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The S&P 500 Index is currently at 1,200. You manage a \(6 million indexed equityportfolio. The S&P 500 futures contract has a multiplier of \)250.

a. If you are temporarily bearish on the stock market, how many contracts should yousell to fully eliminate your exposure over the next six months?

b. If T-bills pay 2% per six months and the semi-annual dividend yield is 1%, what is theparity value of the futures price? Show that if the contract is fairly priced, the totalrisk-free proceeds on the hedged strategy in part (a) provide a return equal to theT-bill rate.

c. How would your hedging strategy change if, instead of holding an indexed portfolio,you hold a portfolio of only one stock with a beta of .6? How many contracts wouldyou now choose to sell? Would your hedged position be riskless? What would be thebeta of the hedged position?

Short Answer

Expert verified

a. 20 contracts;

b. Yes; .1

c. .6; 12; 0

Step by step solution

01

Given information

Portfolio value = $6,000,000

Each contract = $250 times the index valued

Index value = $1200

02

Calculation of sale of contracts‘a’

Since each contracts is for $250 times the index valued currently at $1200,

This implies each contract has market exposure of $1200 x $250 = $300,000

To hedge 6 million, no. of contracts required = 6,000,000 / 300000 = 20 contracts

03

Calculation of parity value of the future price ‘b’

F0 = S0(1 + rf – d)T

= 1,200 (1 + .02 - .01)2

= 1,212

Action

Initial cash flow

Cash flow at time T

Short 20 futures contract

0

20 x $250 x ($1,212 - ST)

Buy 5000 shares of index @$1200 per share

-6 million

(6 million x .01) + (5,000 x ST)




Total

-6 million

6.06 million (riskless)

Hence this equals to the hedged strategy equaling T-bill rate of 2% = (6.06/6 -1) =.1

04

Explanation on hedging strategy, contract sale hedged position ‘c’

The stock now swings only .6 as much as market index.

Hence no. of contracts needed = .6 x 20 = 12. These will not be riskless as these are exposed to the unsystematic risks.

Beta of the hedged position = 0 as all systematic risks are hedged

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Most popular questions from this chapter

A put option on a stock with a current price of \(33 has an exercise price of \)35. The price of the corresponding call option is $2.25. According to put-call parity, if the effective annual risk-free rate of interest is 4% and there are three months until expiration, what should be the value of the put?

We said that options can be used either to scale up or reduce overall portfolio risk. What are some examples of risk-increasing and risk-reducing options strategies? Explain each.

The Excel Applications box in the chapter (available at www.mhhe.com/bkm ; link to Chapter 17 material) shows how to use the spot-futures parity relationship to find a “term structure of futures prices,” that is, futures prices for various maturity dates.

a. Suppose that today is January 1, 2012. Assume the interest rate is 1% per year and a stock index currently at 1,200 pays a dividend yield of 2%. Find the futures price for contract maturity dates of February 14, 2012, May 21, 2012, and November 18, 2012.

b. What happens to the term structure of futures prices if the dividend yield is lower than the risk-free rate? For example, what if the interest rate is 3%?

Suppose you think FedEx stock is going to appreciate substantially in value in the next year. Say the stock’s current price, S 0, is \(100, and the call option expiring in one year has an exercise price, X, of \)100 and is selling at a price, C, of \(10. With \)10,000 to invest, you are considering three alternatives:

a. Invest all \(10,000 in the stock, buying 100 shares.

b. Invest all \)10,000 in 1,000 options (10 contracts).

c. Buy 100 options (one contract) for \(1,000 and invest the remaining \)9,000 in a money market fund paying 4% interest annually.

What is your rate of return for each alternative for four stock prices one year from now?

Summarize your results in the table and diagram below.

Ken Webster manages a $200 million equity portfolio benchmarked to the S&P 500 Index. Webster believes the market is overvalued when measured by several traditional fundamental/economic indicators. He is therefore concerned about potential losses but recognizes that the S&P 500 Index could nevertheless move above its current 883 level.

Webster is considering the following option collar strategy:

  • Protection for the portfolio can be attained by purchasing an S&P 500 Index put with a strike price of 880 (just out of the money).
  • The put can be financed by selling two 900 calls (further out-of-the-money) for every put purchased.
  • Because the combined delta of the two calls (see the following table) is less than 1 (that is, 2 x .36 = .72), the options will not lose more than the underlying portfolio will gain if the market advances.

The information in the following table describes the two options used to create the collar.

a. Describe the potential returns of the combined portfolio (the underlying portfolio plus the option collar) if after 30 days the S&P 500 Index has:

i. Risen approximately 5% to 927.

ii. Remained at 883 (no change).

iii. Declined by approximately 5% to 841.

(No calculations are necessary.)

b. Discuss the effect on the hedge ratio (delta) of each option as the S&P 500 approaches the level for each of the potential outcomes listed in part ( a ).

c. Evaluate the pricing of each of the following in relation to the volatility data provided:

i. The put

ii. The call

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