Fight Finance

(a) 9,023 bonds

(b) 10,000 bonds

(c) 11,485 bonds

(d) 12,713 bonds

(e) 12,768 bonds

(a) 0.9686 USD per AUD

(b) 0.9686 AUD per USD

(c) 1.0324 USD per AUD

(d) 1.0324 AUD per USD

(e) 1.0324 AUD per EUR

(a) Illiquid small private companies.

(b) Exchange-listed companies operating in stagnant industries with negative growth prospects.

(c) Exchange-listed companies expected to have temporarily high earnings over the next year, but with lower earnings later.

(d) Exchange-listed companies operating in high-risk industries with very high required returns on equity.

(e) Exchange-listed companies whose assets include a very large proportion of cash.

(a) ##f_{LP,T}=max⁡(S_T-X_T,0)##

(b) ##f_{LP,T}=max⁡(X_T-S_T,0)##

(c) ##f_{LP,T}=-max⁡(S_T-X_T,0)##

(d) ##f_{LP,T}=-max⁡(X_T-S_T,0)##

(e) ##f_{LP,T}=min⁡(X_T-S_T,0)##

(a) The APR compounding monthly is 9.000% pa.

(b) The effective monthly rate is 0.7500% pa.

(c) The effective annual rate is 9.3807% pa.

(d) The effective 6 month rate is 4.5000% pa.

(e) The APR compounding semi-annually is 9.1704% pa.

(a) The returns ##r_\text{t monthly}## are continuously compounded monthly returns and are likely to be normally distributed, so the mean, median and mode of these continuously compounded returns are all equal to 1% per month.

(b) The annualised average continuously compounded return is ##\bar{r}_\text{cc annual}=12×0.01=0.1=12\%\text{ pa}##. The annualised standard deviation is ##\sigma_\text{annual} = \sqrt{12}×0.05=0.173205081=17.32\%\text{ pa}##.

(c) Over the next 10 years the mean, median and mode continuously compounded 10 year returns will all equal ##0.01 \times 12 \times 10 = 120\%##.

(d) Over the next 10 years the expected mean gross discrete 10 year return is ##e^{(0.01 - 0.05^2/2)×12×10} = 2.857651118## and the median gross discrete 10 year return is ##e^{(0.01 + 0.05^2/2)×12×10}=3.857425531##.

(e) If the current price of the CBA shares is $75, then in 10 years they’re expected to have a mean value of ##75×e^{(0.01 + 0.05^2/2)×12×10} = 289.3069148## and a median value of ##75×e^{0.01×12×10}=249.0087692##.

(a) Low unemployment rates.

(b) Low inflation rates.

(c) Low GDP growth rates.

(d) Low wage growth rates.

(e) Low labour force participation rates.

(a) Adam and Bella can pick zero dates and 10 coconuts in one hour.

(b) Adam and Bella could pick 2 dates and 8.8 coconuts in one hour.

(c) Adam and Bella could pick 5 dates and 7 coconuts in one hour.

(d) Adam and Bella could pick 8 dates and 5.2 coconuts in one hour.

(e) Adam and Bella could pick 11 dates and zero coconuts in one hour.

(a) ##12.28956229\% = \left( \dfrac{100,000}{99,000} - 1 \right) \times (365/30)##

(b) ##13.00694446\% = \left( \dfrac{100,000}{99,000} \right)^{365/30} -1##

(c) ##12.60944895\% = \left( \left( \dfrac{100,000}{99,000} \right)^{(365/2)/30} -1 \right) \times 2##

(d) ##12.2904215\% = \left( \left( \dfrac{100,000}{99,000} \right)^{(365/12)/30} -1 \right) \times 12##

(e) ##12.22790862\% = \ln \left( \dfrac{100,000}{99,000} \right) \times 365/30##

(a) The initial futures price would be $39.1828.

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

(c) If the spot price rose to $45 at month 1, then the value of the futures contract would be positive $4.8999 at that time.

(d) If the spot price fell to $35 at month 3, then the value of the futures contract would be negative $4.1828 at that time.

(e) If the spot price remained at $40 until maturity, then the value of the futures contract would be positive $0.8172 at that time.