Solutions /
Solar energy

Solar energy sized to
a load profile, not a headline

Rooftop, carport and utility-scale photovoltaic plants, engineered for a twenty-five year yield curve rather than a first-year headline.
Solar energy
712 GWh
Generated for clients in 2025
P90
Yield modeled before financing
25 yr
Warranted performance
Clean energy that powers tomorrow

Clean energy that powers tomorrow

We combine measured irradiance, hourly load data and bankable equipment selection to deliver plants that hold their yield curve for twenty-five years rather than one summer.
On-site irradiance measurement
Hourly load matching
Shading and geotechnical survey
Interconnection and permitting
Power purchase structuring
Performance-based operations

Why solar energy
makes sense

Six reasons organizations move generation onto their own balance sheet rather than buying every kilowatt hour at market.
Lower energy costs
Lower energy costs
A well-sited plant delivers electricity below retail tariff from the first year and holds that gap as tariffs rise.
Reduced emissions
Reduced emissions
Every megawatt hour generated on site displaces grid electricity and reports as a market-based Scope 2 reduction.
Energy independence
Energy independence
Self-consumption insulates operations from wholesale volatility and from the tariff changes that follow it.
Incentives captured
Incentives captured
Tax credits and accelerated depreciation are modeled into the case, not discovered later.
Reliable performance
Reliable performance
Equipment chosen on measured degradation and warranted output.
Long-term savings
Long-term savings
A twenty-five year asset turns an operating cost into a depreciating investment.
The intelligence behind every green decision

The intelligence behind every green decision

Sensor networks, yield modeling and expert review give you visibility into what the plant is producing, why it differs from the model, and what to change before the difference costs you a season.
Measured yield
Twelve months of on-site irradiance before a layout is drawn, not a regional average.
Live monitoring
String-level output, soiling losses and inverter health, visible from commissioning onward.
Performance contracts
Operations priced against performance ratio, so the obligation is production rather than uptime.
Independent review
Every model we finance against is reviewed by an engineer who did not build it, and the review is written down.

Solar is the cheapest generating asset most organizations will ever own, and it is also the one most often bought badly. A plant sized to a peak-demand number rather than a load profile, or modeled on a regional irradiance average rather than a year of on-site measurement, will underperform its business case from the first summer and keep underperforming quietly for two decades.

How we size a system

We start with interval data — eight thousand seven hundred and sixty hourly readings, not a monthly bill. That shows us when your load actually sits, how much of it a fixed-tilt array can serve directly, and where a tracker or a modest battery changes the economics. Only then do we draw a layout.

Site work follows: a shading study from a drone survey, a geotechnical assessment where ground-mount is on the table, and an early conversation with the interconnecting utility. Interconnection is the single most common cause of schedule slip on a commercial solar project, and it is the one item that does not compress later.

What delivery looks like

  • Feasibility and yield model — four to six weeks, ending in a P50 and P90 production figure you can finance against.
  • Permitting and interconnection — run concurrently, typically three to seven months depending on jurisdiction and queue position.
  • Construction — six to sixteen weeks for a commercial rooftop, longer for ground-mount with civil works.
  • Commissioning and handover — string-level testing, a thermographic scan of every module, and a monitoring platform configured before the first invoice.

The plants that disappoint are almost never the ones with the wrong modules. They are the ones where nobody checked the yield model against a real meter after year one.

Operations, because the asset lives for decades

Module degradation is predictable; inverter failure, soiling and vegetation are not. We contract operations and maintenance against availability and against performance ratio, so the obligation is to keep the plant producing rather than to keep it switched on. Soiling schedules are set from measured losses at your site. Inverter spares sit in regional stock, not on a boat.

Financing is part of the engineering, not an afterthought. Depending on your balance sheet and tax position we will structure a direct purchase, a lease, or a power purchase agreement where a third party owns the asset and you buy the electricity. Each produces a different cost of energy and a different accounting treatment, and we model all three before recommending one.

Frequently asked
questions

Frequently asked questions
Photovoltaic modules convert sunlight directly into direct current electricity, which an inverter converts to alternating current for your site or the grid. Output follows irradiance rather than demand, which is why we model your hourly load alongside the resource before fixing a system size.
Every engagement starts from your own data — interval meter readings, an asset register, or a year of on-site measurement — rather than from a template. The design that follows is sized to your load profile, site constraints and growth plan, and we show you the trade-offs we made on the way.
Advisory engagements usually run six to sixteen weeks. Built projects depend almost entirely on permitting and grid connection: a commercial rooftop can be energized inside a year, while utility-scale generation typically runs two to four years from site control to commercial operation.
Yes. We build the inventory, install the controls, map one data set out to whichever frameworks apply to you, and draft the disclosure itself. We also run assurance readiness reviews so the first engagement with an auditor is not the first time the process is tested.
We build the pathway from your asset register, aligning abatement to replacement cycles so you are not writing off working equipment. We also quantify the residual emissions honestly and help you procure durable removals against them, rather than assuming the last ten percent away.