In: Finance
The yield to maturity of a $1000 bond with a 7% coupon rate, semiannual coupons, and two years to maturity is 7.6% APR, compounded semiannually. What must its price be?
| Solution: | ||||
| Its price must be $989.06 | ||||
| [The bond current price] | ||||
| Working Notes: | ||||
| Bond Price = Periodic Coupon Payments x Cumulative PVF @ periodic YTM (for t= to t=n) + PVF for t=n @ periodic YTM x Face value of Bond | ||||
| Coupon Rate = 7% | ||||
| Annual coupon = Face value of bond x Coupon Rate = 1,000 x 7 % = $70 | ||||
| Semi annual coupon = Annual coupon / 2 = $70/2=$35 | ||||
| YTM= 7.6% p.a (annual) | ||||
| Semi annual YTM= 7.6%/2 = 3.8% | ||||
| n= no.of coupon = No. Of years x no. Of coupon in a year | ||||
| = 2 x 2 = 4 | ||||
| Bond Price = Periodic Coupon Payments x Cumulative PVF @ periodic YTM (for t= to t=n) + PVF for t=n @ periodic YTM x Face value of Bond | ||||
| = $35 x Cumulative PVF @ 3.8% for 1 to 4th + PVF @ 3.8% for 4th period x 1,000 | ||||
| = 35 x 3.647069935 + 1000 x 0.861411342 | ||||
| =$989.05878973 | ||||
| =$989.06 | ||||
| Cumulative PVF @ 3.8 % for 1 to 4th is calculated = (1 - (1/(1 + 0.038)^4) ) /0.038 = 3.647069935 | ||||
| PVF @ 3.8% for 4th period is calculated by = 1/(1+i)^n = 1/(1.038)^4 =0.861411342 | ||||
| Please feel free to ask if anything about above solution in comment section of the question. | ||||