BUS 6573 Module 2 Capital Budgeting and Valuation Model Example

Reviewed by Hollis Fairweather, PhD · American College of Education · Updated

This BUS 6573 Module 2 example builds a capital budgeting and valuation model for a composite Nashville private-label food manufacturer weighing a $140 million plant automation program against a $210 million acquisition. Set in APA 7 for American College of Education BUS 6573, Enterprise Financial Strategy and Operations (BUS6573 in the Doctor of Business Administration (DBA)), it continues the course case. A capital asset pricing model cost of equity of 8.9 percent yields a 7.5 percent cost of capital and an 8 percent hurdle. Ten years of cash flows give a net present value of $21.0 million, an 11.0 percent return and a six-year payback, while the acquisition target is valued at about $165 million.

CourseBUS 6573 Enterprise Financial Strategy and Operations
ModuleModule 2
Paper typeCapital budgeting and valuation model
Length1,180 words, about 4 pages plus title and reference pages
FormatAPA 7 student paper
SchoolAmerican College of Education
ProgramDoctor of Business Administration
UpdatedOctober 2026

Free sample paper for BUS 6573 Module 2

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$140 Million for Robots: A Capital Budgeting Model for Plant Automation, With the Acquisition Valued Alongside

Student Name

American College of Education

BUS6573: Enterprise Financial Strategy and Operations

Module 2 Assignment

Instructor Name

August 19, 2030

What this page is doingPutting the investment amount in the title shows the paper is about a specific decision with real numbers.
2

Introduction

My opening analysis showed that Cumberland Foods, a composite Nashville private-label food maker, faces about $540 million of competing claims on capital over three years but can fund roughly $300 million without new equity. The biggest items on that list are the robotic packaging lines planned for two plants and the purchase of an organic snack company. This paper builds the financial models needed to compare them. It estimates the company's cost of capital, projects the automation program's cash flows and computes three decision measures, then values the acquisition target on the same basis.

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Estimating the Cost of Equity

Because the capital asset pricing model was the approach most chief financial officers reported relying on (Graham & Harvey, 2001), it anchors the estimate here, with its limits noted. The inputs are a risk-free rate of 4.2 percent, based on the ten-year Treasury yield; a beta of 0.85, the average of Cumberland's five-year monthly beta and the median of three packaged food peers; and an expected premium of stocks over Treasuries of 5.5 percent, a middle-of-the-road figure among those analysts adopt. Equity therefore costs 4.2 percent plus 0.85 times 5.5 percent, or 8.9 percent. Fama and French (2004) reviewed evidence that the model's predictions fit actual returns poorly, which is why the hurdle rate below includes a margin.

What this page is doingCiting both the model's popularity and its empirical weaknesses shows the writer chose it knowingly rather than by default.
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Weighted Average Cost of Capital

Cumberland's debt carries an average interest rate of 5.4 percent, or 4.1 percent after tax at a 24 percent rate. Using market values, equity of $1.32 billion and debt of $520 million give weights of 71.7 and 28.3 percent. The weighted average cost of capital is 0.717 times 8.9 percent plus 0.283 times 4.1 percent, or 7.5 percent. Because the automation program involves new technology and execution risk, the analysis uses a hurdle rate of 8.0 percent, half a point above the company's average cost of capital, and tests other rates in the next module.

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Automation Program Assumptions

The program installs robotic packaging and palletizing lines in the Murfreesboro and Cookeville plants at a total cost of $140 million, spent at the start. Engineering estimates, based on vendor quotes and a pilot line, project annual pre-tax savings of $28 million at full operation: $26 million in labor and overtime, $6 million from less scrap and rework, less $4 million of added maintenance and software. Savings reach 60 percent in the first year as lines ramp up and 100 percent thereafter. The equipment is depreciated straight-line over its ten-year life for tax purposes, and its salvage value at the end is estimated at $10 million. Working capital is unchanged.

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Annual Cash Flows

Each year's after-tax cash flow equals savings after tax plus the tax saved by depreciation. Depreciation is $14 million a year, so its tax shield is $3.4 million. In the first year, savings of $16.8 million become $12.8 million after tax, giving a cash flow of $16.1 million. In years two through nine, savings of $28 million become $21.3 million after tax, giving $24.6 million a year. In year ten, the $7.6 million after-tax salvage raises the cash flow to $32.2 million. The model assumes savings stay flat in nominal terms, a conservative choice since wage costs are likely to rise.

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Net Present Value

Discounting these cash flows at 8.0 percent and subtracting the $140 million investment gives a net present value of $21.0 million. In other words, after recovering its cost and earning the required return, the program is expected to add about $21 million of value for shareholders, or roughly $0.53 per share. A positive net present value at a hurdle rate above the cost of capital supports proceeding, subject to the risks examined in the next module.

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Return and Recovery Time

Measured as an internal rate of return, meaning the yield at which its cash flows exactly repay the $140 million, the program earns 11.0 percent, about 3.5 points above the cost of capital. The payback period, the time needed for cumulative cash flows to recover the investment, is about 6.0 years. Graham and Harvey (2001) found that many executives also consult payback despite its known flaws, because it signals how long capital is exposed. A six-year payback on ten-year equipment leaves a moderate cushion, which explains why the next module's sensitivity tests matter.

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Break-Even Savings

A useful check is the level of savings at which the program just breaks even. Holding other assumptions constant, the net present value falls to zero if full-year savings are about $23.7 million rather than $28 million, a shortfall of about 15 percent. Since labor savings make up most of the total, the program's value depends heavily on how many positions automation actually replaces and on future wage levels. This sensitivity anticipates the scenario analysis that follows.

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Valuing the Acquisition Target

The organic snack brand earns EBITDA of about $17 million, with depreciation of $3 million and capital spending of $4 million a year. Its free cash flow is therefore about $9.6 million after tax. Assuming growth of 3 percent a year indefinitely and a 9.0 percent discount rate, higher than Cumberland's because the brand is smaller and less diversified, the standalone value is $9.6 million times 1.03, divided by 6.0 percent, or about $165 million. Damodaran (2012) emphasized that acquisition prices must be justified by standalone value plus realistic synergies, which here would need a present value of about $45 million to reach the $210 million asking price.

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Comparing the Two Investments

On these models, automation creates about $21 million of value for $140 million of capital, while the acquisition at its asking price destroys about $45 million unless synergies of that size materialize. Synergies of $45 million in present value would require roughly $3.6 million a year of pre-tax cost savings or added profit, growing over time, or more than 20 percent of the target's current earnings. Such synergies are possible through shared distribution, but acquirers commonly overestimate them, and the burden of proof should rest on the acquisition.

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Model Limitations

The model simplifies in several ways. It uses straight-line depreciation, although accelerated tax depreciation would raise early cash flows and the net present value. It ignores inflation in both savings and costs. It treats the cost of capital as constant over ten years. And the capital asset pricing model inputs carry estimation error. Brealey et al. (2020) noted that discounted cash flow results are only as reliable as their forecasts, which is why the next module tests the key assumptions under scenarios and sensitivity analysis.

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Conclusion

At a weighted average cost of capital of 7.5 percent and an 8.0 percent hurdle, Cumberland's $140 million automation program has a net present value of $21.0 million, an internal rate of return of 11.0 percent and a payback of about six years, breaking even if savings fall about 15 percent short. The acquisition target is worth about $165 million standalone against a $210 million price, requiring large synergies to justify. Automation is the stronger investment on these figures, pending the risk testing in the next module.

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References

Brealey, R. A., Myers, S. C., & Allen, F. (2020). Principles of corporate finance (13th ed.). McGraw-Hill Education.

Damodaran, A. (2012). Investment valuation: Tools and techniques for determining the value of any asset (3rd ed.). Wiley.

Fama, E. F., & French, K. R. (2004). The capital asset pricing model: Theory and evidence. Journal of Economic Perspectives, 18(3), 25-46. https://doi.org/10.1257/0895330042162430

Graham, J. R., & Harvey, C. R. (2001). The theory and practice of corporate finance: Evidence from the field. Journal of Financial Economics, 60(2-3), 187-243. https://doi.org/10.1016/S0304-405X(01)00044-7

What the BUS 6573 Module 2 instructions ask for

The second BUS 6573 paper often asks you to build a valuation or capital budgeting model. Estimate the cost of capital with stated inputs and sources, project cash flows year by year with clear assumptions about investment, savings or revenue, taxes, depreciation, working capital and salvage, and compute decision measures such as net present value, internal rate of return and payback. Most prompts reward showing the arithmetic, explaining the choice of discount rate and noting the limits of the model. If the case has competing uses of capital, value them on the same basis. Cite finance research and texts in APA 7, and keep every number consistent with your first paper.

How the BUS 6573 Module 2 example is put together

The sample estimates the cost of equity with the capital asset pricing model, noting evidence of its weaknesses, then computes a 7.5 percent weighted cost of capital from market weights and sets an 8.0 percent hurdle. Automation assumptions come from vendor quotes and a pilot line. Cash flows are built from after-tax savings and the depreciation tax shield, with a first-year ramp and salvage. The model yields an NPV of $21.0 million, an IRR of 11.0 percent and a six-year payback, with break-even savings near $23.7 million. The acquisition is valued at $165 million standalone, showing the synergies its price assumes. Each figure in the text can be traced to an input stated earlier, which makes the model auditable.

Where the points sit in the BUS 6573 Module 2 rubric

Valuation papers are graded on correct methods, transparent assumptions and sound interpretation. Graders check that the cost of capital is built from defensible inputs, that cash flows follow from stated assumptions, that taxes and depreciation are handled correctly and that decision measures are computed and explained. Strong papers compare alternatives on the same basis, compute break-even values and admit what the model leaves out. Papers that present results without inputs, mix nominal and real figures or treat a single estimate as certain usually score lower. Including a cash flow schedule, either in the text or an appendix, and citing methods sources completes a strong submission. A short note on which assumptions matter most prepares the reader for sensitivity testing.

Common BUS 6573 Module 2 mistakes, and how to avoid them

Capital budgeting models must be both correct and explainable to readers who may never open the spreadsheet. We can help you choose and source the inputs, estimate the cost of capital, build year-by-year cash flows and compute and interpret NPV, IRR, payback and break-even values. Send the assignment and any figures from your case, and we will deliver a model and a paper that explain each step. Manufacturing, health care, energy, retail and real estate projects all fit. Most models are finished within about three days, with a cash flow schedule formatted as an APA table. The spreadsheet itself can be included. Formulas are explained in plain language.

Write yours, or have the desk draft it

This paper is an original model document written by our desk, not a submitted student paper and not an official American College of Education document. Read it for the moves, then write your own to the instructions in your classroom. If you want one built to your exact prompt and rubric, the first custom sample is free and arrives in 24 to 48 hours.

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BUS 6573 Module 2 questions, answered

What does BUS6573 Module 2 usually ask for?

The second BUS6573 module often asks you to build a valuation or capital budgeting model with stated assumptions and calculations.

How do I calculate WACC?

Weight the after-tax cost of debt and the cost of equity by their market values; here 0.717 times 8.9 percent plus 0.283 times 4.1 percent gives 7.5 percent.

Why use a hurdle rate above WACC?

To allow for project-specific risk, such as new technology, that the company's average cost of capital does not capture.

Where can I find a free BUS 6573 Module 2 sample paper?

This page has one: an automation capital budgeting model with NPV, IRR and payback, plus a valuation of an acquisition target.

Should I show my calculations in the paper?

Yes; state each input and its source and show the main steps, with a full schedule in a table or appendix if allowed.