USE BEST ALTERNATIVE USING INCREMENTAL ANALYSIS AND BENEFIT-COST RATIO:
Incremental analysis, also referred as differential or marginal
analysis, is the simplest approach to solving complex business
decisions. It uses the ‘cost-behavior concept’ to analyze how each
cost (fixed or variable) will affect the different alternatives of
future income. Incremental analysis is an effective tool to
determine the best alternative that can yield the highest revenues
with the least costs. Gathering the required financial information
on all the options is as important as carrying out the actual
analysis. The quality and reliability of the information also
contributes to the success of using this tool in business
decisions. Incremental analysis is also a critical and time saving
tool that leads to an efficient method in identifying the possible
results of decisions on future earnings in making better decisions
regarding the productivity of the company. Incremental analysis
helps companies decide whether or not to accept a special order,
which is typically lower than its normal selling price. It also
assists with allocating limited resources among several product
lines to ensure the scarce asset is utilized to return the greatest
benefit. Incremental analysis entails decisions on whether to
produce or buy goods, scrap a project, or rebuild an asset.
Finally, incremental analysis provides insight into whether to
produce a good further or sell at a certain point during the
manufacturing process. The focus of incremental analysis is to
examine what differs between the alternatives. Incremental analysis
utilizes up to four major components:
1. Revenue differences.
2. Cost differences.
3. Cost savings differences.
4. Opportunity costs.
Incremental amounts are often called differential or relevant, however thinking of incremental amounts as what 'differs between alternatives' will help you identify incremental amounts from a practical standpoint. Many of the costs that will 'differ' are variable costs because variable costs change in total when activity changes. As such, total variable costs will differ between most decisions. Fixed costs differ only in specified situations. Identifying the behavior of costs enables managers to anticipate how each cost will behave under alternative situations.
The benefit/cost method of analysis is a procedure wherein the magnitude of the benefits (B) associated with an alternative is compared with the magnitude of the cost (C). In dividing the benefits by the costs, a number equal to or greater than one would obviously mean that benefits exceed costs, indicating economic attractiveness. A benefit-cost ratio (BCR) is an indicator used in cost-benefit analysis, to show the relationship between the costs and benefits of a proposed project, in monetary or qualitative terms. Benefit-cost ratios (BCRs) are most often used in capital budgeting, to analyze the overall value for money of undertaking a new project. However, the cost-benefit analysis for large projects can be hard to get right because there are so many assumptions and uncertainties that are hard to quantify. This is why there are usually a wide range of potential BCR outcomes, so the BCR is usually used to get a rough idea about the viability of a project and how much the internal rate of return exceeds the discount rate, which is the company’s weighted average cost of capital — the opportunity cost of that capital. The BCR is calculated by dividing the proposed total cash benefits of a project by the proposed total cash costs of the project. Prior to dividing the numbers, the net present value (NPV) of the respective cash flows over the proposed lifetime of the project are calculated.
To calculate the net present values, we use the (NPV) formula, in which the values are divided by the sum of 1 and the discount rate raised to the number of periods:
NPV = Present Worth Revenue or Saving @i* - Present Worth Costs @i*
If the calculated NPV for a project is positive, then the project is satisfactory, and if NPV is negative then the project is not satisfactory.
A conventional B/C analysis is used almost exclusively for government projects. As such, the following terms apply:
Benefits (B) - Favorable consequences to the public
Disbenefits (D) - Unfavorable consequences to the public
Costs (C) - Consequences to the government (savings to the
government are regarded as negative costs)
The last item reflects the loss caused to a part of the
public.
In particular, let us denote
B: benefits of the project;
I: initial capital investment;
CR: capital recovery;
O&M: operating and maintenance costs.
The sign convention treats benefits and costs as positive values and disbenefits as negatives. Thus, a conventional benefit-to-cost ratio is calculated as B/C = (B - D) / C
In non-government evaluations, some analysts place maintenance and operation (M&O) costs in the numerator as disbenefits, in which case the resulting ratio is known as a modified B/C ratio.
A B/C ratio can be conducted in terms of PW, AW, or FW values, as long as all values are expressed in the same units.
Conventional B-C Ratio: PW (B) I + PW (O&M) or AW (B) CR + AW (O&M)
Modified B-C Ratio: PW (B) − PW (O&M) I or AW (B) − AW (O&M) CR
If the market residual value is also included, then
Conventional B-C Ratio: PW(B)/ I − PW (MV ) + PW
(O&M)
Modified B-C Ratio: PW(B) − PW(O&M)/ I − PW(MV )
In any case, if the B-C ratio exceeds 1, then the project is justified. If B/C >1 then project(s) is economically satisfactory. If B/C =1 then project(s) the economic break even of the project is similar to other projects (with same discount rate or rate of return). If B/C <1 then project(s) is not economically satisfactory
Taking the above example, let us now calculate the correct way to do an incremental analysis:
A | B | C | D | E | F | |
Costs | 4000 | 2000 | 6000 | 1000 | 9000 | 10000 |
PW (Benefits) | 7330 | 47000 | 8730 | 1340 | 9000 | 9500 |
Useful life is 20 years | ||||||
Interest 6% |
PW (Benefit; A, B,C,D,E,F) = 7330+47000+8730+1340+9000+9500
= 82900
PW (Cost; A, B,C,D,E,F) = 4000 + 2000+6000+1000+9000+10000
=32000 (A/P, 6%, 20)
=32000 - 0.0200
= 31800
B/C = 82900-31800
=0.051100
If a project has a BCR that is greater than 1, the project will deliver a positive NPV and will have an internal rate of return (IRR) above the discount rate used in the DCF calculations. This suggests that the NPV of the project’s cash flows outweighs the NPV of the costs, and the project should be considered. If the BCR is equal to 1, the ratio indicates that the NPV of expected profits equal the costs. If a project's BCR is less than 1, the project's costs outweigh the benefits then it should not be considered.
16. Use incremental analysis to select the best alternatives using Benefit-Cost ration 4000 2000 6000 7330...
16. Use incremental analysis to select the best alternatives using Benefit-Cost ration 4000 2000 6000 7330 470008730 GO0D 1000 9000 10000 Cost Pw(benefits) 90009500 Useful life is 20years Interest 6%
Use incremental analysis to select the best alternatives using Benefit – Cost ration 16. Use incremental analysis to select the best alternatives using Benefit - Cost ration Cost 4000 2000 7330 47000 8730 1000 1340 9000 9000 10000 9500 6000 Pw(benefits) Useful life is 20years Interest 6%
16. Use incremental analysis to select the best alternatives using Benefit - Cost ration Cost Pw(benefits) 4000 2000 6000 1000 9000 10000 7330 47000 8730 1340 9000 9600 Useful life is 20years Interest 6%
16. Use incremental analysis to select the best alternatives using Benefit- Cost ration 4000 2000 60001000 9000 10000 7330 Cost Pw(benefits) 47000 1340 9500 Useful life is 20years Interest 6%
3. Assuming a MARR of 20%, use incremental analysis (defender vs challenger approach) to select the best choice among the four alternatives: A Initial cost 2500 4800 4200 3600 Annual benefit 850 700 850 1300 Salvage value 2500 1750 1250 3000 Useful life (yrs) 5 4. Use IRR and incremental analysis, assuming a MARR of 20%, to solve problem 83. 5. Use Benefit to Cost (B/C) ratio and incremental analysis to solve problem #3.
brief explanation Solve this problem using the incremental Benefit - Cost ration with, expected life of 10 years and rate of return of 10% Alternative A Initial cost $50,000 Annual maintenance cost $4,000 Estimated annual benefit $10,000 Alternative B Initial cost $30,000 Annual maintenance cost $3,000 Estimated annual benefit $9,000 a. Select A with B/C =1.14 b. Select B with B/C = 1.14 c. Reject A with B/C = 1.14 d. Select B with B/C = 0.14
Using the incremental B-C analysis, B-C ratio with PW and a MARR of 10%, choose the best alternative from the following three mutually exclusive alternatives given below. State your assumptions. Option B Option C Option A $30000 $50000 $70000 5 10 15 Initial investment Life in years Salvage value Annual benefits 0 0 $2000 $8000 $8000 $8000
Q1: How to use incremental rate of return analysis given two alternatives and choosing which one is the best? Q2: Case 1: Alternative 1 Alternative 2 Cost 500 700 Annual Cost . 600 800 Annual Benefit 700 . 900 Case 1: Alternative 1 Alternative 2 Cost 700 500 Annual Cost . 800 600 Annual Benefit 900 700 Based on these two cases, how to I apply incremental return analysis to this, and instead of using incremental rate of return...
international genetic technologies inc. (InGen) is examining the following three mutually exclusive alternatives. 3) Using benefit-cost ratio analysis, a 10-year useful life and a MARR of 25%, determine which of the following mutually exclusive models should be selected. А в C D E Initial Cost $100 $200 $300 $400 $500 $37 $60 $83 $137 $150 Annual Benefits 4) A big box company is using a benefit-cost ratio analysis to select which one of the 3 alternatives shown below should be...
3. Use a spreadsheet for evaluation of the multiple alternatives provided below. Use incremental B/C analysis. These alternatives are relative to the application of nanotechnology and the use of thin-film solar panels applied to houses to reduce the dependency on fossil-fuel generated electrical energy. A community of 400 new all- electric public housing units will utilize the technology as anticipated proof that significant reductions in overall utility costs can be attained over the expected 15-year life of the housing. The...