Financial managment
General Info - TVM
| The Time Value of Money | |||||||||||||||||||
| $100 received today is worth more than $100 received 10 years from today. | |||||||||||||||||||
| NPER | 10 | ||||||||||||||||||
| RATE | 5% | ||||||||||||||||||
| PMT | 0 | ||||||||||||||||||
| PV | $100 | ||||||||||||||||||
| FV | $162.89 | ||||||||||||||||||
| Why? If you have $100 today, you have the opportunity to invest. Over time you earn interest and maintain the principal. The amount at 10 years will be greater than the value today. | |||||||||||||||||||
| If you were given $100 today, and you invested it at 5%, in ten years you would have $162.89 | |||||||||||||||||||
| Things to know about the TVM | |||||||||||||||||||
| When you compute Future Value problems, the interest is compounded. In compounding you earn interest on the principal and interest on the interest from the prior period. | |||||||||||||||||||
| When you compute Present Value problems, the interest is discounted | |||||||||||||||||||
| When valuing and comparing investments managers usually adopt the present value approach. | |||||||||||||||||||
| Different investments may include multiple time periods. We have to put them all in one so we can compare the value of different investments. For example: | |||||||||||||||||||
| Project A covers 5 years, Project B be for 10 years and Project C will last 30 years. | |||||||||||||||||||
| If you calculated the FV of each investment, you would have a FV amount for year 5, one for year 10, and one for year 30 | |||||||||||||||||||
| We can't compare an amount received in 5 years to an amount received in 10 years, or 30 years. It is like comparing 100 euros to 100 pesos to 100 pounds | |||||||||||||||||||
| However, you can compare the PV of each of the investments, which is the investment's value today. | |||||||||||||||||||
| Knowing todays value of each investment, lets you compare the three different investments in the same time period. | |||||||||||||||||||
| Cash Flow Types | |||||||||||||||||||
| In EXCEL and for a calculators all cash flow is not positive. If you invest, money is out of your pocket and is a negative cash flow. Therefore, if the PV is negative (invest) then the FV should be positive (cash flow you receive). When you get a loan, the initial cash flow is positive, the payments are negative, and the FV is 0 (if it is an amortized loan) or negative if you still owe money. Incorrect signs will give you an error or erroneous result. | |||||||||||||||||||
| Single Amounts - This is like a savings account, a CD or a one time investment. | |||||||||||||||||||
| You have one amount that is either compounding or being discounted. | |||||||||||||||||||
| There are no PMTs (payments). | |||||||||||||||||||
| It's the example above, when you put $100 in a savings account earning 5% for 10 years - you end up with $162.9 | |||||||||||||||||||
| Annuities - This is a stream of equal periodic cashflows over a specified period. | |||||||||||||||||||
| Your car payments are a type of an annuity, bonds are also annuities | |||||||||||||||||||
| There are two kinds of annuities, depending when the payments are made. | $220.01 | ||||||||||||||||||
| When the PMT comes at the beginning of the period - its an annuity due | $220.01 | ||||||||||||||||||
| When the PMT comes at the end of the period - it is an ordinary annuity | |||||||||||||||||||
| Ordinary annuities are the most common | |||||||||||||||||||
| In a single amount, like mentioned above, the interest is compounded each period and added back into the investment | |||||||||||||||||||
| In an annuity, the same amount of payment is made at the same interval. | |||||||||||||||||||
| For example you want to have $1000 at the end of 5 years. How much would to have to invest every year at 5% interest? At the end of year 1 you invest $181. | |||||||||||||||||||
| Annuity | Payments at the End of Year | 1 | 2 | 3 | 4 | 5 | |||||||||||||
| NPER | 5 | ($181) | ($181) | ($181) | ($181) | ($181) | |||||||||||||
| RATE | 5% | $181 | Payment in year 5 is made at end of year, when amount is withdrawn. Therefore, it does not earn any interest in year 5 | ||||||||||||||||
| PMT | ($181) | $190 | FV of payment in year 4 | ||||||||||||||||
| PV | 0 | $200 | FV of payment in year 3 | ||||||||||||||||
| FV | $1,000 | $210 | FV of payment in year 2 | ||||||||||||||||
| $220 | FV of payment in year 1 | ||||||||||||||||||
| $1,000 | total value of all the payments at the end of year 5 | ||||||||||||||||||
| An annuity due is when the payments are made at the beginning of the period. You have the entire period to earn interest. Lets make the same payments but at the beginning of each year. | |||||||||||||||||||
| Since you have an extra year to earn interest you will earn more money. | |||||||||||||||||||
| Payments at the Beginning of Year | 1 | 2 | 3 | 4 | 5 | ||||||||||||||
| Annuity | ($181) | ($181) | ($181) | ($181) | ($181) | ||||||||||||||
| NPER | 5 | $190 | The payment in year 5 is made at the beginning of the year. Therefore it earns interest during the year | ||||||||||||||||
| RATE | 5% | $200 | FV of payment in year 4 | ||||||||||||||||
| PMT | ($181) | $210 | FV of payment in year 3 | ||||||||||||||||
| PV | 0 | $220 | FV of payment in year 2 | ||||||||||||||||
| FV | $1,050 | $231 | FV of payment in year 1 | ||||||||||||||||
| $1,050 | total value of all the payments at the end of year 5 | ||||||||||||||||||
| In EXCEL an ordinary annuity would be indicated by a 0 under (type).For an annuity due you would put a 1 under type. FV = (rate,nper,pmt,PV, type) | |||||||||||||||||||
| A car or house payment are set up on an amortization schedule so you are paying back some principle, and interest. | |||||||||||||||||||
| It is an annuity because it meets the definition of an investment with equal periodic cashflows for a specified period. Most amortized loans have a FV of 0. So when the payments end, the principal amount borrowed is paid off. | |||||||||||||||||||
| Uneven Cash flows - is different payments or time periods. | |||||||||||||||||||
| These cannot be computed as an annuity in which each PMT is the same | |||||||||||||||||||
| Therefore, to compute uneven cash flows, you can use the NPV or Net Present Value formula | |||||||||||||||||||
| The NPV formula will compute the PV of the uneven cashflows. Note that EXCEL considers the first payment to be at the end of the 1st period. Therefore it does not calculate the initial investment at time 0. | |||||||||||||||||||
| If you need the FV of a set of uneven cashflows, then you need to add an additional step. | |||||||||||||||||||
| First compute the NPV | |||||||||||||||||||
| Then use the NPV amount as the PV in a FV formula | |||||||||||||||||||
| Calculate the PV and FV of the following cash flows that are earning 8.9% interest. | |||||||||||||||||||
| RATE | 8.90% | ||||||||||||||||||
| Present Value | Year 1 | 5000 | |||||||||||||||||
| Compute NPV | $17,117.55 | Year 2 | 3000 | ||||||||||||||||
| =NPV(J73,J74:J80) | Year 3 | 3500 | |||||||||||||||||
| For the FV, take the PV of all the cash flows to calculate its FV. | Year 4 | 4125 | |||||||||||||||||
| CPT FV | $31,091.15 | =FV(J73,7,,-E75) | Year 5 | 5525 | |||||||||||||||
| One formula | $31,091.15 | =FV(J73,7,0,-NPV(J73,J74:J80)) | Year 6 | 326 | |||||||||||||||
| Year 7 | 1000 | ||||||||||||||||||
| Compounding more frequently | |||||||||||||||||||
| Interest rates are stated as yearly rates | |||||||||||||||||||
| If a problems does NOT mention a compounding period - then you can assume it is yearly | |||||||||||||||||||
| However, many investments are compounded more frequently that that, so you need to know how to make adjustments for more frequent compounding | |||||||||||||||||||
| The more frequent the compounding, the more interest is earned | |||||||||||||||||||
| To convert a formula to more frequent compounding three things need to be adjusted: | |||||||||||||||||||
| NPER - short for the number of periods-the number of years needs to me multiplied by the number of compounding periods | |||||||||||||||||||
| PMT - The yearly payment needs to be divided by the compounding periods | |||||||||||||||||||
| RATE - the yearly interest also needs to be divided by the compounding periods | |||||||||||||||||||
| Note: When computing the RATE formula, you adjust the NPER and PMT to the compounding period. Therefore the rate you compute is for that compounding period. If you are computing a monthly rate, then you will have to multiply the rate by 12 to have an annual rate. | |||||||||||||||||||
| You will then need to multiply the answer you get by the compounding period to bring it back to a yearly rate | |||||||||||||||||||
| Because interest rates are ALWAYS stated as yearly rates | |||||||||||||||||||
| Perpetuities | Preferred Stock | ||||||||||||||||||
| A perpertuity is an investment that goes on infinately. | Preferred stock is valued the same as a perpetuity | ||||||||||||||||||
| So how is this possible? An investment that can go on forever???? | The payment is the yearly dividend, which is usually a percentage of the par price | ||||||||||||||||||
| First, lets go back to the annuity. | The principal is the purchase price, which remains in tact indefinately, | ||||||||||||||||||
| One of the most common forms of an annuity is a car loan. | or until the preferred stock is sold or the corporation ceases to exist. | ||||||||||||||||||
| You have the value of the car and the interest divided into equal payments. | You should also know that in general - most corporations do NOT issue preferred stock. | ||||||||||||||||||
| So the principal (price of the car) is there at the beginning when you get the loan from the bank. | |||||||||||||||||||
| Then every month for the period of the annuity, you make equal payments that include part principal and part interest. | |||||||||||||||||||
| At the end of the investment period, you will have the car paid off, so the balance of the annuity will be 0 | |||||||||||||||||||
| The key here is that each month the annuity is paying out part of the principal and part of the interest. | |||||||||||||||||||
| The difference in the annuity and the perpetuity is that the principal stays put in the perpetuity. It is not paid out each period. | |||||||||||||||||||
| For example, the principal of the perpetuity is $20,000. | |||||||||||||||||||
| In each period the payment will only be the interest that the $20,000 earned over that period. | |||||||||||||||||||
| Therefore, the $20,000 stays in the account, and each period the investor will receive an interest payment. | |||||||||||||||||||
| Because the principal is never touched, that's how a perpertuity can go on forever. | |||||||||||||||||||
| If the owner of the $20,000 perpertuity ever decided to end or cash in the perpetuity, he would receive the $20,000 (principal) back. |
General Info - Bonds
| Bonds | ||
| Bonds are long-term debt instruments | ||
| When a company issues bonds - they are actually borrowing money from investors (whoever buys the bonds) | ||
| When a company buys bonds from other companys - they are investing (loaning money to the company that sold the bonds). | ||
| The Bond market is very important! The risk-free market rates are set by the current price of government bonds (treasury bonds) | ||
| The current interest rates in the US are set by the bond market | ||
| Bonds are generally sold in $1000 increments. This is why the standard Par price of a bond may be $1000 $5000 or $10,000 etc. | ||
| For this course we will generally use $1000 as the par value | ||
| How a standard bond works: | ||
| You buy a bond, | ||
| Then you receive annual payments based on the initial or coupon interest rate you were given at the time of purchase | ||
| At the end of the bond term (when the bond matures) you get your initial investment of $1000 back. | ||
| So, if you buy a 5 year bond with an initial interest rate of 10%: | ||
| You pay the current price of the bond | ||
| You receive 5 yearly payments of $100 ($1000 * 10%) | ||
| Then at the end of the 5 years, you receive the par value of the bond or $1000. | ||
| If you hold the bond for the full term, then nothing will change | ||
| Most bonds are NOT held for the full term | ||
| They are bought and sold through investment agencies | ||
| When bonds are sold or re-sold, the current market interest rate may be different from the coupon rate | ||
| If this happens, then the price of the bond will need to be adjusted to make-up for the change in the interest rate | ||
| When the rate goes up - the price of the bond will go down | ||
| When the rate goes down - the price of the bond will go up | ||
| This difference is what you are calculating when you are asked to value a bond | ||
| Things to remember when valuing a bond: | ||
| PMT - the bond payment is calculated by multiplying par vavlue ($1000 for example) by the Coupon Rate - You have to do this when the PMT is not given to you in the question! | ||
| FV - in your valuation computations, the FV is ALWAYS the par value. | ||
| ALWAYS use the Market Price and/or the Market RATE in your formulas | ||
| If you use the coupon RATE in your formula - you will not calculate the value of the bond | ||
| If you use the coupon Price as the PV in your formula - you will calculate the Coupon RATE | ||
| You are not being asked to compute the coupon rate or price - you are being asked to compute the new Market RATE/Price | ||
| The Coupon RATE and Price are ONLY used to calculate the PMT | ||
| If the bond is compounded more frequently than a year - you have to adjust the: NPER, RATE and PMT to the compounding period | ||
| Leaving your imputs as a yearly amount and then multiply/dividing the answer by the compounding period DOES NOT WORK | ||
| When you do this - you are still computing yearly interest | ||
| You have to adjust the NPER, RATE and PMT to the compounding period to compute the correct amount | ||
| When inputing your PV, FV and payment think of if the cash is going out of your pocket or in your pocket. If you are investing, the cash flow is negative since it is going out of your pocket. If you receive the payment and the FV those are positive. You can't have all positive cash flows. |
Part 1
| Assignment 2 - Part 1 - Worksheet - 20 Points | |||||||||||||||||
| This worksheet was designed to teach you how to work TVM, Stock and Bond problems and equations in Excel | |||||||||||||||||
| Worksheet Instructions: This is a tool to help you learn how to enter formulas into excel to solve TVM problems. Since the goal is for you to learn the formulas and how to enter them, you are given the answers. You should enter formulas until you get the correct answer. (Your answer should match mine). This gives you practice on using EXCEL. In the first part of each section, I give you several examples of problems and how to solve them. Then in the second part, you solve problems for youself. I'm providing the answer, so you know if you got it right or not. If you did not get the correct answer, try again. You will be graded on the formula that you have entered. Please fill in the standard formats, then enter the formula in the blue cell. Enter each formula manually, do NOT cut and paste formulas from other spreadsheets or from examples. The purpose of this exercise is for you to learn how to manually enter the formulas, so that you will be able to do it on the exam. There will be several TVM problems on exams. The more you practice, the easier it gets. | |||||||||||||||||
| Section 1: Solving TVM problems for Single Amounts - Use this method for Savings Accounts, Growth Rates, Interest Rates, Inflation Rates | |||||||||||||||||
| Things to know: | |||||||||||||||||
| Standard Format >>> | NPER (N) | Time Value of Money Formulas | *One of the inputs needs to be negative - look at the formulas below | ||||||||||||||
| RATE (I/Y) | Future Value | =FV (rate, nper, pmt, pv) | generally, when you pay money, enter as negative, when you receive money, enter as positive | ||||||||||||||
| PV | Present Value | =PV (rate, nper, pmt, fv) | *When entering the RATE - don't forget to enter the % sign | ||||||||||||||
| PMT | Rate | = RATE (nper, pmt, pv, fv) | *There are NO payments for single amount problems, | ||||||||||||||
| FV | Number of periods | = NPER (rate, pmt, pv, fv) | the interest goes back into the account each period, this is called compounding. | ||||||||||||||
| Compute ? | Formula goes here! | Payment | = PMT ( rate, nper, pv, fv) | *Once you start entering the formula, a pop-up box will appear showing you the formula. | |||||||||||||
| *When the pop-up box appears, you can also click the fx in the top taskbar, for help entering formulas. | |||||||||||||||||
| Examples | |||||||||||||||||
| The future value of $100 received today and deposited at 6 percent for four years is | The present value of $100 to be received 10 years from today, assuming an opportunity cost of 9% | The current dividend is $5, the dividend 6 years ago was $1.95, compute the growth rate | With an interest rate of 3.5%, how long will it take for my $500 investment to triple? | ||||||||||||||
| NPER (N) | 4 | NPER (N) | 10 | NPER (N) | 6 | NPER (N) | ? | ||||||||||
| RATE (I/Y) | 6% | RATE (I/Y) | 9% | RATE (I/Y) | ? | RATE (I/Y) | 3.5% | ||||||||||
| PV | 100 | PV | ? | PV | 1.95 | PV | 500 | ||||||||||
| PMT | 0 | PMT | 0 | PMT | 0 | PMT | 0 | ||||||||||
| FV | ? | FV | 100 | FV | 5 | FV | 1500 | <<< 3 * 500 | |||||||||
| Compute ? | $126.25 | Compute ? | $42.24 | Compute ? | 16.99% | Compute ? | 31.94 | Years | |||||||||
| =FV(D18,D17,,-D19) or | =-PV(G18,G17,,G21) | =RATE(K17,,-K19,K21) | =NPER(N18,,-N19,N21) | ||||||||||||||
| =FV(6%, 4, 0, -100) | = -PV (9%, 10, 0, 100) | =RATE (6, 0, -1.95, 5) | =NPER (3.5%, 0, -500, 1500) | ||||||||||||||
| OK, now enter your formula in the blue cells. | |||||||||||||||||
| The future value of $975 received today and deposited at 3.5% for four years is | The present value of $1285 to be received 10 years from today, assuming an opportunity cost of 2.9% | The current dividend is $9.5, the dividend 4 years ago was $4.95, compute the growth rate | With an interest rate of 8%, how long will it take for my $250 investment to quadruple? | ||||||||||||||
| NPER (N) | NPER (N) | NPER (N) | NPER (N) | ? | |||||||||||||
| RATE (I/Y) | RATE (I/Y) | RATE (I/Y) | ? | RATE (I/Y) | |||||||||||||
| PV | PV | ? | PV | PV | |||||||||||||
| PMT | PMT | PMT | PMT | ||||||||||||||
| FV | ? | FV | FV | FV | |||||||||||||
| Compute ? | $1,118.83 | Compute ? | $965.49 | Compute ? | 17.70% | Compute ? | 18.01 | ||||||||||
| Section 2: Computing Annuities - problems that have equal periodic payments - Car loans, Bonds, Lotto winnings, Retirement accounts . . . | |||||||||||||||||
| Examples | |||||||||||||||||
| The future value of $100 received annually for 35 years with 3.8% interest | The present value of $100 to be received semi-annually for 20 years with a 7.5% rate | Beginning TODAY, you deposit $1000 per year for the next 25 years with a 4.8% interest rate - how much will you have in 25 years? | You won the lottery and beginning today, you will be paid $500,000 per year for 50 years. At a 3.5% rate, was is the PV of this prize? | ||||||||||||||
| NPER (N) | 35 | NPER (N) | 20 | NPER (N) | 25 | NPER (N) | 50 | ||||||||||
| RATE (I/Y) | 3.8% | RATE (I/Y) | 7.5% | RATE (I/Y) | 4.8% | RATE (I/Y) | 3.5% | ||||||||||
| PV | 0 | PV | ? | PV | 0 | PV | 0 | ||||||||||
| PMT | 100 | PMT | 100 | PMT | 1000 | PMT | $500,000 | ||||||||||
| FV | ? | FV | 0 | FV | ? | FV | 0 | ||||||||||
| Compute ? | $7,076.29 | Compouning period | 2 | Compute ? | $48,660.66 | Compute ? | $12,138,282 | ||||||||||
| =-FV(D44,D43,D46,D45) | Compute ? | $2,055.10 | =FV(K44,K43,-K46,K45,1) | =-PV(N44,N43,N46,N47, 1) | |||||||||||||
| =-FV(3.8%, 35, 100, 0) | =-PV(G44/2,G43*2,G46) | =FV(4.8%,25,-1000,0,1) | =-PV(3.5%, 50, 500000, 0, 1) | ||||||||||||||
| = -PV (7.5%/2, 20*2, 100) | |||||||||||||||||
| Things to know: There are two types of annuities: ordinary and annuity due | Beginning TODAY, you deposit $1000 per month with a 3.5% interest rate - how much will you have in 25 years? | ||||||||||||||||
| When payments come at the end of the period, its an ordinary annuity | |||||||||||||||||
| When payments come at the beginning of the period, its an annuity due, you need to add a 1 at the end of the formula to compute an annuity due | NPER (N) | 25 | |||||||||||||||
| This only applies for annuities. If the problem is not an annuity, then the 1 at the end of the formula will give you an incorrect answer. | RATE (I/Y) | 3.5% | |||||||||||||||
| If payments occur more frequently than 1 year, then you will need to adjust for the compounding. | PV | 0 | |||||||||||||||
| If you are given a monthly payment amount, that means the interest is being compounded monthly | PMT | 1000 | |||||||||||||||
| You will need to adjust the NPER and RATE for monthly compounding. You can make the adjustment within the EXCEL formula. | FV | ? | |||||||||||||||
| You CANNOT multiply the PMT by 12, compute the formula, then divide you answer by 12 | Compute ? | $479,963.40 | |||||||||||||||
| This method might be faster, but it still computes yearly compounding. | =FV(N55/12,N54*12,-N57,N56,1) | ||||||||||||||||
| =FV(3.5% / 12, 25 * 12, -1000,0,1) | |||||||||||||||||
| For more frequent compounding, always adjust: NPER, RATE and PMT to the new compounding period. | PMT is monthly - that means monthly compounding. | ||||||||||||||||
| Now its your turn | |||||||||||||||||
| The future value of $5000 received annually for 20 years with 2.5% interest | The present value of $5000 to be received annually for 20 years with a 2.5% rate | Beginning TODAY, you deposit $100 per month with a 4.8% annual interest rate - how much will you have in 25 years? | |||||||||||||||
| NPER (N) | NPER (N) | NPER (N) | |||||||||||||||
| RATE (I/Y) | RATE (I/Y) | RATE (I/Y) | |||||||||||||||
| PV | PV | ? | PV | ||||||||||||||
| PMT | PMT | PMT | |||||||||||||||
| FV | ? | FV | FV | ? | |||||||||||||
| Compute ? | $127,723.29 | Compute ? | $77,945.81 | Compute ? | $58,035.70 | ||||||||||||
| Section 3: Computing Uneven Cash Flows (Mixed Streams) | Your turn - please compute the following mixed stream | ||||||||||||||||
| Compute the PV and FV of the streatm of cash flows with a 3.8% rate. | CASHFLOWS | Compute the PV and FV of the streatm of cash flows with a 5.1% rate. | CASHFLOWS | ||||||||||||||
| NPER (N) | 6 | Year 1 | 2563 | NPER (N) | Year 1 | 1585 | |||||||||||
| RATE (I/Y) | 3.8% | Year 2 | 2568 | RATE (I/Y) | Year 2 | 1585 | |||||||||||
| PV Compute NPV | $17,419.09 | =NPV(3.8%,G81:G86) | Year 3 | 3500 | PV Compute NPV | $8,454.09 | Year 3 | 1605 | |||||||||
| PMT | Year 4 | 3500 | PMT | Year 4 | 1650 | ||||||||||||
| FV | ? | Year 5 | 3885 | FV | Year 5 | 1800 | |||||||||||
| Compute ? FV | $21,787.61 | =FV(D82,D81,0,-D83) | Year 6 | 4000 | Compute ? FV | $11,394.18 | Year 6 | 1850 | |||||||||
| One formula | $21,787.61 | =FV(D82,D81,,-NPV(D82,G81:G86)) | |||||||||||||||
| Section 4: Computing Perpetuities | Your turn - compute the following perpetuity questions | ||||||||||||||||
| PV = CF / RATE | Compute PV of a perpetuity with a Cash Flow of $180 discounted at 5.9% >>>>>>>>>>>>>> | PV = 180 / 5.9% = $3050.80 | Compute the present value of a perpetual income stream of $500 at a 14 percent discount rate. | ||||||||||||||
| RATE = CF / PV | Compute the RATE of a perpetuity with a PV of $3050.80 and a CF of $180 >>>>>>>>>>>>> | RATE = 180/3050.80 = 5.9% | $3,571.43 | ||||||||||||||
| CF (PMT) = PV * RATE | Compute the Cash Flow of a perpetuity with a PV of $3050.80 earning 5.9% >>>>>>>>>>>> | CF = 3050.8 * 5.9% = $180 | What is the rate of interest being earned on a $25,000 perpetuity with a cash flow of $875 | ||||||||||||||
| 3.50% | |||||||||||||||||
| Section 5: Valuing Bonds - Read about Bonds on the "General Information" tab | Valuing Bonds with more frequent compounding | ||||||||||||||||
| Examples | |||||||||||||||||
| What is the current price of a $1000 par value bond maturing in 12 years with a coupon rate of 14% and a YTM of 13%? | What is the YTM (RATE) for a bond currently selling for $1,120 that matures in 6 years with a coupon rate of 8%? | What is the current price of a SEMI-ANNUAL bond maturing in 12 years with a coupon rate of 14% and a YTM of 13% | What is the YTM for a bond currently selling for $1,120 that matures in 6 years with a coupon rate of 8% and monthly compounding? | ||||||||||||||
| NPER (N) | 12 | NPER (N) | 6 | NPER (N) | 12 | NPER (N) | 6 | ||||||||||
| RATE (Coupon) | 14.0% | RATE (Coupon) | 8.0% | RATE (Coupon) | 14.0% | RATE (Coupon) | 8.0% | ||||||||||
| PV (Coupon Price) | $1,000 | PV (Coupon Price) | $1,000 | PV (Coupon Price) | $1,000 | PV (Coupon Price) | $1,000 | ||||||||||
| PMT | $140 | =C99*C100 | PMT | 80 | = 8% * 1000 | PMT | $140 | PMT | 80 | ||||||||
| RATE (Market Rate) | 13% | RATE (Market Rate) | ? | RATE (Market Rate) | 13% | RATE (Market Rate) | ? | ||||||||||
| PV (Market Price) | ? | PV (Market Price) | $1,120 | PV (Market Price) | ? | PV (Market Price) | $1,120 | ||||||||||
| FV | $1,000 | FV | $1,000 | FV | $1,000 | FV | $1,000 | ||||||||||
| Compute ? | $1,059.18 | Compute ? | 5.59% | Compounding period | 2 | Compounding period | 12 | ||||||||||
| =-PV(D105,D101,D104,D107) | =RATE(G101,G104,-G106,G107) | Compute ? | $1,059.95 | Compute ? | 5.64% | ||||||||||||
| =-PV( 13%, 12, $140, 1000) | =RATE( 6, 80, -1120, 1000) | =-PV (K105 / 2, K101*2, K104/2 ,K107) | =RATE(N101*N108,N104/N108,-N106,N107)*12 | ||||||||||||||
| = -PV( 13%/2, 12 * 2, $140 / 2, 1000) | =RATE( 6 * 12, 80 / 12, -1120, 1000) * 12 | ||||||||||||||||
| Note: The change for more frequent compounding doesn't change the outcome a whole lot | |||||||||||||||||
| This is why using multiple decimal spaces is VERY important | |||||||||||||||||
| Note: When using the RATE formula, I multiplied the whole equation by 12 | |||||||||||||||||
| This is because when I entered the NPER and PMT as monthly amounts, | |||||||||||||||||
| I computed a monthly Interest RATE - so I multiplied it by 12 to bring it to a yearly rate. | |||||||||||||||||
| Interest rates are ALWAYS stated as yearly rates. | |||||||||||||||||
| Remember: When adjusting for more frequent compounding, you must adjust: | |||||||||||||||||
| RATE, NPER and PMT | |||||||||||||||||
| OK - Your turn to compute the value of Bonds | |||||||||||||||||
| What is the current price of a bond maturing in 12 years with a coupon rate of 14% and a YTM of 13% | What is the YTM for a bond with a current price of $908, a coupon rate of 11%, par value of $1000, and 8 years to maturity? | What is the PV of a bond with a current rate of 12%, a coupon rate of 9%, 10 years to maturity, and monthly compounding? | Nico Corp has issued bonds bearing a coupon rate of 12%, pays coupons semi-annually, has 3 years remaining to maturity, and are currently priced at $940. What is the YTM? | ||||||||||||||
| NPER (N) | NPER (N) | NPER (N) | NPER (N) | ||||||||||||||
| RATE (Coupon) | RATE (Coupon) | RATE (Coupon) | RATE (Coupon) | ||||||||||||||
| PV (Coupon Price) | $1,000 | PV (Coupon Price) | $1,000 | PV (Coupon Price) | $1,000 | PV (Coupon Price) | $1,000 | ||||||||||
| PMT | PMT | PMT | PMT | ||||||||||||||
| RATE (Market Rate) | RATE (Market Rate) | ? | RATE (Market Rate) | RATE (Market Rate) | ? | ||||||||||||
| PV (Market Price) | ? | PV (Market Price) | PV (Market Price) | ? | PV (Market Price) | ||||||||||||
| FV | $1,000 | FV | $1,000 | FV | $1,000 | FV | $1,000 | ||||||||||
| Compute ? | $1,059.18 | Compute ? | 12.91% | Compounding period | Compounding period | ||||||||||||
| Compute ? | $825.75 | Compute ? | 14.54% | ||||||||||||||
| End of Part 1 - Worksheet | |||||||||||||||||
| Worksheet Grade | 20 Possible Points |
Part 2
| Assignment 2 - Part 2 - Problems - 80 Points | ||||||||||||||
| Please complete the Worksheet on "Part 1" first. | ||||||||||||||
| Grade for Assignment 2 | ||||||||||||||
| Questions | Points | Score | ||||||||||||
| Problem 1: On the day you were born, your parents took $8952 to the bank and purchased a 25 year CD that will earn 3.4% interest. How much money will you have on your 25th birthday? | Problem 2: Congratulations! You just won the lottery. Beginning today, you will receive $5000 per week for the next 30 years. Assuming an interest rate of 2.75%, what is the Present Value of this prize? | Part 1 | 20 | Worksheet Grade | ||||||||||
| Part 2 | ||||||||||||||
| 1 | 5 | P1 | ||||||||||||
| 2 | 5 | P2 | ||||||||||||
| 3 | 5 | P3 | ||||||||||||
| NPER | NPER | 4 | 5 | P4 | ||||||||||
| I/Y (Rate) | I/Y (Rate) | 5 | 5 | P5 | ||||||||||
| PV | PV | ? | 6 | 7 | P6 | |||||||||
| PMT | PMT | 7 | 5 | P7 | ||||||||||
| Note: | FV | ? | FV | 8 | 7 | P8 | ||||||||
| The compounding periods | Compounding Periods | Compounding Periods | P1 | 5 Points | 9 | 8 | P9 | |||||||
| is how many times the | CPT (Compute) ? | <<<Please enter your formulas in the blue boxes>>> | CPT (Compute) ? | P2 | 5 Points | 10 | 8 | P10 | ||||||
| investment compounds per year. | DO NOT CUT & PASTE FORMULAS - ENTER THEM MANUALLY | 11 | 10 | P11 | ||||||||||
| 12 | 10 | P12 | ||||||||||||
| Problem 3: How many years will it take for an intial investment of $2000, earning 5.4% annually, to reach $10,000? | Problem 4: You have future plans to buy a house 5 years from now. You estimate that a down payment of $20,000 will be required at that time. To accumulate that amount, you want to start making monthly payments into an account paying 3.9% interest. What will your monthly payments be? | Total | 100 | 0 | ||||||||||
| Total Grade | 100 | 0 | ||||||||||||
| NPER | ? | NPER | ||||||||||||
| I/Y (Rate) | I/Y (Rate) | |||||||||||||
| PV | PV | |||||||||||||
| PMT | PMT | ? | ||||||||||||
| FV | FV | |||||||||||||
| Compounding Periods | Compounding Periods | P3 | 5 Points | |||||||||||
| CPT (Compute) ? | CPT (Compute) ? | P4 | 5 Points | |||||||||||
| Problem 5: You are buying a car. The one you have choosen to purchase is going to cost you $32,985. Your car salesman has told you that you can purchase this vehicle for $525 per month for 72 months. What interest rate will you be paying? | Problem 6: You are not quite sure about the car deal in Problem 5. So the car salesman now tells you that the company is offering a bonus if you buy the car today. You can either choose to get a $2500 discount on the car price, or zero percent financing. Which option is the best deal? Please compute the PMT for both options to find out. | |||||||||||||
| Cash back deal | Zero financing deal | |||||||||||||
| NPER | Note: For a Loan the Price is listed as PV | NPER | ||||||||||||
| I/Y (Rate) | ? | Because the bank gives you the money in the beginning | I/Y (Rate) | |||||||||||
| PV | FV is 0, because the loan will be paid off at the end | PV | ||||||||||||
| PMT | PMT | ? | ? | |||||||||||
| FV | FV | |||||||||||||
| Compounding Periods | Compounding Periods | P5 | 5 Points | |||||||||||
| CPT (Compute) ? | CPT (Compute) ? | P6 | 7 Points | |||||||||||
| Remember, interest rates are ALWAYS stated as yearly rates. | ||||||||||||||
| See "Compounding More Frequently" on the General Information Tab | ||||||||||||||
| Problem 7: If the cash flows listed below were deposited at 4.1% interest, what would the present value be? | Problem 8: Find the future value of the same stream of cash flows, assuming that the firm's opportunity cost is 5.5%. | |||||||||||||
| NPER | Year | Amount | NPER | |||||||||||
| I/Y (Rate) | 1 | 22,500 | I/Y (Rate) | |||||||||||
| PV | ? | 2 | 23,295 | PV | ||||||||||
| PMT | 3 | 23,750 | PMT | |||||||||||
| FV | 4 | 24,505 | FV | ? | ||||||||||
| Compounding Periods | 5 | 25,000 | Compounding Periods | P7 | 5 Points | |||||||||
| CPT (Compute) ? | CPT (Compute) ? | P8 | 7 Points | |||||||||||
| Problem 9: You are interested in buying a bond that has a coupon rate of 9%, and matures in 25 years. The market rate for bonds with similar risk is 11.5%. What is the most you should pay for this bond? | Problem 10: Gwenyth just purchased a bond for $1250 that has a maturity of 10 years and a coupon interest rate of 8.5%, paid annually. What is the YTM of the $1000 face value bond that she purchased? | |||||||||||||
| NPER | NPER | |||||||||||||
| RATE (Coupon) | RATE (Coupon) | |||||||||||||
| PV (Coupon Price) | PV (Coupon Price) | |||||||||||||
| PMT | PMT | |||||||||||||
| RATE (Market Rate) | RATE (Market Rate) | ? | ||||||||||||
| PV (Market Price) | ? | PV (Market Price) | ||||||||||||
| FV | FV | |||||||||||||
| Compounding Periods | Compounding Periods | P9 | 8 Points | |||||||||||
| Compute ? | Compute ? | P10 | 8 Points | |||||||||||
| Problem 11: Micron issues a 9% coupon bond with a maturity of 5 years and monthly interest payments. The face value of the bond, payable at maturity, is $1000. What is the value of this bond if your required rate of return is 12% | Problem 12: What is the YTM of a bond that has a current price of $1128, coupon rate of 7.3%, $1000 par value, interest paid semi-annually, and nine years to maturity? | |||||||||||||
| NPER | 60 | NPER | ||||||||||||
| RATE (Coupon) | 9.00% | RATE (Coupon) | ||||||||||||
| PV (Coupon Price) | 90 | PV (Coupon Price) | ||||||||||||
| PMT | 8 | PMT | ||||||||||||
| RATE (Market Rate) | 12% | RATE (Market Rate) | ? | |||||||||||
| PV (Market Price) | ? | PV (Market Price) | P11 | 10 Points | ||||||||||
| FV | 1,000 | FV | P12 | 10 Points | ||||||||||
| Compounding Periods | 60 | Compounding Periods | ||||||||||||
| Compute ? | -$910.09 | Compute ? | ||||||||||||
Please complete the following problems You are REQUIRED to use Excel to compute your answers