ACC 545 Week 3 Fixed Assets and Cost Determination Example

What a 40-Megawatt Solar Farm Really Costs: Capitalizing Construction, Interest and Interconnection, Recording the Decommissioning Obligation and Choosing Components at a Composite Power Producer

[Student Name]

University of Phoenix

ACC/545: Financial Reporting

Week 3 Assignment

[Instructor Name]

[Date]

The producer, its project and all figures are composites written for a model paper; standards and research findings come from the sources listed.

A composite independent power producer develops and operates solar and wind projects and sells electricity to utilities under long-term contracts. Its newest project is a 40-megawatt solar farm on 320 acres of leased farmland, which began commercial operation on January 1 after eighteen months of construction and testing. The lease runs 35 years and requires the producer to remove all equipment and restore the land to farming condition at the end. The price of the panels is only the beginning of a solar farm's cost; the rest is found in the construction loan, the utility's invoice and a promise to the landowner thirty years away. This paper determines the project's recorded cost and its first-year expenses.

Building Up the Cost

The farm's cost includes everything needed to get it built, connected and ready to generate power. The producer paid $28.6 million for panels, $4.2 million for inverters, $7.8 million for racking and electrical balance of system and $6.1 million for construction labor and site preparation. Engineering, permits and environmental studies cost $1.4 million. All are capitalized as part of the farm.

The local utility required the producer to pay $3.9 million for a new substation and transmission line upgrades before it would connect the farm to the grid. The utility owns those upgrades, but the producer could not operate without them and receives the right to deliver power. The producer capitalizes the payment as an intangible asset for the interconnection right, amortized over the power purchase contract's 25-year term, rather than as part of the solar equipment.

Capitalized Interest

The project was financed during construction with a $40 million loan at 7%. Interest incurred during the period of construction on qualifying expenditures is capitalized (Financial Accounting Standards Board, 1979). Weighted-average accumulated expenditures over the eighteen months were about $24 million, so capitalized interest is about $2.5 million, less than the interest actually incurred. Interest after January 1, when the farm began operating, is expensed.

The Asset Retirement Obligation

The lease requires removal of panels, racking and cabling and restoration of the soil. A legal obligation to retire a long-lived asset is recognized when incurred, at fair value, and the same amount is added to the asset's carrying amount (Financial Accounting Standards Board, 2001). The obligation arose as the farm was built.

An engineering firm estimated removal and restoration at $3.6 million in current dollars, net of no salvage because panel resale values are uncertain. Assuming 2.5% annual inflation, the cost in thirty years, at the expected removal date, is about $7.55 million. Discounted at the producer's credit-adjusted risk-free rate of 6.5%, the present value is about $1.14 million. The producer records an asset retirement cost of $1.14 million, added to the solar farm's carrying amount, and an asset retirement obligation of the same amount.

Each year the obligation grows toward its future amount through accretion, recognized as an operating expense. First-year accretion is 6.5% of $1.14 million, about $74,000. The asset retirement cost is depreciated with the farm over thirty years, about $38,000 a year.

Choosing Components

The producer depreciates the farm in components. Panels and racking, with a warranty and expected life of thirty years, are depreciated straight-line over thirty years. Inverters, which convert power and typically need replacement after about fifteen years, are depreciated over fifteen. Separating them avoids overstating the asset when inverters are replaced. First-year depreciation is about $1.55 million for panels, racking, balance of system, labor, soft costs and capitalized interest, $280,000 for inverters and $38,000 for the retirement cost.

The Investment Tax Credit

The project qualifies for a federal investment tax credit of 30% of eligible costs, about $13.6 million. Under the income tax guidance, companies may account for such credits using the flow-through method, reducing tax expense when claimed, or the deferral method, reducing the asset's cost or deferring the credit over its life. The producer uses the deferral method, deferring the credit and recognizing it over the farm's thirty-year life, which matches the benefit to the years the asset produces power.

The Land Lease

The farmland itself is leased, not owned, for 35 years with fixed annual payments that escalate 2% a year. At commencement the producer put the land lease on its balance sheet at the present value of the payments, as both an obligation and a right to use the land, separate from the solar equipment. The removal obligation arises from the same lease but is accounted for under the retirement obligation guidance, not as a lease payment, because it is a cost of retiring the producer's own equipment rather than consideration for using the land.

Impairment Watch

Long-lived assets are tested for recoverability when events suggest the carrying amount may not be recovered. For a solar farm under a fixed-price contract, that risk is low for 25 years, but the last years depend on market power prices after the contract ends. The producer will monitor forward power prices and panel degradation; a sharp decline in either could trigger a recoverability test comparing undiscounted cash flows over the remaining life with the carrying amount.

Sensitivity of the Estimates

The retirement obligation is highly sensitive to its assumptions. At 3% inflation, the present value would be about $1.32 million; at a 7.5% discount rate, about $0.86 million. The useful lives are also judgments: a thirty-five-year panel life would reduce annual depreciation by about 14%. Jackson et al. (2009) found that depreciation choices had real economic consequences, with firms using accelerated methods investing more in capital assets. For a power producer whose contracts are priced on expected costs, those choices shape reported margins for decades.

Operating Costs After Construction

Once the farm operates, spending must again be sorted. Panel cleaning, vegetation management and routine inverter maintenance are expensed. Replacing a failed inverter is a capital expenditure, and the old inverter's remaining book value is written off, which is simpler because inverters were set up as a separate component. Adding battery storage in a later year would be a new asset with its own life, not a repair.

Disclosure

The producer discloses its components and lives, the capitalized interest, the retirement obligation with a reconciliation of its beginning and ending balances, the key assumptions and the tax credit method. Lenders and tax equity investors in the project read these notes closely, since their returns depend on the farm's costs and lives.

Conclusion

The solar farm's recorded cost includes equipment, labor, soft costs and about $2.5 million of capitalized interest, plus a $1.14 million retirement cost for the removal and restoration the lease requires. The interconnection payment is a separate intangible. Depreciation by component, accretion of the obligation and deferral of the tax credit spread the project's cost over the years it will produce power, and disclosure of the estimates lets readers judge them.

References

Financial Accounting Standards Board. (1979). Capitalization of interest cost (Statement of Financial Accounting Standards No. 34).

Financial Accounting Standards Board. (2001). Accounting for asset retirement obligations (Statement of Financial Accounting Standards No. 143).

Jackson, S. B., Liu, X., & Cecchini, M. (2009). Economic consequences of firms' depreciation method choice: Evidence from capital investments. Journal of Accounting and Economics, 48(1), 54-68. https://doi.org/10.1016/j.jacceco.2009.06.001