Question 7 - #9675
Part 1) Your answer: B was incorrect. The correct answer was A) $103.58. V1L = ½[(V2LU + C)/(1 + r1L) + (V2LL + C)/(1 + r1L)] V1L = ½[(99.455 + 8)/(1 + 0.05331) + (102.755+ 8)/(1 + 0.05331)] = $103.583 Part 2) Your answer: B was incorrect. The correct answer was A) 7.953%. r1U = (5.331)e2(.2) = 7.9529% Part 3) Your answer: B was incorrect. The correct answer was A) $99.13. V1U = ½[(V2,UU+ C)/(1 + r1U) + (V2,UL + C)/(1 + r1U)] From the previous question the value for r1U was determined to be 7.9529%. Using this value for the forward rate: V1L = ½[(98.565 + 8)/(1 + 0.079529) + (99.455 + 8)/(1 + 0.079529)] = $99.127 Part 4) Your answer: B was incorrect. The correct answer was C) $104.76. V0 = ½[(V1U + C)/(1 + r0) + (V1L + C)/(1 + r0)] From the previous question the value for V1U was determined to be $99.127 V0 = ½[(99.127 + 8)/(1 + 0.043912) + (103.583+ 8)/(1 + 0.043912)] = $104.755 Part 5) Your answer: B was correct! The relevant value to be discounted using a binomial model and backward induction methodology for a putable bond is the value that will be received if the put option is exercised or the computed value, whichever is greater. In this case, the relevant value at node 1U is the exercise price ($100.000) since it is greater than the computed value of $99.127. At node 1L, the computed value of $103.583 must be used. Therefore, the value of the putable bond is: V0 = ½[(100.00 + 8)/(1 + 0.043912) + (103.583+ 8)/(1 + 0.043912)] = $105.17314
Part 6) Your answer: B was incorrect. The correct answer was A) $0.42. Vputable = Vstraight + Vput
Rearranging, the value of the put can be stated as: Vput = Vputable - Vstraight
Vputable was computed to be $105.173 in the previous question, and Vstraight was determined to be $104.755 in the question prior to that. So the value of the embedded put option for the bond under analysis is: $105.173 - 104.755 = $0.418 |