical capacity, fleet requirements, and incentive eligibility — before any equipment is specified.

No commitment required.