Fight Finance

(a) $543,004

(b) $594,444

(c) $1,211,234

(d) $1,262,674

(e) $1,489,423

(a) $116.25

(b) $74.04

(c) $85.89

(d) $83.75

(e) $71.38

(a) 'Straight line' or 'prime cost' depreciation, which allocates equal depreciation expenses over each year of the asset's life.

(b) 'Diminishing value' or 'reducing balance' depreciation, which allocates more depreciation expense at the start of the asset's life and less towards the end.

(c) No depreciation at all, so the asset is always kept on the books as being the same value that it was bought for. The asset will cause no depreciation expense in any year.

(d) Allocating all of the depreciation expense to the final year of the asset's life.

(e) Allocating all of the depreciation expense to the first year of the asset's life. Accountants would call this 'expensing' the asset, rather than 'capitalising' it and depreciating it slowly.

(a) WACC before tax ##= r_D.\dfrac{D}{V_L} + r_{EL}.\dfrac{E_L}{V_L}##

(b) WACC before tax ##= r_f + \beta_{VL}.(r_m - r_f)##

(c) WACC after tax ##= r_D.(1-t_c).\dfrac{D}{V_L} + r_{EL}.\dfrac{E_L}{V_L}##

(d) WACC after tax ##= r_f + \beta_{VL}.(r_m - r_f) - \dfrac{r_D.D.t_c}{V_L}##

(e) WACC after tax ##= r_f + \beta_{VL}.(r_m - r_f)##

(a) 3.9216%, 2.9412%, 0.9804%.

(b) 3.9216%, 0.9804%, 2.9412%.

(c) 3.9216%, 0.9804%, 0.9804%.

(d) 1.9804%, 1.0000%, 0.9804%.

(e) 1.9608%, 0.9804%, 0.9804%.

Two put options are exactly the same, but one matures in one year and the other matures in two years. Which option would you expect to have the higher price, the option which matures or , or should they have the price?

(a) ##r_\text{real} \approx r_\text{nominal} - r_\text{inflation}##

(b) ##(1+r_\text{real})^t = \left( \dfrac{1+r_\text{nominal}}{1+r_\text{inflation}} \right)^t ##

(c) ##V_\text{t,real} = V_\text{t,nominal}.(1+r_\text{inflation})^t##

(d) ##V_\text{0} = \dfrac{V_\text{t,nominal}}{(1+r_\text{nominal})^t}##

(e) ##V_\text{0} = \dfrac{V_\text{t,real}}{(1+r_\text{real})^t}##

(a) A normally distributed variable’s mean, median and mode are all expected to be equal.

(b) A log-normally distributed variable’s mean, median and mode are all expected to be different. Mean > median > mode.

(c) Future stock prices ##(P_t )## are often assumed to be log-normally distributed.

(d) Stocks’ annual net discrete returns ##(P_t/P_0-1)## must be normally distributed when stock prices ##(P_t)## are log-normally distributed.

(e) The total area under a probability density function (pdf) is always one.

(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 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.