A Developer's Guide to LandGate's Nationwide Solar Pro Forma Data
- Craig Kaiser
- 4 hours ago
- 9 min read
For solar developers, investors, and lenders, knowing that a project will generate well and clear an economic screen is necessary but not sufficient. Before capital moves, someone has to see the full financial statement: what the project costs to build, what it earns and spends every year, how it is financed, and whether the cash it throws off actually covers its debt. That is what LandGate's Solar Pro Forma provides. Where an economic report distills a project into a single risk-adjusted net asset value, the pro forma lays the project out as a year-by-year operating statement, from construction draw through four decades of revenue, expense, taxes, financing, and debt coverage.
This post walks through each section of a Solar Pro Forma, explaining what data is provided and why it matters for anyone evaluating whether a solar project is financeable and worth building or buying. The figures cited throughout come from the attached sample report, a single 120.37 MWdc (100.31 MWac) planned solar farm in Pennsylvania, operating in the PJM market with a scheduled operating date of July 1, 2030. Unlike a summary valuation, a pro forma is the document a developer takes into a financing conversation, because it shows not just whether the project is worth something, but exactly how the money moves through it year by year.
Instantly Access Nationwide Pro Forma Data via LLM
LandGate's solar pro forma data is available nationwide and fully optimized for AI. Using our Model Context Protocol (MCP) Server, you can pipe this granular, year-by-year financial data directly into your LLMs (like ChatGPT, Claude, or internal tools) to automatically generate custom cash flow models, programmatically build portfolio financing dashboards, and stress test debt coverage across thousands of parcels in seconds.
Starting Point: Solar Farm Identification and Map
The report opens by establishing exactly which asset is being modeled and where it sits. It lists the project's core identifying attributes (name, state, development status and category, MWdc and MWac capacity, scheduled operating date, energy market, and energy pricing type) alongside a map of the parcel footprint. In the sample, the project is a planned farm categorized as Planned-1, sized at 120.37 MWdc and 100.31 MWac, located in Pennsylvania, selling into PJM under locational marginal pricing (LMP), with a scheduled operating date of July 1, 2030.
These framing details matter because every number that follows is conditioned on them. The energy market sets the pricing dynamics behind the revenue lines, the development category signals the project's stage and risk, and the scheduled operating date anchors the entire timeline of the cash flow. The map gives an immediate visual read on the project's footprint and grid context, grounding the financial model in a real, located asset rather than an abstract set of assumptions.
Project Summary
Following the identification block, the report states the project's headline operating parameters in a single summary line: development category, scheduled operating date, capacity in both MWdc and MWac, and remaining lifespan. For the sample project, that is a Planned-1 asset reaching commercial operation on July 1, 2030, with roughly 120 MWdc and 100 MWac of capacity and a remaining lifespan of 44 years.
This summary is the bridge between the project's physical identity and its financial model. The capacity figures scale every revenue and cost line, while the operating date and lifespan define the window over which those cash flows are projected. The pro forma that follows models 40 years from commercial operation, so anchoring the lifespan up front tells the reader how much of the asset's useful life the financial picture actually covers.
Construction Cost Schedule (CapEx)
Before any revenue arrives, the project has to be built, and the construction cost schedule lays out that upfront spend in detail. It decomposes total capital expense into its component line items and, critically, spreads each across the months of the construction year, showing not just how much is spent but when the cash is required.
For the sample, the major hard-cost components include panels at $34.91M (the single largest line item), structural balance of system at $21.67M, install and equipment at $16.85M, electrical balance of system at $10.83M, inverters at $3.61M, and a gen-tie of $278,530 to connect the project to the grid. On top of these sit the soft and development costs: developer overhead at $10.83M, EPC overhead at $9.63M, interconnection at $4.81M, and permits and inspection at $2.41M. These build to a total capital expense of $115.83M, to which $8.51M in sales tax is added, producing a net capital expense of $124.35M. The report then expresses that as $1,033,048 per MWdc and $1,239,652 per MWac.
The monthly columns are what set this section apart from a simple cost summary. Panels and structural balance of system land in the first and fourth months, install and equipment spread in steady increments across the year, and interconnection and permit costs bracket the start and end of construction. For anyone arranging construction financing, that draw timing is as important as the total, because it determines when capital must be available and how construction-period interest accrues. The per-megawatt figures, meanwhile, let a developer benchmark the build cost against market norms regardless of project size.
The Pro Forma Statement: Reading the Year-by-Year Cash Flow
This is the analytical core of the report. Spread across four tables, one per decade from commercial operation (10, 20, 30, and 40 years from COD), the pro forma traces every dollar through the project for each year of its operating life. Year 0 (2029 in the sample) captures the construction outlay, then each subsequent year lays out revenue, expenses, taxes, financing, and the resulting cash position. Reading down these tables reveals the economic shape of a solar project in a way no summary can.
Revenue Lines
Each year's revenue is built up from several distinct streams, and separating them is one of the most useful features of the pro forma. The first line is farm generation in MWh, which begins partway through 2030 (114,080 MWh in that first partial year), ramps to a full year of roughly 243,000 MWh in 2031, and then declines gradually each year thereafter as the panels degrade. Against that generation, the report applies an energy price and an incentive price separately:
Energy revenue is driven by an escalating energy price that starts near $34/MWh in 2030 and climbs over the contracted term toward the low $50s/MWh, before the modeled energy revenue winds down in the mid-2050s.
Incentive revenue is driven by a flat incentive price of $34.00/MWh, applied across roughly the first 37 years before tapering off, which reflects the renewable credit component of the project's economics.
Federal tax credit revenue is broken out as its own line, with the project's federal incentive value reflected elsewhere in the model rather than as an annual revenue entry.
These combine into total revenue for each year. Breaking the streams apart matters because they carry different risk and duration. The energy and incentive revenue run on different terms and respond to different forces (market pricing versus credit-program policy), so a financier needs to see how long each stream persists and how much of total revenue depends on it.
Operating Expenses and Non-Cash Items
Below revenue, the pro forma itemizes the full cost of running and financing the asset. The recurring operating costs hold steady year to year: equipment maintenance at about $843K annually, site lease at roughly $602K, site and land maintenance near $337K, and insurance around $108K. Alongside these cash costs, the statement carries the non-cash and financing items that shape taxable income: depreciation (a constant $2,196,762 per year in the sample, spreading the depreciable basis across the life), interest expense that declines each year as the loan amortizes, and the resulting income taxes. Summed, these produce total expenses and, against revenue, net income for each year.
Separating cash operating costs from non-cash items like depreciation and from financing costs like interest is essential, because each behaves differently and matters to a different reader. An operator focuses on the maintenance, lease, and insurance lines, a tax advisor on depreciation, and a lender on interest and amortization. The pro forma keeps them distinct so each can be examined and stress tested independently.
EBITDA
Because net income folds in interest, taxes, and depreciation, the pro forma also reports EBITDA, which adds those items back to isolate the project's operating cash generation. In the sample, EBITDA runs solidly positive through the contracted revenue years (in the mid-teens of millions of dollars annually) and then turns negative once the modeled energy and incentive revenue wind down while fixed operating costs continue. That crossover is one of the most important things the pro forma surfaces: it shows the point at which the project, as modeled, stops covering its own running costs, which is exactly the end-of-life question a long-term owner needs to confront.
Debt Financing and Coverage
The final block of each year models how the project is financed. The sample assumes debt at 80 percent of capital expense, an 8 percent interest rate, and a 40-year amortization term, producing a constant annual debt service of $8,342,276 and a declining loan balance that amortizes to zero by the end of the term. The single most important output here is the debt service coverage ratio (DSCR), which measures how comfortably each year's cash flow covers that debt payment.
The DSCR trajectory tells the financing story at a glance. In the sample it sits at 0.71 in the partial first year, jumps to roughly 1.74 once a full year of operation begins, and climbs steadily toward about 2.0 over the following two decades as the loan amortizes and revenue escalates. It then falls sharply once the modeled energy revenue ends, dropping below 1.0 and turning negative in the later years. For a lender, this is the heart of the analysis: it shows that coverage is strong through the contracted revenue period but deteriorates once that revenue rolls off, which directly informs how debt should be sized, how its term should be matched to the revenue contracts, and what assumptions govern the project's tail.
What This Report Tells You and What It Doesn't
A LandGate Solar Pro Forma is a financial projection and screening tool. It uses project parameters, market pricing forecasts, standardized cost models, and assumed financing terms to produce a year-by-year operating statement that is directionally accurate and immediately useful for financing discussions and investment screening. It is not a substitute for the negotiated financing package, audited financials, confirmed offtake and incentive terms, and independent engineering report that a project requires to reach financial close. The projections rest on assumptions, including price escalation, degradation, the terms over which energy and incentive revenue are modeled, and the debt structure, all of which a developer or lender should validate against their own underwriting.
Report Section | Decision It Supports |
Solar Farm and Map | Confirming project identity, market, and footprint |
Project Summary | Establishing capacity, operating date, and remaining lifespan |
Construction Cost Schedule | Validating the build budget and the timing of the capital draw |
Revenue Lines | Understanding energy, incentive, and tax-credit streams and their terms |
Operating Expenses and Non-Cash Items | Assessing ongoing cost burden, depreciation, and taxable income |
EBITDA and Net Income | Gauging operating profitability across the life |
Debt Financing and DSCR | Testing financeability and debt coverage year by year |
What comes after a workable pro forma is detailed diligence, negotiated financing, and confirmed offtake. The report's value is in giving developers, investors, and lenders enough information to decide quickly whether a project's cash flow and coverage justify that deeper commitment of time and capital, and to enter those later stages with a realistic, year-by-year view of how the asset performs financially.
Accessing Solar Pro Forma Data
The gap between a project that looks viable and one that actually finances is almost always in the cash flow detail: the timing of the capital draw, the duration of each revenue stream, the burden of fixed costs, and the coverage of debt all interact in ways that are difficult to judge by intuition. LandGate's Solar Pro Forma brings that full financial statement forward to the screening stage, giving developers, investors, and lenders a data-driven picture of cost, revenue, financing, and debt coverage before significant capital is committed. For anyone evaluating multiple candidate projects, it turns financeability into a screening criterion rather than a late-stage discovery.
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LandGate Solar Pro Formas are based on project parameters, market pricing forecasts, and standardized cost, financing, and risk models. Results are directional estimates intended for screening and projection purposes and should not be used as a substitute for a project's negotiated financing terms, audited financials, confirmed offtake and incentive agreements, or independent engineering review. Actual costs, generation, revenue, financing terms, and cash flow may differ from report findings.
