In: Finance
Emperor’s Clothes Fashions can invest $4 million in a new plant for producing invisible makeup. The plant has an expected life of 5 years, and expected sales are 5 million jars of makeup a year. Fixed costs are $2.7 million a year, and variable costs are $1.20 per jar. The product will be priced at $2.40 per jar. The plant will be depreciated straight-line over 5 years to a salvage value of zero. The opportunity cost of capital is 12%, and the tax rate is 40%.
a. What is project NPV under these base-case assumptions?
(Do not round intermediate calculations. Enter your answer in
millions rounded to 2 decimal places.)
b. What is NPV if variable costs turn out to be $1.30 per jar? (Do not round intermediate calculations. Enter your answer in millions rounded to 2 decimal places.)
c. What is NPV if fixed costs turn out to be $2.6 million per year? (Do not round intermediate calculations. Enter your answer in millions rounded to 2 decimal places.)
d. At what price per jar would project NPV equal zero? (Enter your answer in dollars not in millions. Do not round intermediate calculations. Round your answer to 2 decimal places.)
a) NPV at the base case scenario:
Contribution per Makeup Jar
Selling Price(SP) = $2.40
Variable Cost(VC) =($1.20)
Contribution per unit = $1.2 ( SP - VC)
No.of Jars sold = 5 million
Total Contribution = $1.2 * 5 million = $ 6 Million
Total Fixed Costs= ($2.7 million)
Depreciation = ($0.80 million)(4 Million/5 years)
Total Profit before Tax = $2.5 million
Tax @ 40% = ($1 million) ($2.5 million*40%)
Net profit = $1.5 Million
Add back: Depreciation : $0.8 Million
Net Cash Flow : $2.3 Million
Year | Cash Flow | Discount Factor@12% | Discounted Cash Flow |
0 | - $ 4M | 1 | -$4 M |
1 | $2.3M | 1/(1+0.12)^1=0.893 | 2.054M |
2 | $2.3M | 1/(1+0.12)^2=0.797 | 1.834M |
3 | $2.3M | 1/(1+0.12)^3=0.712 | 1.637M |
4 | $2.3M | 1/(1+0.12)^4=0.636 | 1.462M |
5 | $2.3M | 1/(1+0.12)^5=0.567 | 1.305M |
Total | 4.291M |
NPV is $4.291 Million in this case. From the next case onwards we will use the Annuity function to find the present value of the Inflows as the inflow vale remains same every year
B&C)
Particulars | Base Case | VC@$1.3 | Fixed [email protected] |
Selling Price | $2.4 | $2.4 | $2.4 |
Variable Cost | $1.2 | $1.3 | $1.2 |
Contribution | $1.2 | $1.1 | $1.2 |
No.Of Units | 5 Million | 5 Million | 5 Million |
Total Contribution | $ 6 Million | $5.5 Million | $6 Million |
Fixed Costs | $2.7Million | $2.7 Million | $ 2.6 Million |
Depreciation | $0.8Million | $0.8Million | $0.8Million |
Net profit Before Tax | $2.5Million | $2 Million | $2.6Million |
Tax @40% | 1 Million | $0.8Million | $1.04Million |
Net Proft after Tax | $1.5 Million | $1.2 Million | $1.56 Million |
Add Back Depreciation | $0.8Million | $0.8Million | $0.8Million |
Cash Flow | $2.3 Million | $2.0 Million | $2.36 Million |
Annuity Factor@12% | 3.605 | 3.605 | 3.605 |
Cash Inflows | 8.2915M | 7.21M | 8.5078M |
Cash Outflow | 4M | 4M | 4M |
NPV | 4.2915 | 3.21M | 4.5078M |
Annuity Factor derivation = 1/(1.12)^1+1/(1.12)^2+1/(1.12)^3+1/(1.12)^4+1/(1.12)^5
d) Sale Price at which NPV is at 0
This is a difficult question as we need to make some iterations towards the selling price, try with various selling prices, if we reduce the price by $0.5 and follow the same approach as before we come close to an NPV very close to 0.