Pricing depends on system size (kW AC), roof/structure, electrical upgrades, and interconnection. As a planning guide in Ontario, many 1 MW AC rooftop projects price around ~CAD $2.0M before incentives. Send us 12 months of bills and we’ll return a project-specific estimate in 48h.

Stacking Save on Energy rebates with the 30% federal ITC (calculated on capital cost net of grants) can reduce the upfront cost by 50%+ in qualified cases.
Capex $2.0M − Ontario rebates ~$0.86M − ITC 30% × ($2.0M − $0.86M) ≈ $0.80M net. ITC is calculated on cost net of grants; actual amounts vary.

Load profile: strong daytime usage and/or ability to manage peaks (Class A/B) improves economics.
‍Roof & space: sound structure, minimal shading, and roughly 60–80k ft² contiguous area for ~1 MW.
‍Electrical & interconnection: service/transformer capacity and LDC/ESA requirements.
‍Ownership & approvals: roof ownership/landlord consent and permitting timeline.

Save on Energy: typically after commissioning and verification (M&V)—funds are disbursed by the program following approval.
‍Federal ITC: claimed when filing corporate taxes for the year the equipment is available for use.
Timelines vary by program and utility

The cost depends on system size, installation complexity, and location. On average, a 1 MW AC solar system is approximately $2 million, though actual costs may vary based on project-specific conditions.

Incentives can cover more than 50% of the total project cost. These include government rebates and tax credits that substantially reduce the upfront investment.

The typical ROI period ranges from 3 to 4 years, depending on system performance, energy savings, and available incentives.

Feasibility is influenced by:
‍Energy Demand: Facilities with an average demand above 1,000 kW are better positioned to benefit financially..
‍Roof Condition: A structurally sound roof is required. A 1 MW system typically requires about 100,000 sq. ft. of roof space.
.Building Ownership: Ownership or landlord approval is necessary for installation.

Feasibility is influenced by:
Savings are achieved through:
‍Global Adjustment (GA) reduction: Lowering consumption during peak demand reduces GA charges.
‍Demand and Delivery Charge reduction: Solar reduces peak usage, cutting both demand and delivery costs.
‍Consumption Charge reduction: Solar generation decreases reliance on the grid, lowering consumption costs.

In Ontario, GA covers the costs of maintaining and expanding the electricity grid. For large users (Class A), GA charges are tied to energy use during the top five peak hours. Solar helps lower GA costs by reducing load during these periods.

A 1 MW AC solar system generates about 1.4 million kWh annually, subject to location, weather, and system orientation.

Solar-generated electricity is identical in quality to grid power, maintaining the same voltage and frequency for seamless integration.

Net Metering: Excess electricity is exported to the grid in exchange for bill credits.
‍Load Displacement: Solar power is consumed directly within the facility, lowering grid dependence and utility costs.

This project uses load displacement, as required by the Save on Energy program.

Save on Energy Program: Provides up to $860,000 for a 1 MW AC system, reducing upfront costs.
‍Investment Tax Credit (ITC): Covers 20–30% of the remaining project cost after applying Save on Energy funding.

Save on Energy Incentive: Paid after project completion and verification, typically within several months.
‍Investment Tax Credit (ITC): Claimed when filing taxes after project completion.