In: Finance
Prices of zero coupon bonds today (i.e., at t=0) reveal the following pattern of 1-yr forward rates.
(note: t =1 is 1 year from today; t = 2 is two years from today and so on)
Assume annual compounding frequency throughout this question (none of the yields are bond equivalent yields)
Forward rate 6% > This is the 1-yr forward rate from t=1 to t=2, call this f1
8% > This is the 1-yr forward rate from t=2 to t=3, call this f2
The current yield to maturity for a 1-yr zero is: 5% In addition to zero-coupon bonds, investors may purchase a 3-yr 9% coupon bond making annual payments of $90, with a par value (face value) of $1,000.
For this question do not use GOAL SEEK or Solver. You must show your work
A Calculate the yield to maturity today for a 2-yr and 3-yr zero (that is y2 and y3)? You must use algebra or an Excel function for this.
B Calculate the price today of the 3-yr, 9% coupon bond? What is its yield to maturity (you must use an Excel function for this)
C Explain the difference between the YTM for the 3-yr coupon bond and the YTM for the 3-yr zero. Don't just say it is bigger or smaller. You must explain why.
D Under the expectations hypothesis, calculate the expected 1-yr HPR (from t=0 to t=1) for the 3-yr coupon bond. You must show the calculations, otherwise no credit. HPR is the holding period return.
E Explain why the HPR in part (d) must be equal to one of the yields given in this question. Explain what yield you are referring to and its value.
One year interest rate in t=1 | 0.06 | ||||||||||
One year interest rate in t=2 | 0.08 | ||||||||||
One year interest rate in t=0 | 0.05 | ||||||||||
A | Yield to maturity today for 2 year zero=i | ||||||||||
(1+i)^2=(1+0.05)*(1+0.06)= | 1.113 | ||||||||||
1+i=(1.113^(1/2))= | 1.0549882 | ||||||||||
Yield to maturity today for 2 year zero=i | 0.0549882 | ||||||||||
Yield to maturity today for 2 year zero=i | 5.50% | ||||||||||
Yield to maturity today for 3 year zero=r | |||||||||||
(1+r)^3=(1+0.05)*(1+0.06)*(1+0.08) | |||||||||||
(1+r)^3= | 1.20204 | ||||||||||
1+r=(1.20204^(1/3))= | 1.0632604 | ||||||||||
Yield to maturity today for 3 year zero=r | 0.0632604 | ||||||||||
Yield to maturity today for 3 year zero=r | 6.33% | ||||||||||
B | Price of a 3 year 9% coupon Bond | ||||||||||
Face Value | $1,000 | ||||||||||
Pmt | Annual coupon payment=1000*0.09= | $90 | |||||||||
Rate | Yield to maturity | 0.0632604 | |||||||||
Nper | Number of payments | 3 | |||||||||
Fv | Payment at maturity | $1,000 | |||||||||
PV | Price=Present Value of cash flows= | $1,071.05 | (Using PV function of excel with Rate=0.06326, Nper=3,Pmt=-90, Fv=-1000) | ||||||||
C | Yield to maturity of a zero coupon bond is the normal return of the bond. | ||||||||||
There is no periodic coupon payment. | |||||||||||
Yield to maturity =((Face Value/Current Price)^(1/N))-1 | |||||||||||
N=Years to maturity=3 | |||||||||||
Face value=Current Price *((1+yied tomaturity)^N) | |||||||||||
In case of a coupon bond , yield to maturity is the internal rate of return | |||||||||||
For example, Cash flow for the coupon bond above: | |||||||||||
Year | Cash Flow | ||||||||||
0 | ($1,071.05) | ||||||||||
1 | $90 | ||||||||||
2 | $90 | ||||||||||
3 | $1,090 | ||||||||||
Yield to maturity =Internal rate of return= | 6.326% | (using IRR function of excel over the cash flow) | |||||||||
D | Price of 3 year coupon bond at t=0 | $1,071.05 | |||||||||
Price of 3 year coupon bond after t=1: | |||||||||||
Nper | Number of years to maturity | 2 | |||||||||
Rate | Yield to maturity | 0.0632604 | |||||||||
Pmt | Annual coupon payment=1000*0.09= | $90 | |||||||||
Fv | Payment at maturity | $1,000 | |||||||||
PV | Price=Present Value of cash flows= | $1,048.80 | (Using PV function of excel with Rate=0.06326, Nper=2,Pmt=-90, Fv=-1000) | ||||||||
Price of 3 year coupon bond after t=1: | $1,048.80 | ||||||||||
Coupon amount received at t=2 | $90 | ||||||||||
Total amount received=1048.80+90= | $1,138.80 | (1048.80+90) | |||||||||
Holding Period Return (HPR)=(1138.80/1071.05)-1 | 0.0632604 | ||||||||||
Holding Period Return (HPR)= | 6.326% | ||||||||||
E | Year to year yield remains constant , the price reduces for a premium bond from year to year | ||||||||||
At maturity price=face value | |||||||||||