In: Finance
Jupiter plc (Jupiter) owns a chain of pet shops in Geeland. As the economy in Geeland develops, pet ownership has increased and Jupiter now has the opportunity to expand its operation. The nature of this expansion includes developing both the range of pets and associated pet products sold as well as the number of physical stores.
Jupiter has commissioned some market research into the viability of undertaking this additional investment. There are three potential levels of investment and two potential market conditions. The returns within one year are highlighted in the table below:
Investment $25m |
Investment $35m |
Investment $50m |
|
Market Demand |
Forecast Contribution per store |
Forecast Contribution per store |
Forecast Contribution per store |
Medium |
$2,000,000 |
$3,500,000 |
$4,250,000 |
High |
$3,000,000 |
$4,500,000 |
$5,000,000 |
The investment would be for 25 new stores in all cases and the additional investment relates to the range of new pets and associated products stocked.
The fixed costs per store will change depending upon the level of investment. These are listed below:
Investment $25m |
Investment $35m |
Investment $50m |
|
Fixed costs per store |
$700,000 |
$1,200,000 |
$1,700,000 |
Required:
Explain how probabilities can be used to calculate expected value and the limitations of expected value in risk assessment
Part (a)
Profit per store ($) = Forecast Contribution per store - Fixed costs per store
Investment | $ 25 mn | $ 35 mn | $ 50 mn |
Market Demand | |||
Medium | $1,300,000 | $2,300,000 | $2,550,000 |
High | $2,300,000 | $3,300,000 | $3,300,000 |
Part (b)
Investment | $ 25 mn | $ 35 mn | $ 50 mn |
Market Demand | |||
Medium (A) | $1,300,000 | $2,300,000 | $2,550,000 |
High (B) | $2,300,000 | $3,300,000 | $3,300,000 |
Minimum (C = Min (A, B)) | $1,300,000 | $2,300,000 | $2,550,000 |
Maximin (= max of all Cs) | $2,550,000 |
The decision should be to choose the investment of $ 50 million.
Explain how probabilities can be used to calculate expected value and the limitations of expected value in risk assessment
Expected value is the probability weighted average of potential values associated with various probable outcomes of an exposure.
E(V) = p1 x V1 + p2 x V2 + p3 x V3 + ......+ pn x Vn
where pi is the probability of occurrence of state i and Vi is the value the variable V takes in the state i.
Limitations: