Fight Finance

(a) 3.1029%

(b) 3.3201%

(c) 3.7235%

(d) 3.9841%

(e) 7%

(a) Investment decision.

(b) Financing decision.

(c) Working capital decision.

(d) Payout policy decision.

(e) Capital or labour decision.

(a) The futures price quote ##(F_T)## is 'fair'. It's neither over- nor under-priced to the long or short trader.

(b) The futures price quote ##(F_T)## equals the expected underlying asset price at maturity.

(c) The futures price quote ##(F_0)## is initially zero.

(d) The value of the future ##(V_0)## is initially zero to both the long and short trader.

(e) If the value of the future ##(V_0)## rises for the long trader, it must have fallen for the short trader, and vice versa.

(a) Neither Miss Red nor Mrs Green would appear rational to an economist.

(b) Mrs Green is satiated when she has $25 of wealth. That is her bliss point.

(c) Mrs Green is risk loving when she has between zero and $25 of wealth, same as Mr Blue.

(d) Mrs Green is risk averse when she has between $25 and $50 of wealth.

(e) Mrs Green is risk loving when she has between $50 and $100 of wealth, same as Mr Blue.

If a stock's expected future prices are log-normally distributed, what will be bigger, the stock's or future price? Or would you expect them to be ?

(a) The WACC before tax is 6.46% pa.

(b) The WACC after tax is 5.50% pa.

(c) The current levered asset value including tax shields is $603.839k.

(d) The current debt value is $600k and the interest tax shield benefit over the first year is $7.2k (at t=1).

(e) The current share price is $1.50.

(a) Historical capital return last year was negative ##\left( \dfrac{P_0 - P_{-1}}{P_{-1}} < 0 \right)##.

(b) Historical dividend yield last year was negative ##\left( \dfrac{C_0}{P_{-1}} < 0 \right)##.

(c) Expected future capital return next year is positive ##\left( \dfrac{P_1 - P_0}{P_0} > 0 \right)##.

(d) Expected future dividend yield next year is positive ##\left( \dfrac{C_1}{P_0} > 0 \right)##.

(e) Expected future total return next year is positive ##\left( \dfrac{P_1 - P_0 + C_1}{P_0} > 0 \right)##.

(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) The 3-month government bill yield is likely to be given as a simple interest rate.

(b) The 10-year government bond yield is likely to be given as an annualised percentage rate compounding every six months since Japanese government bonds pay semi-annual coupons.

(c) As 10-year government bond yields fell over the last few years, bond investors would have made capital gains assuming that the bonds are fixed-coupon.

(d) The Japanese yield curve is ‘inverse’ at the latest time in mid-2017.

(e) The Japanese central bank has been maintaining expansionary monetary policy over the last few years.

(a) Next quarterly dollar coupon is equal to the bond's face value multiplied by the coupon rate, divided by 4.

(b) First coupon is based on the benchmark rate at the time the bond was first issued. Therefore the first quarterly coupon is known for certain when it is issued.

(c) Coupons after the first are based on the benchmark rate at the time of that next coupon's ex-coupon date. Therefore the next quarterly coupon's dollar payment is unknown until its ex-coupon date, which is just a few days before the coupon payment date.

(d) Macaulay duration is equal to the time until the next ex-coupon date.

(e) Price is generally equal to its face value on its ex-coupon dates if there was no change in the bond's risk premium since it was issued.