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11.4: Use Discounted Cash Flow Models to Make Capital Investment Decisions

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    5252
  • Your company, Rudolph Incorporated, has begun analyzing two potential future project alternatives that have passed the basic screening using the non–time value methods of determining the payback period and the accounting rate of return. Both proposed projects seem reasonable, but your company typically selects only one option to pursue. Which one should you choose? How will you decide? A discounted cash flow model can assist with this process. In this section, we will discuss two commonly used time value of money–based options: the net present value method (NPV) and the internal rate of return (IRR). Both of these methods are based on the discounted cash flow process.

    Fundamentals of the Discounted Cash Flow Model

    The discount cash flow model assigns a value to a business opportunity using time-value measurement tools. The model considers future cash flows of the project, discounts them back to present time, and compares the outcome to an expected rate of return. If the outcome exceeds the expected rate of return and initial investment cost, the company would consider the investment. If the outcome does not exceed the expected rate of return or the initial investment, the company may not consider investment. When considering the discounted cash flow process, the time value of money plays a major role.

    Time Value-Based Methods

    As previously discussed, time value of money methods assume that the value of money today is worth more now than in the future. The payback period and accounting rate of return methods do not consider this concept when performing calculations and analyzing results. That is why they are typically only used as basic screening tools. To decide the best option between alternatives, a company performs preference measurement using tools, such as net present value and internal rate of return that do consider the time value of money concept. Net present value (NPV) discounts future cash flows to their present value at the expected rate of return and compares that to the initial investment. NPV does not determine the actual rate of return earned by a project. The internal rate of return (IRR) shows the profitability or growth potential of an investment at the point where NPV equals zero, so it determines the actual rate of return a project earns. As the name implies, net present value is stated in dollars, whereas the internal rate of return is stated as an interest rate. Both NPV and IRR require the company to determine a rate of return to be used as the target return rate, such as the minimum required rate of return or the weighted average cost of capital, which will be discussed in Balanced Scorecard and Other Performance Measures.

    A positive NPV implies that the present value of the cash inflows from the project are greater than the present value of the cash outflows, which represent the expenses and costs associated with the project. In an NPV calculation, a positive NPV is typically considered a potentially good investment or project. However, other extenuating circumstances should be considered. For example, the company might not wish to borrow the necessary funding to make the investment because the company might be anticipating a downturn in the national economy.

    An IRR analysis compares the calculated IRR with either a predetermined rate of return or the cost of borrowing the money to invest in the project in order to determine whether a potential investment or project is favorable. For example, assume that the investment or equipment purchase is expected to generate an IRR of \(15\%\) and the company’s expected rate of return is \(12\%\). In this case, similar to the NPV calculation, we assume that the proposed investment would be undertaken. However, remember that other factors must be considered, as they are with NPV.

    When considering cash inflows—whether using NPV or IRR—the accountant should examine both profits generated or expenses reduced. Investments that are made may generate additional revenue or could reduce production costs. Both cases assume that the new product or other type of investment generates a positive cash inflow that will be compared to the cost outflows to determine whether there is an overall positive or negative net present value.

    Additionally, a company would determine whether the projects being considered are mutually exclusive or not. If the projects or investment options are mutually exclusive, the company can evaluate and identify more than one alternative as a viable project or investment, but they can only invest in one option. For example, if a company needs one new delivery truck, it might solicit proposals from five different truck dealers and conduct NPV and IRR evaluations. Even if all proposals pass the financial requirements of the NPV and IRR methods, only one proposal will be accepted.

    Another consideration occurs when a company has the ability to evaluate and accept multiple proposals. For example, an automobile manufacturer is considering expanding its number of dealerships in the United States over the next ten-year period and has allocated \(\$30,000,000\) to buy the land. They could purchase any number of properties. They conduct NPV and IRR analyses of fifteen properties and determine that four meet their required standards and market feasibility needs and then purchase those four properties. The opportunities were not mutually exclusive: the number of properties purchased was driven by research and expansion projections, not by their need for only one option.

    CONTINUING APPLICATION: Capital Budgeting Decisions

    Gearhead Outfitters has expanded to many locations throughout its twenty-plus years in business. How did company management decide to expand? One of the financial tools a business can use is capital budgeting, which addresses many different issues involving the use of current cash flow for future return. As you’ve learned, capital outlay decisions can be evaluated through payback period, net present value, and methods involving rates of return.

    With this in mind, think about the capital budgeting issues Gearhead’s management might have faced. For example, in deciding to expand, should the company buy a building or lease one? What method should be used to evaluate this? Purchasing a building might require more initial outlay, but the company will retain an asset. How will such a decision affect the bottom line? With respect to equipment, Gearhead could maintain a fleet of vehicles. Should the vehicles be purchased or leased? What will need to be considered in the process?

    In developing and maintaining its strategy for sustainability, a business must not only consider day-to-day operations, but also address long-term decisions. Common capital budgeting items like equipment purchases to increase efficiency or reduce costs, decisions about replacement versus repair, and expansion all involve significant cash outlay. How will these items be evaluated? How long will recouping the initial investment take? How much revenue will be generated (or costs saved) through capital outlay? Does the company require a minimum rate of return before it moves forward with investment? If so, how is that return determined? Considering Gearhead’s decision to expand, what are some specific capital budgeting decisions important for the company to consider in their long-term strategy?

    Basic Characteristics of the Net Present Value Model

    Net present value helps companies choose between alternatives at a particular point in time by determining which produces the higher NPV. To determine the NPV, the initial investment is subtracted from the present value of cash inflows and outflows associated with a project at a required rate of return. If the outcome is positive, the company should consider investment. If the outcome is negative, the company would forgo investment.

    We previously discussed the calculation for present value using the present value tables, where n is the number of years and i is the expected interest rate. Once the present value factor is determined, it is multiplied by the expected net cash flows to produce the present value of future cash flows. The initial investment is subtracted from this present value calculation to determine the net present value.

    \[\text { Net present value }=\text { Sum of Present Value of net cash flows - Initial Investment } \]

    Recall that the Present Value of \(\$1\) table is used for a lump sum payout, whereas the Present Value of an Ordinary Annuity table is used for a series of equal payments occurring at the end of each period. Taking this distinction one step further, NPV requires use of different tables depending on whether the future cash flows are equal or unequal in each time period. If the cash flows each period are equal, the company uses the Present Value of an Ordinary Annuity table, where the present value factor is multiplied by the cash flow amount for one period to get the present value. If the cash flows each period are unequal, the company uses the Present Value of \(\$1\) table, where the total present value is the sum of each of the unequal cash flows multiplied by the appropriate present value factor for each time period. This concept is discussed in the following example.

    Assume that your company, Rudolph Incorporated, is determining the NPV for a new X-ray machine. The X-ray machine has an initial investment of \(\$200,000\) and an expected cash flow of \(\$40,000\) each period for the next \(10\) years. The expected \(\$40,000\) cash flows from the new X-ray machine can be attributed to either additional revenue generated or cost savings realized by more efficient operations of the new machine. Since these annual cash flows of \(\$40,000\) are the same amount in each period over the ten-years this will be a stream of annuity amounts received. The required rate of return on such an investment is \(8\%\). The present value factor (\(i\) \(= 8\), \(n\) \(= 10\)) is \(6.710\) using the Present Value of an Ordinary Annuity table. Multiplying the present value factor (\(6.710\)) by the equal cash flow (\(\$40,000\)) gives a present value of \(\$268,400\). NPV is found by taking the present value of \(\$268,400\) and subtracting the initial investment of \(\$200,000\) to arrive at \(\$68,400\). This is a positive NPV, so the company would consider investment.

    Present Value of an Ordinary Annuity Table. Columns represent Rate (i), and rows represent Periods (n). Period, 1%, 2%, 3%, 5%, 8% respectively: 1, 0.990, 0.980, 0.971, 0.952, 0.926; 2, 1.970, 1.942, 1.913, 1,859, 1.783; 3, 2.941, 2.884, 2.829, 2.723, 2.577; 4, 3.902, 3.808, 3.717, 3.546, 3.312; 5, 4.853, 4.713, 4.580, 4.329, 3.993; 6, 5.795, 5.601, 5.417, 5.076, 4.623; 7, 6.728, 6.472, 6.230, 5.786, 5.206; 8, 7.652, 7.325, 7.020, 6.463, 5.747; 9, 8.566, 8.162, 7.786. 7.108, 6.247; 10, 9.471, 8.983, 8.530, 7.722, 6.710 (highlighted).
    Figure \(\PageIndex{1}\): Present Value of an ordinary Equity table

    If there are two investments that have a positive NPV, and the investments are mutually exclusive, meaning only one can be chosen, the more profitable of the two investments is typically the appropriate one for a company to choose. We can also use the profitability index to compare them. The profitability index measures the amount of profit returned for each dollar invested in a project. This is particularly useful when projects being evaluated are of a different size, as the profitability index scales the projects to make them comparable. The profitability index is found by taking the present value of the net cash flows and dividing by the initial investment cost.

    \[\text { Profitability index }=\dfrac{\text { Present value of cash flows }}{\text { Initial investment cost }} \]

    For example, Rudolph Incorporated is considering the X-ray machine that had present value cash flows of \(\$268,400\) (not considering salvage value) and an initial investment cost of \(\$200,000\). Another X-ray equipment option, option B, produces present value cash flows of \(\$290,000\) and an initial investment cost of \(\$240,000\). The profitability index is computed as follows.

    \[\begin{array}{l}{\text { Option } \mathrm{A}: \dfrac{\$ 268,400}{\$ 200,000}=1.342} \\ {\text { Option } \mathrm{B}: \dfrac{\$ 290,000}{\$ 240,000}=1.208}\end{array} \nonumber \]

    Based on this outcome, the company would invest in Option A, the project with a higher profitability index of \(1.342\).

    If there were unequal cash flows each period, the Present Value of \(\$1\) table would be used with a more complex calculation. Each year’s present value factor is determined and multiplied by that year’s cash flow. Then all cash flows are added together to get one overall present value figure. This overall present value figure is used when finding the difference between present value and the initial investment cost.

    For example, let’s say the X-ray machine information is the same, except now cash flows are as follows:

    Year, Cash Flow Amount (respectively): 1, $20,000; 2, 25,000; 3, 20,000; 4, 40,000; 5, 40,000; 6, 60,000; 7, 30,000; 8, 35,000; 9, 25,000; 10, 45,000.
    Figure \(\PageIndex{2}\): Cash flow sample

    To find the overall present value, the following calculations take place using the present value of \(\$1\) table.

    Year, Cash Flow Amount, PV Factor (i = 8, n = specific year), Present Value (respectively): 1, $20,000, (i = 8, n = 1) = 0.926, 0.926 x $20,000 = $18,520; 2, 25,000, (i = 8, n = 2) = 0.857, 0.857 x $25,000 = $21,425; 3, 20,000, (i = 8, n = 3) = 0.794, 0.794 x $20,000 = $15,880; 4, 40,000, (i = 8, n = 4) = 0.735, 0.735 x $40,000 = $29,400; 5, 40,000, (i = 8, n = 5) = 0.681, 0.681 x $40,000 = $27,240; 6, 60,000, (i = 8, n = 6) = 0.630, 0.630 x $60,000 = $37,800; 7, 30,000, (i = 8, n = 7) = 0.583, 0.583 x $30,000 = $17,490; 8, 35,000, (i = 8, n = 8) = 0.540, 0.540 x $35,000 = $18,900; 9, 25,000, (i = 8, n = 9) = 0.500, 0.500 x $25,000 = $12,500; 10, 45,000, (i = 8, n = 10) = 0.463, 0.463 x $45,000 = $20,835; Total, $340,000, - , $219,990.
    Figure \(\PageIndex{3}\): Sample calculations using the present value table

    The Present Value of \(\$1\) table is used because, each year, a new “lump sum” cash flow is received, so the cash flow in each period is different. The cash flows are treated as one-time lump sum payouts during that year. The present value for each period looks at each year’s present value factor at an interest rate of \(8\%\). All the PVs are added together for a total present value of \(\$219,990\). The initial investment of \(\$200,000\) is subtracted from the \(\$219,990\) to arrive at a positive NPV of \(\$19,990\). In this case, the company would consider investment since the outcome is positive. (More complex considerations, such as depreciation, the effects of income taxes, and inflation, which could affect the overall NPV, are covered in advanced accounting courses.)

    Example \(\PageIndex{1}\): Analyzing a Postage Meter Investment

    Yellow Industries is considering investment in a new postage meter system. The postage meter system would have an initial investment cost of \(\$135,000\). Annual net cash flows are \(\$40,000\) for the next \(5\) years, and the expected interest rate return is \(10\%\). Calculate net present value and decide whether or not Yellow Industries should invest in the new postage meter system.

    Solution

    Use the Present Value of an Ordinary Annuity table. Present value factor at \(n\) \(= 5\) and \(i\) \(= 10\%\) is \(3.791\). \(\text {Present value} = 3.791 × \$40,000 = \$151,640\). \(\text {NPV} = \$151,640 − \$135,000 = \$16,640\). In this case, Yellow Industries should invest since the NPV is positive.

    Calculation and Discussion of the Results of the Net Present Value Model

    To demonstrate NPV, assume that a company, Rayford Machining, is considering buying a drill press that will have an initial investment cost of \(\$50,000\) and annual cash flows of \(\$10,000\) for the next \(7\) years. Assume that Rayford expects a \(5\%\) rate of return on such an investment. We need to determine the NPV when cash flows are equal. The present value factor (\(i\) \(= 5\), \(n\) \(= 7\)) is \(5.786\) using the Present Value of an Ordinary Annuity table. We multiply \(5.786\) by the equal cash flow of \(\$10,000\) to get a present value of \(\$57,860\). NPV is found by taking the present value of \(\$57,860\) and subtracting the initial investment of \(\$50,000\) to arrive at \(\$7,860\). This is a positive NPV, so the company would consider the investment.

    Present Value of an Ordinary Annuity Table. Columns represent Rate (i), and rows represent Periods (n). Period, 1%, 2%, 3%, 5%, respectively: 1, 0.990, 0.980, 0.971, 0.952; 2, 1.970, 1.942, 1.913, 1,859; 3, 2.941, 2.884, 2.829, 2.723; 4, 3.902, 3.808, 3.717, 3.546; 5, 4.853, 4.713, 4.580, 4.329; 6, 5.795, 5.601, 5.417, 5.076; 7, 6.728, 6.472, 6.230, 5.786 (highlighted).
    Figure \(\PageIndex{4}\): Present Value of an ordinary Equity table

    Let’s say Rayford Machining has another option, Option B, for a drill press purchase with an initial investment cost of \(\$56,000\) that produces present value cash flows of \(\$60,500\). The profitability index is computed as follows.

    \[\begin{array}{l}{\text { Option } \mathrm{A}: \dfrac{\$ 57,860}{\$ 50,000}=1.157} \\ {\text { Option } \mathrm{B}: \dfrac{\$ 60,500}{\$ 56,000}=1.080}\end{array} \nonumber \]

    Based on this outcome, the company would invest in Option A, the project with a higher profitability potential of \(1.157\).

    Now let’s assume cash flows are unequal. Unequal cash flow information for Rayford Machining is summarized here.

    Year, Net Cash Flow Amount (respectively): 1, $10,000; 2, 5,000; 3, 7,000; 4, 3,000; 5, 10,000; 6, 10,000; 7, 10,000.

    To find the overall present value, the following calculations take place using the Present Value of \(\$1\) table.

    Year, Cash Flow Amount, PV Factor (i = 5, n = specific year), Present Value (respectively): 1, $10,000, (i = 5, n = 1) = 0.952, 0.952 x $10,000 = $9,520; 2, 5,000, (i = 5, n = 2) = 0.907, 0.907 x $5,000 = $4,535; 3, 7,000, (i = 5, n = 3) = 0.864, 0.864 x $7,000 = $6,048; 4, 3,000, (i = 5, n = 4) = 0.823, 0.823 x $3,000 = $2,469; 5, 10,000, (i = 5, n = 5) = 0.784, 0.784 x $10,000 = $7,840; 6, 10,000, (i = 5, n = 6) = 0.746, 0.746 x $10,000 = $7,460; 7, 10,000, (i = 5, n = 7) = 0.711, 0.711 x 10,000 = $7,110; Total, $55,000, - , $44,982.
    Figure \(\PageIndex{5}\): Sample calculations using the present value table

    The present value for each period looks at each year’s present value factor at an interest rate of \(5\%\). All individual year present values are added together for a total present value of \(\$44,982\). The initial investment of \(\$50,000\) is subtracted from the \(\$44,982\) to arrive at a negative NPV of \(\$5,018\). In this case, Rayford Machining would not invest, since the outcome is negative. The negative NPV value does not mean the investment would be unprofitable; rather, it means the investment does not return the desired \(5\%\) the company is looking for in the investments that it makes.

    Basic Characteristics of the Internal Rate of Return Model

    The internal rate of return model allows for the comparison of profitability or growth potential among alternatives. All external factors, such as inflation, are removed from calculation, and the project with the highest return rate percentage is considered for investment.

    IRR is the discounted rate (interest rate) point at which NPV equals zero. In other words, the IRR is the point at which the present value cash inflows equal the initial investment cost. To consider investment, IRR needs to meet or exceed the required rate of return for the investment type. If IRR does not meet the required rate of return, the company will forgo investment.

    To find IRR using the present value tables, we need to know the cash flow number of return periods (\(n\)) and the intersecting present value factor. To calculate present value factor, we use the following formula.

    \[\text { Present value Factor }=\dfrac{\text { Initial Investment cost }}{\text { Annual Net Cash Flows }} \]

    We find the present value factor in the present value table in the row with the corresponding number of periods (\(n\)). We find the matching interest rate (\(i\)) at this present value factor. The corresponding interest rate at the number of periods (\(n\)) is the IRR. When cash flows are equal, use the Present Value of an Ordinary Annuity table to find IRR.

    For example, a car manufacturer needs to replace welding equipment. The initial investment cost is \(\$312,000\) and each annual net cash flow is \(\$49,944\) for the next \(9\) years. We need to find the internal rate of return for this welding equipment. The expected rate of return for such a purchase is \(6\%\). In this case, \(n\) \(= 9\) and the present value factor is computed as follows.

    \[\text { Present Value Factor }=\frac{\$ 312,000}{\$ 49,944}=6.247(\text { rounded }) \nonumber \]

    Looking at the Present Value of an Ordinary Annuity table, where \(n\) \(= 9\) and the present value factor is \(6.247\), we discover that the corresponding return rate is \(8\%\). This exceeds the expected return rate, so the company would typically invest in the project.

    Present Value of an Ordinary Annuity Table. Columns represent Rate (i), and rows represent Periods (n). Period, 1%, 2%, 3%, 5%, 8%, 10% respectively: 1, 0.990, 0.980, 0.971, 0.952, 0.926, 0.909; 2, 1.970, 1.942, 1.913, 1,859, 1.783, 1.736; 3, 2.941, 2.884, 2.829, 2.723, 2.577, 2.487; 4, 3.902, 3.808, 3.717, 3.546, 3.312, 3,170; 5, 4.853, 4.713, 4.580, 4.329, 3.993, 3.791; 6, 5.795, 5.601, 5.417, 5.076, 4.623, 4.355; 7, 6.728, 6.472, 6.230, 5.786, 5.206, 4.868; 8, 7.652, 7.325, 7.020, 6.463, 5.747, 5.335; 9, 8.566, 8.162, 7.786. 7.108, 6.247 (highlighted), 5.759.
    Figure \(\PageIndex{6}\): Sample calculations using the present value table

    If there is more than one viable option, the company will select the alternative with the highest IRR that exceeds the expected rate of return.

    Our tables are limited in scope, and therefore, a present value factor may fall in between two interest rates. When this is the case, you may choose to identify an IRR range instead of a single interest rate figure. A spreadsheet program or financial calculator can produce a more accurate result and can also be used when cash flows are unequal.

    Calculation and Discussion of the Results of the Internal Rate of Return Model

    Assume that Rayford Machining wants to know the internal rate of return for the new drill press. The drill press has an initial investment cost of \(\$50,000\) and an annual cash flow of \(\$10,000\) for each of the next seven years. The company expects a \(7\%\) rate of return on this type of investment. We calculate the present value factor as:

    \[\text { Present Value Factor }=\frac{\$ 50,000}{\$ 10,000}=5.000 \nonumber \]

    Scanning the Present Value of an Ordinary Annuity table reveals that the interest rate where the present value factor is \(5\) and the number of periods is \(7\) is between \(8\) and \(10\%\). Since the required rate of return was \(7\%\), Rayford would consider investment in this metal press machine.

    Present Value of an Ordinary Annuity Table. Columns represent Rate (i), and rows represent Periods (n). Period, 1%, 2%, 3%, 5%, 8%, 10% respectively: 1, 0.990, 0.980, 0.971, 0.952, 0.926, 0.909; 2, 1.970, 1.942, 1.913, 1,859, 1.783, 1.736; 3, 2.941, 2.884, 2.829, 2.723, 2.577, 2.487; 4, 3.902, 3.808, 3.717, 3.546, 3.312, 3,170; 5, 4.853, 4.713, 4.580, 4.329, 3.993, 3.791; 6, 5.795, 5.601, 5.417, 5.076, 4.623, 4.355; 7, 6.728, 6.472, 6.230, 5.786, 5.206 (highlighted), 4.868 (highlighted); 8, 7.652, 7.325, 7.020, 6.463, 5.747, 5.335; 9, 8.566, 8.162, 7.786. 7.108, 6.247, 5.759.
    Figure \(\PageIndex{7}\): Sample calculations using the present value table

    Consider another example using Rayford, where they have two drill press purchase options. Option A has an IRR between \(8\%\) and \(10\%\). The other option, Option B, has an initial investment cost of \(\$60,500\) and equal annual net cash flows of \(\$13,256\) for the next seven years. We calculate the present value factor as:

    \[\text { Present Value Factor }=\dfrac{\$ 60,500}{\$ 13,256}=4.564(\text { rounded }) \nonumber \]

    Scanning the Present Value of an Ordinary Annuity table reveals that, when the present value factor is \(4.564\) and the number of periods is \(7\), the interest rate is \(12\%\). This not only exceeds the \(7\%\) required rate, it also exceeds Option A’s return of \(8\%\) to \(10\%\). Therefore, if resources were limited, Rayford would select Option B over Option A.

    Present Value of an Ordinary Annuity Table. Columns represent Rate (i), and rows represent Periods (n). Period, 1%, 2%, 3%, 5%, 8%, 10%, 12% respectively: 1, 0.990, 0.980, 0.971, 0.952, 0.926, 0.909, 0.893; 2, 1.970, 1.942, 1.913, 1,859, 1.783, 1.736, 1.690; 3, 2.941, 2.884, 2.829, 2.723, 2.577, 2.487, 2.402; 4, 3.902, 3.808, 3.717, 3.546, 3.312, 3,170, 3.037; 5, 4.853, 4.713, 4.580, 4.329, 3.993, 3.791, 3.605; 6, 5.795, 5.601, 5.417, 5.076, 4.623, 4.355, 4.111; 7, 6.728, 6.472, 6.230, 5.786, 5.206, 4.868, 4.564 (highlighted).
    Figure \(\PageIndex{8}\): Sample calculations using the present value table

    Final Summary of the Discounted Cash Flow Models

    The internal rate of return (IRR) and the net present value (NPV) methods are types of discounted cash flow analysis that require taking estimated future payments from a project and discounting them into present values. The difference between the two methods is that the NPV calculation determines the project’s estimated return in dollars and the IRR provides the percentage rate of return from a project needed to break even.

    When the NPV is determined to be \(\$0\), the present value of the cash inflows and the present value of the cash outflows are equal. For example, assume that the present value of the cash inflows is \(\$10,000\) and the present value of the cash outflows is also \(\$10,000\). In this example, the NPV would be \(\$0\). At a net present value of zero, the IRR would be exactly equal to the interest rate that was used to perform the NPV calculation. For example, in the previous example, where both the cash inflows and the cash outflows have present values of \(\$10,000\) and the NPV is \(\$0\), assume that they were discounted at an \(8\%\) interest rate. If you were to then calculate the internal rate of return, the IRR would be \(8\%\), the same interest rate that gave us an NPV of \(\$0\).

    Overall, it is important to understand that a company must consider the time value of money when making capital investment decisions. Knowing the present value of a future cash flow enables a company to better select between alternatives. The net present value compares the initial investment cost to the present value of future cash flows and requires a positive outcome before investment. The internal rate of return also considers the present value of future cash flows but considers profitability stated in terms of percentage of return on the investment or project. These models allows two or more options to be compared to eliminate bias with raw financial figures.

    THINK IT THROUGH: Choosing Investments

    The ideal gas law is easy to remember and apply in solving problems, as long as you get the proper values a

    Companies are presented with viable alternatives that sometimes produce nearly identical results and profitability goals. If they have the ability to invest in both alternatives, they may do so. But what about when resources are constrained? How do they choose which investment is best for their company?

    Consider this: you have two projects that met the payback period and accounting rate of return screenings identically. Project 1 produced an NPV of \(\$45,000\) and had an IRR between \(5\%\) and \(8\%\). Project 2 produced a NPV of \(\$35,000\) and had an IRR of \(10\%\). This leaves you with a difficult choice, since each alternative has a measurement that exceeds the other and the other variables are the same. Which project would you invest in and why?