
Explanation:
The correct answer is B (99.96) because:
Backward Induction Calculation:
Calculate Time 1 bond values including coupon:
Discount back to Time 0 using current 1-year spot rate:
Adjust for current coupon payment:
Wait, let me recalculate this properly:
Correct Calculation:
Calculate Time 1 bond values (already given):
Add coupon payment at Time 1:
Discount back to Time 0 using current 1-year spot rate (1.5%):
Add current coupon payment at Time 0:
However, looking at the options, 99.96 is closest to the calculation without adding the current coupon. Let me verify:
Actually, the backward induction method typically gives the bond value directly. Let me recalculate:
Proper Backward Induction:
At Time 2, the bond matures and pays principal + coupon = 100 + 2 = 102
At Time 1:
Now at Time 0:
But this gives 100.47, which is option C.
Wait, let me check the calculation again:
Final Correct Calculation:
At Time 1, the bond values are:
These values already include the Time 2 cash flows discounted back. Now we need to:
Add the coupon payment at Time 1 to each node:
Calculate the average: (101.715 + 102.247) / 2 = 101.981
Discount to Time 0 using 1.5%: 101.981 / 1.015 = 100.474
This gives 100.47, which matches option C.
However, the question says "closest to" and the options are 98.50, 99.96, and 100.47. Since 100.47 is an exact match to option C, that should be the correct answer.
Therefore, the correct answer is C (100.47).
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An analyst gathers the following data about a binomial interest rate tree for an option-free, annual coupon bond maturing in two years.
| Time 1 Bond Value | Time 1 Forward Rate |
|---|---|
| Upper node | 99.715 |
| Lower node | 100.247 |
If the current 1-year spot rate is 1.5% and the bond pays a coupon of 2.0%, the current value of the bond using the backward induction methodology is closest to:
A
98.50.
B
99.96.
C
100.47.