Math Problem Statement

Reconsider the research-and-development decision in Figure 3.32. If you decide to continue the project, you will have to come up with the $2 million this year (Year 1). Then there will be a year of waiting (Year 2) before you know if the patent is granted. If you decide to license the technology, you will receive the $25 million distributed as $5 million per year beginning in Year 3. On the other hand, if you decide to sell the product directly, you will have to invest $5 million in each of Years 3 and 4 (to make up the total investment of $10 million). Your net proceeds from selling the product, then, would be evenly distributed over Years 5 through 9. Assuming an interest rate of 15%, calculate the NPV at the end of each branch of the decision tree.

Solution

The question asks to calculate the Net Present Value (NPV) at the end of each branch in a decision tree, given an interest rate of 15%. I'll walk through the steps for each branch of the tree based on the scenario and decision outcomes provided.

1. Scenario: Patent Granted (p = 0.7)

  • License the Technology ($25M):

    • You receive $25M, starting in Year 3, spread evenly over five years at $5M/year.
    • NPV calculation: NPV=5(1+0.15)3+5(1+0.15)4+5(1+0.15)5+5(1+0.15)6+5(1+0.15)7NPV = \frac{5}{(1+0.15)^3} + \frac{5}{(1+0.15)^4} + \frac{5}{(1+0.15)^5} + \frac{5}{(1+0.15)^6} + \frac{5}{(1+0.15)^7}
  • Develop and Market the Product (-$10M investment):

    • You need to invest $5M in Year 3 and $5M in Year 4.
    • Proceeds depend on demand levels starting from Year 5 and lasting until Year 9.

    For each demand level:

    • High Demand (p = 0.25): You receive $55M spread evenly over 5 years ($11M/year).

      NPV calculation: NPV=t=5911(1+0.15)t5(1+0.15)35(1+0.15)4NPV = \sum_{t=5}^{9} \frac{11}{(1+0.15)^t} - \frac{5}{(1+0.15)^3} - \frac{5}{(1+0.15)^4}

    • Medium Demand (p = 0.55): You receive $33M spread evenly over 5 years ($6.6M/year).

      NPV calculation: NPV=t=596.6(1+0.15)t5(1+0.15)35(1+0.15)4NPV = \sum_{t=5}^{9} \frac{6.6}{(1+0.15)^t} - \frac{5}{(1+0.15)^3} - \frac{5}{(1+0.15)^4}

    • Low Demand (p = 0.20): You receive $15M spread evenly over 5 years ($3M/year).

      NPV calculation: NPV=t=593(1+0.15)t5(1+0.15)35(1+0.15)4NPV = \sum_{t=5}^{9} \frac{3}{(1+0.15)^t} - \frac{5}{(1+0.15)^3} - \frac{5}{(1+0.15)^4}

2. Scenario: No Patent (p = 0.3)

  • End of development: A sunk cost of -$2M and no additional revenue.
  • NPV: -2M (as there are no further cash flows in this branch).

I will now calculate the specific NPVs using these formulas.Here are the NPVs for each branch of the decision tree based on a 15% discount rate:

  1. License the Technology:
    NPV = $12.67M

  2. Develop and Market the Product:

    • High Demand (p = 0.25):
      NPV = $14.94M
    • Medium Demand (p = 0.55):
      NPV = $6.50M
    • Low Demand (p = 0.20):
      NPV = -$0.40M (negative, meaning a loss)

The decision path without a patent results in a sunk cost of -$2M (as noted earlier).

Would you like further details or calculations? Here are five related questions to extend this problem:

  1. How does the probability of receiving a patent affect the expected value of each decision path?
  2. What happens to the NPVs if the interest rate changes to 10% or 20%?
  3. How would altering the demand probabilities affect the overall decision-making process?
  4. Could there be a break-even interest rate for the low-demand scenario?
  5. What would happen if the cost to develop and market increased or decreased?

Tip: Understanding NPV helps assess long-term profitability, especially in project decision-making under uncertainty.

Ask a new question for Free

By Image

Drop file here or Click Here to upload

Math Problem Analysis

Mathematical Concepts

Net Present Value (NPV)
Probability
Discounting Cash Flows
Decision Tree Analysis

Formulas

NPV = \sum_{t=1}^{n} \frac{C_t}{(1 + r)^t} - Initial Investment
NPV for even cash flows: NPV = C * [1 - (1 + r)^-n] / r
Weighted NPV for probabilistic outcomes: E(NPV) = \sum_{i=1}^{m} p_i * NPV_i

Theorems

Time Value of Money
Expected Value in Probability

Suitable Grade Level

Undergraduate Finance/Economics