Fight Finance

(a) Long call.

(b) Short call.

(c) Long put.

(d) Short put.

(e) Short future.

(a) Option premium, option price.

(b) Strike price, exercise price.

(c) Payoff at maturity, profit.

(d) Maturity, expiry.

(e) Short, sell.

(a) Long a future.

(b) Short a future.

(c) Long a put.

(d) Short a put.

(e) Short a call.

(a) You have the right to buy the underlying stock in 3 months’ time for a price of $50 if you want.

(b) If the dividend in 4 months were unexpectedly cancelled because the firm decided to re-invest its cash rather than pay it out then the 3 month call option price would be unaffected.

(c) If the stock price is $49 in 3 months then you wouldn’t exercise the ‘out of the money’ option.

(d) If the stock price is $51 in 3 months then you wouldn’t exercise or else you’ll incur a loss of $3.

(e) If the stock price is $57 in 3 months then you would exercise. Your profit would be $3 and payoff at maturity $7.

(a) immediately after the option purchase date.

(b) After the option matures but only if it is exercised.

(c) After the option matures but only if it lapses and is not exercised.

(d) After the option matures, regardless of whether it is exercised or not.

(e) The option price is never a sunk cost.

(a) It's 'out of the money'.

(b) It will give a positive profit: ##-c_0 + max(S_T-K_T,0) > 0##.

(c) It will give a positive payoff at maturity: ##max(S_T-K_T,0) > 0##.

(d) The underlying asset price is below the option strike price: ##S_T < K_T##.

(e) The underlying asset price is above the break-even price.

(a) Price must be greater than zero (p>0).

(b) Price can be greater than its exercise price (p>K).

(c) Price can be greater than the underlying asset's price (p>S).

(d) Exercise price can be greater than the underlying asset's price (K>S).

(e) Profit must be less than the payoff at maturity from the long trader’s perspective.

(a) 550

(b) 557

(c) 826

(d) 835

(e) 1392

(a) $37

(b) $42

(c) $44

(d) $45

(e) $48

(a) Basis risk makes hedges more risky.

(b) Basis risk can only lead to worse than expected effective dollar prices.

(c) Basis risk only occurs when the future is closed out early, before it matures.

(d) ‘The basis’ is defined as the underlying spot price less the futures price quote ##(S_t - F_{t,T})##.

(e) The futures price of oil will tend to be higher than the spot price due to storage costs, so the basis will tend to be positive for hedgers who long futures contracts.

(a) The initial futures price is $49.3471.

(b) The initial value of the futures contract is zero.

(c) If the oil price falls to $35 per barrel in one year then the value of the futures contract at that time would be -$11.2334.

(d) If the oil price is still at $40 per barrel in one year then the value of the futures contract at that time would be zero.

(e) If the oil price rises to $45 per barrel in one year then the value of the futures contract at that time would be -$1.0314.

(a) As time elapses, call option prices always fall.

(b) As time elapses, put option prices always fall.

(c) The long future always has a zero Gamma.

(d) The more in-the-money the long call option is, the higher (more positive) is its Delta.

(e) The more in-the-money the long put option is, the lower (more negative) is its Delta.

(a) A long call option always has a positive Delta.

(b) A long put option always has a negative Delta.

(c) A long stock always has a Delta of one.

(d) A long call option always has a positive Gamma.

(e) A long stock always has a Gamma of one.

(a) Options are always worth more than or equal to equivalent European-style options.

(b) Call options on dividend-paying stocks should sometimes be exercised just before the dividend.

(c) Put options on dividend-paying stocks should sometimes be exercised just after the dividend.

(d) Call options should be exercised now if the intrinsic option value ##(S-K)## is greater than the expected present value of the option’s future payoffs.

(e) Put options should be exercised now if the intrinsic option value ##(K-S)## is less than the expected present value of the option’s future payoffs.

(a) ##d_1=-0.001033933##

(b) ##N[d_1]=0.447492432##

(c) ##d_2=-0.431999277 ##

(d) ##N[d_2]=0.332870969 ##

(e) ##c_0=0.81951217##

(a) The option’s expected future continuously compounded returns are always more than or equal to the underlying stock’s expected future continuously compounded returns.

(b) The option’s standard deviation of dollar price changes is always less than or equal to the underlying stock’s standard deviation of dollar price changes.

(c) The option’s standard deviation of continuously compounded returns are always less than or equal to the underlying stock’s standard deviation of continuously compounded returns.

(d) As time elapses and the maturity date of an option approaches, its price will fall, all other things remaining equal.

(e) If the underlying stock’s price rises by $0.01, the call option’s price will rise by less than $0.01 and the put option’s price will fall by less than $0.01.

(a) A one cent ($0.01) increase in the underlying stock price is expected to lead to a 0.747891 cent ($0.00747891) increase in the call option price.

(b) The (risk-neutral) probability of the call option maturing ‘in-the-money’ is 0.643514.

(c) A one cent ($0.01) increase in the underlying stock price is expected to lead to a 0.00053199 unit increase in the call option Delta.

(d) The underlying stocks’ standard deviation of returns per day is 0.015702718 assuming 365 days per year and zero auto-correlation.

(e) After one day, all other things remaining equal, the option price is expected to fall by $1.566433 assuming 365 days per year.

(a) Dollars ($).

(b) Dollars per day ($/day).

(c) Dollars per day squared ($/day^2).

(d) Dollars squared per day ($^2/day).

(e) Dollars squared per day squared ($^2/day^2).

(a) Best day of the 5% worst days’ results.

(b) Worst day of the 5% worst days’ results.

(c) Best day of the 5% best days’ results.

(d) Worst day of the 5% best days’ results.

(e) Best day of the 95% worst days’ results.

(a) Future portfolio values have a log-normal distribution. The mean (expected or arithmetic average) portfolio value in one year is $115,603,957.

(b) The median (50th percentile) portfolio value in one year is $115,603,957.

(c) The 90% confidence interval of continuously compounded portfolio returns over the next year ##(r_{0 \rightarrow 1})## is ##-39.3456088\% < r_{0 \rightarrow 1} < 59.3456088\%##.

(d) The 90% confidence interval of portfolio values in one year ##(V_1)## is ##\$67,472,095 < V_1 < \$181,023,395##.

(e) The annual 95% relative VaR is $48,131,863 and the absolute VaR is $32,527,905.