Quantitative Methods - Basic concepts Flashcards
How much would the following income stream be worth assuming a 12% discount rate?
$100 received today.
$200 received 1 year from today.
$400 received 2 years from today.
$300 received 3 years from today.
A) $721.32.
B) $810.98.
C) $1,112.44.
B
Nortel Industries has a preferred stock outstanding that pays (fixed) annual dividends of $3.75 a share. If an investor wants to earn a rate of return of 8.5%, how much should he be willing to pay for a share of Nortel preferred stock?
A) $31.88.
B) $44.12.
C) $42.10.
B
Perpetuities present value = ?
pmt / interest rate
The First State Bank is willing to lend $100,000 for 4 years at a 12% rate of interest, with the loan to be repaid in equal semi-annual payments. Given the payments are to be made at the end of each 6-month period, how much will each loan payment be?
A) $32,925.
B) $16,104.
C) $25,450.
N = 4 × 2 = 8; I/Y = 12/2 = 6; PV = -100,000; FV = 0; CPT → PMT = 16,103.59.
Optimal Insurance is offering a deferred annuity that promises to pay 10% per annum with equal annual payments beginning at the end of 10 years and continuing for a total of 10 annual payments. For an initial investment of $100,000, what will be the amount of the annual payments?
A) $42,212.
B) $38,375.
C) $25,937.
B
- To get the PV of the series payments:
Using a financial calculator: N = 10, I = 10, PV = $100,000, PMT = 0, Compute FV = $259,374.25.
- Using a financial calculator and solving for a 10-year annuity due because the payments are made at the beginning of each period (you need to put your calculator in the “begin” mode), with a present value of $259,374.25, a number of payments equal to 10, an interest rate equal to ten percent, and a future value of $0.00, the resultant payment amount is $38,374.51. Alternately, the same payment amount can be determined by taking the future value after nine years of deferral ($235,794.77), and then solving for the amount of an ordinary (payments at the end of each period) annuity payment over 10 years.
!! remember to set the payment to begin!!
If 10 equal annual deposits of $1,000 are made into an investment account earning 9% starting today, how much will you have in 20 years?
A) $42,165.
B) $39,204.
C) $35,967.
B
Switch to BGN mode. PMT = -1,000; N = 10, I/Y = 9, PV = 0; CPT → FV = 16,560.29. Remember the answer will be one year after the last payment in annuity due FV problems. Now PV10 = 16,560.29; N = 10; I/Y = 9; PMT = 0; CPT → FV = 39,204.23. Switch back to END mode.
!! remember to set the payment to begin!!
What is the maximum an investor should be willing to pay for an annuity that will pay out $10,000 at the beginning of each of the next 10 years, given the investor wants to earn 12.5%, compounded annually?
A) $52,285.
B) $55,364.
C) $62,285.
C
Using END mode, the PV of this annuity due is $10,000 plus the present value of a 9-year ordinary annuity: N=9; I/Y=12.5; PMT=-10,000; FV=0; CPT PV=$52,285; $52,285 + $10,000 = $62,285.
Or set your calculator to BGN mode then N=10; I/Y=12.5; PMT=-10,000; FV=0; CPT PV= $62,285.
What is the maximum price an investor should be willing to pay (today) for a 10 year annuity that will generate $500 per quarter (such payments to be made at the end of each quarter), given he wants to earn 12%, compounded quarterly?
A) $6,440.
B) $11,557.
C) $11,300.
B
Using a financial calculator: N = 10 × 4 = 40; I/Y = 12 / 4 = 3; PMT = -500; FV = 0; CPT → PV = 11,557.
Compute the present value of a perpetuity with $100 payments beginning four years from now. Assume the appropriate annual interest rate is 10%.
A) $1000.
B) $683.
C) $751.
C
(first time picked B, draw a timeline will help identify N)
Compute the present value of the perpetuity at (t = 3). Recall, the present value of a perpetuity or annuity is valued one period before the first payment. So, the present value at t = 3 is 100 / 0.10 = 1,000. Now it is necessary to discount this lump sum to t = 0. Therefore, present value at t = 0 is 1,000 / (1.10)3 = 751.
A $500 investment offers a 7.5% annual rate of return. How much will it be worth in four years?
A) $668.
B) $650.
C) $892.
A
N = 4; I/Y = 7.5; PV = -500; PMT = 0; CPT → FV = 667.73.
or: 500(1.075)4 = 667.73
Wei Zhang has funds on deposit with Iron Range bank. The funds are currently earning 6% interest. If he withdraws $15,000 to purchase an automobile, the 6% interest rate can be best thought of as a(n):
A) financing cost.
B) opportunity cost.
C) discount rate.
B
Since Wei will be foregoing interest on the withdrawn funds, the 6% interest can be best characterized as an opportunity cost - the return he could earn by postponing his auto purchase until the future.
A local bank offers an account that pays 8%, compounded quarterly, for any deposits of $10,000 or more that are left in the account for a period of 5 years. The effective annual rate of interest on this account is:
A) 8.24%.
B) 9.01%.
C) 4.65%.
A
(1 + periodic rate)^m − 1 = (1.02)^4 − 1 = 8.24%.
(first time used the financial calculator, but using the geometric mean method is much faster)
Justin Banks just won the lottery and is trying to decide between the annual cash flow payment option or the lump sum option. He can earn 8% at the bank and the annual cash flow option is $100,000/year, beginning today for 15 years. What is the annual cash flow option worth to Banks today?
A) $1,080,000.00.
B) $924,423.70.
C) $855,947.87.
B
First put your calculator in the BGN.
N = 15; I/Y = 8; PMT = 100,000; CPT → PV = 924,423.70.
Alternatively, do not set your calculator to BGN, simply multiply the ordinary annuity (end of the period payments) answer by 1 + I/Y. You get the annuity due answer and you don’t run the risk of forgetting to reset your calculator back to the end of the period setting.
OR N = 14; I/Y = 8; PMT = 100,000; CPT → PV = 824,423.70 + 100,000 = 924,423.70.
If $2,000 a year is invested at the end of each of the next 45 years in a retirement account yielding 8.5%, how much will an investor have at retirement 45 years from today?
A) $100,135.
B) $90,106.
C) $901,060.
C
N = 45; PMT = -2,000; PV = 0; I/Y = 8.5%; CPT → FV = $901,060.79.
T-bill yields can be thought of as:
A)
nominal risk-free rates because they do not contain an inflation premium.
B)
nominal risk-free rates because they contain an inflation premium.
C)
real risk-free rates because they contain an inflation premium.
B
T-bills are government issued securities and are therefore considered to be default risk free. More precisely, they are nominal risk-free rates rather than real risk-free rates since they contain a premium for expected inflation.
The required rate of return on a security = ?
real risk-free rate + expected inflation + default risk premium + liquidity premium + maturity risk premium.
Nominal risk-free rate = ?
real risk-free rate + expected inflation rate.
_____ = _______ - inflation rate
Real risk-free rate = Nominal risk free rate - inflation rate
If an investor puts $5,724 per year, starting at the end of the first year, in an account earning 8% and ends up accumulating $500,000, how many years did it take the investor?
A) 26 years.
B) 27 years.
C) 87 years.
B
I/Y = 8; PMT = -5,724; FV = 500,000; CPT → N = 27.
Remember, you must put the pmt in as a negative (cash out) and the FV in as a positive (cash in) to compute either N or I/Y.
As the number of compounding periods increases, what is the effect on the annual percentage rate (APR) and the effective annual rate (EAR)?
A) APR increases, EAR increases.
B) APR increases, EAR remains the same.
C) APR remains the same, EAR increases.
C
The APR remains the same since the APR is computed as (interest per period) × (number of compounding periods in 1 year). As the frequency of compounding increases, the interest rate per period decreases leaving the original APR unchanged. However, the EAR increases with the frequency of compounding.
What is the effective annual rate if the stated rate is 12% compounded quarterly?
A) 12.55%.
B) 12.00%.
C) 57.35%.
A
EAR = (1 + 0.12 / 4)4 - 1 = 12.55%
Marc Schmitz borrows $20,000 to be paid back in four equal annual payments at an interest rate of 8%. The interest amount in the second year’s payment would be:
A) $1116.90.
B) $1244.90.
C) $6038.40.
B
With PV = 20,000, N = 4, I/Y = 8, computed Pmt = 6,038.42. Interest (Yr1) = 20,000(0.08) = 1600. Interest (Yr2) = (20,000 − (6038.42 − 1600))(0.08) = 1244.93
An investor purchases a 10-year, $1,000 par value bond that pays annual coupons of $100. If the market rate of interest is 12%, what is the current market value of the bond?
A) $950.
B) $1,124.
C) $887.
C
Note that bond problems are just mixed annuity problems. You can solve bond problems directly with your financial calculator using all five of the main TVM keys at once. For bond-types of problems the bond’s price (PV) will be negative, while the coupon payment (PMT) and par value (FV) will be positive. N = 10; I/Y = 12; FV = 1,000; PMT = 100; CPT → PV = -886.99.
Steve Hall wants to give his son a new car for his graduation. If the cost of the car is $15,000 and Hall finances 80% of the value of the car for 36 months at 8% annual interest, his monthly payments will be:
A) $376.
B) $413.
C) $289.
A
PV = 0.8 × 15,000 = -12,000; N = 36; I = 8/12 = 0.667; CPT → PMT = 376.
A major brokerage house is currently selling an investment product that offers an 8% rate of return, compounded monthly. Based on this information, it follows that this investment has:
A) an effective annual rate of 8.00%.
B) a periodic interest rate of 0.667%.
C) a stated rate of 0.830%.
B
Periodic rate = 8.0 / 12 = 0.667. Stated rate is 8.0% and effective rate is 8.30%.
An investment offers $100 per year forever. If Peter Wallace’s required rate of return on this investment is 10%, how much is this investment worth to him?
A) $10,000.
B) $1,000.
C) $500.
B
For a perpetuity, PV = PMT ÷ I = 100 ÷ 0.10 = 1,000.
An individual borrows $200,000 to buy a house with a 30-year mortgage requiring payments to be made at the end of each month. The interest rate is 8%, compounded monthly. What is the monthly mortgage payment?
A) $1,480.46.
B) $1,467.53.
C) $2,142.39.
B
With PV = 200,000; N = 30 × 12 = 360; I/Y = 8/12; CPT → PMT = $1,467.53.
What is the present value of a 12-year annuity due that pays $5,000 per year, given a discount rate of 7.5%?
A) $36,577.
B) $41,577.
C) $38,676.
B
Using your calculator: N = 11; I/Y = 7.5; PMT = -5,000; FV = 0; CPT → PV = 36,577 + 5,000 = $41,577. Or set your calculator to BGN mode and N = 12; I/Y = 7.5; PMT = -5,000; FV = 0; CPT → PV = $41,577.
!! annuity due : cash happens at beginning of period
Ordinary annuity cash flows occur ____ of each time period. Annuity due cash flows occur ____ of each time period.
at the end; at the beginning
____ cash flows occur at the end of each time period. ____ cash flows occur at the beginning of each time period.
Ordinary annuity; Annuity due
Concerning an ordinary annuity and an annuity due with the same payments and positive interest rate, which of the following statements is most accurate?
A) The present value of the ordinary annuity is less than an annuity due.
B) The present value of the ordinary annuity is greater than an annuity due.
C) There is no relationship.
A
With a positive interest rate, the present value of an ordinary annuity is less than the present value of an annuity due. The first cash flow in an annuity due is at the beginning of the period, while in an ordinary annuity, the first cash flow occurs at the end of the period. Therefore, each cash flow of the ordinary annuity is discounted one period more.
An investor makes 48 monthly payments of $500 each beginning today into an account that will have a value of $29,000 at the end of four years. The stated annual interest rate is closest to:
A) 10.00%.
B) 9.50%.
C) 9.00%.
C
Because this is an annuity due (payments at the start of each period) the calculator must first be set to BGN mode.
N = 48; PMT = 500; FV = -29,000; PV = 0; CPT I/Y = 0.7532
This percentage is a monthly rate because the time periods were entered as 48 months. It must be converted to a stated annual percentage rate (APR) by multiplying by the number of compounding periods per year: 0.7532 × 12 = 9.04%.
In 10 years, what is the value of $100 invested today at an interest rate of 8% per year, compounded monthly?
A) $180.
B) $216.
C) $222.
C
N = 10 × 12 = 120; I/Y = 8/12 = 0.666667; PV = -100; PMT = 0; CPT → FV = 221.96.
An investor has the choice of two investments. Investment A offers interest at 7.25% compounded quarterly. Investment B offers interest at the annual rate of 7.40%. Which investment offers the higher dollar return on an investment of $50,000 for two years, and by how much?
A) Investment A offers a $122.18 greater return.
B) Investment A offers a $53.18 greater return.
C) Investment B offers a $36.92 greater return.
B
Investment A: I = 7.25 / 4; N = 2 × 4 = 8; PV = $50,000; PMT = 0; CPT → FV = $57,726.98
Investment B: I = 7.40; N = 2; PV = $50,000; PMT = 0; CPT → FV = $57,673.80
Difference = investment A offers a $53.18 greater dollar return.
How much should an investor have in a retirement account on his 65th birthday if he wishes to withdraw $40,000 on that birthday and each of the following 14 birthdays, assuming his retirement account is expected to earn 14.5%?
A) $272,977.
B) $234,422.
C) $274,422.
C
This is an annuity due so set your calculator to the BGN mode. N = 15; I/Y = 14.5; PMT = -40,000; FV = 0; CPT → PV = 274,422.50. Switch back to END mode.
If $2,500 were put into an account at the end of each of the next 10 years earning 15% annual interest, how much would be in the account at the end of ten years?
A) $27,461.
B) $41,965.
C) $50,759.
C
N = 10; I = 15; PMT = 2,500; CPT → FV = $50,759.
Suppose you are going to deposit $1,000 at the start of this year, $1,500 at the start of next year, and $2,000 at the start of the following year in an savings account. How much money will you have at the end of three years if the rate of interest is 10% each year?
A) $4,000.00.
B) $5,750.00.
C) $5,346.00.
C
Future value of $1,000 for 3 periods at 10% = 1,331
Future value of $1,500 for 2 periods at 10% = 1,815
Future value of $2,000 for 1 period at 10% = 2,200
Total = $5,346
N = 3; PV = -$1,000; I/Y = 10%; CPT → FV = $1,331 N = 2; PV = -$1,500; I/Y = 10%; CPT → FV = $1,815 N = 1; PV = -$2,000; I/Y = 10%; CPT → FV = $2,200
What’s the effective rate of return on an investment that generates a return of 12%, compounded quarterly?
A) 12.55%.
B) 12.00%.
C) 14.34%.
A
(1 + 0.12 / 4)4 − 1 = 1.1255 − 1 = 0.1255.
Paul Kohler inherits $50,000 and deposits it immediately in a bank account that pays 6% interest. No other deposits or withdrawals are made. In two years, what will be the account balance assuming monthly compounding?
A) $53,100.
B) $56,400.
C) $50,500.
B
To compound monthly, remember to divide the interest rate by 12 (6%/12 = 0.50%) and the number of periods will be 2 years times 12 months (2 × 12 = 24 periods). The value after 24 periods is $50,000 × 1.00524 = $56,357.99.
The problem can also be solved using the time value of money functions: N = 24; I/Y = 0.5; PMT = 0; PV = 50,000; CPT FV = $56,357.99.
Find the future value of the following uneven cash flow stream. Assume end of the year payments. The discount rate is 12%.
Year 1: -2,000 Year 2: -3,000 Year 3: 6,000 Year 4: 25,000 Year 5: 30,000
A) $65,144.33.
B) $58,164.58.
C) $33,004.15.
B (first time calculated NPV on accident…C)
N = 4; I/Y = 12; PMT = 0; PV = -2,000; CPT → FV = -3,147.04
N = 3; I/Y = 12; PMT = 0; PV = -3,000; CPT → FV = -4,214.78
N = 2; I/Y = 12; PMT = 0; PV = 6,000; CPT → FV = 7,526.40
N = 1; I/Y = 12; PMT = 0; PV = 25,000; CPT → FV = 28,000.00
N = 0; I/Y = 12; PMT = 0; PV = 30,000; CPT → FV = 30,000.00
Sum the cash flows: $58,164.58.
Alternative calculation solution: -2,000 × 1.124 − 3,000 × 1.123 + 6,000 × 1.122 + 25,000 × 1.12 + 30,000 = $58,164.58.
Given: an 11% annual rate compounded quarterly for 2 years; compute the future value of $8,000 today.
A) $9,939.
B) $8,962.
C) $9,857.
A
Divide the interest rate by the number of compound periods and multiply the number of years by the number of compound periods. I = 11 / 4 = 2.75; N = (2)(4) = 8; PV = 8,000.
An investor deposits $4,000 in an account that pays 7.5%, compounded annually. How much will this investment be worth after 12 years?
A) $5,850.
B) $9,358.
C) $9,527.
C
N = 12; I/Y = 7.5; PV = -4,000; PMT = 0; CPT → FV = $9,527.
An investor wants to receive $1,000 at the beginning of each of the next ten years with the first payment starting today. If the investor can earn 10 percent interest, what must the investor put into the account today in order to receive this $1,000 cash flow stream?
A) $6,759.
B) $6,145.
C) $7,145.
A
This is an annuity due problem. There are several ways to solve this problem.
Method 1:
PV of first $1,000 = $1,000
PV of next 9 payments at 10% = 5,759.02
Sum of payments = $6,759.02
Method 2:
Put calculator in BGN mode.
N = 10; I = 10; PMT = -1,000; CPT → PV = 6,759.02
Note: make PMT negative to get a positive PV. Don’t forget to take your calculator out of BGN mode.
Method 3:
You can also find the present value of the ordinary annuity $6,144.57 and multiply by 1 + k to add one year of interest to each cash flow. $6,144.57 × 1.1 = $6,759.02.
A certain investment product promises to pay $25,458 at the end of 9 years. If an investor feels this investment should produce a rate of return of 14%, compounded annually, what’s the most he should be willing to pay for it?
A) $9,426.
B) $7,618.
C) $7,829.
C
N = 9; I/Y = 14; FV = -25,458; PMT = 0; CPT → PV = $7,828.54.
or: 25,458/1.149 = 7,828.54
Which one of the following statements best describes the components of the required interest rate on a security?
A)
The nominal risk-free rate, the expected inflation rate, the default risk premium, a liquidity premium and a premium to reflect the risk associated with the maturity of the security.
B)
The real risk-free rate, the default risk premium, a liquidity premium and a premium to reflect the risk associated with the maturity of the security.
C)
The real risk-free rate, the expected inflation rate, the default risk premium, a liquidity premium and a premium to reflect the risk associated with the maturity of the security.
C
The required interest rate on a security is made up of the nominal rate which is in turn made up of the real risk-free rate plus the expected inflation rate. It should also contain a liquidity premium as well as a premium related to the maturity of the security.
Sarah Parker is buying a new $25,000 car. Her trade-in is worth $5,000 so she needs to borrow $20,000. The loan will be paid in 48 monthly installments and the annual interest rate on the loan is 7.5%. If the first payment is due at the end of the first month, what is Sarah’s monthly car payment?
A) $480.57.
B) $483.58.
C) $416.67.
B
N = 48; I/Y = 7.5 / 12 = 0.625; PV = 20,000; FV = 0; CPT → PMT = 483.58.
Given investors require an annual return of 12.5%, a perpetual bond (i.e., a bond with no maturity/due date) that pays $87.50 a year in interest should be valued at:
A) $70.
B) $1,093.
C) $700.
C
87.50 ÷ 0.125 = $700.
The real risk-free rate can be thought of as:
A)
approximately the nominal risk-free rate plus the expected inflation rate.
B)
exactly the nominal risk-free rate reduced by the expected inflation rate.
C)
approximately the nominal risk-free rate reduced by the expected inflation rate.
C
The approximate relationship between nominal rates, real rates and expected inflation rates can be written as:
Nominal risk-free rate = real risk-free rate + expected inflation rate.
Therefore we can rewrite this equation in terms of the real risk-free rate as:
Real risk-free rate = Nominal risk-free rate - expected inflation rate
The exact relation is: (1 + real)(1 + expected inflation) = (1 + nominal)
An investor deposits $10,000 in a bank account paying 5% interest compounded annually. Rounded to the nearest dollar, in 5 years the investor will have:
A) $12,500.
B) $10,210.
C) $12,763.
C
PV = 10,000; I/Y = 5; N = 5; CPT → FV = 12,763.
or: 10,000(1.05)5 = 12,763.
What will $10,000 become in 5 years if the annual interest rate is 8%, compounded monthly?
A) $14,693.28.
B) $14,802.44.
C) $14,898.46.
C FV(t=5) = $10,000 × (1 + 0.08 / 12)^60 = $14,898.46
N = 60 (12 × 5); PV = -$10,000; I/Y = 0.66667 (8% / 12months); CPT → FV = $14,898.46
A 10% coupon bond was purchased for $1,000. One year later the bond was sold for $915 to yield 11%. The investor’s holding period yield on this bond is closest to:
A) 1.5%.
B) 9.0%.
C) 18.5%.
A
HPY = [(interest + ending value) / beginning value] − 1
= [(100 + 915) / 1,000] − 1
= 1.015 − 1 = 1.5%
Given a $1,000 T-bill with 100 days to maturity and a discount of $10 (price of $990):
What is bank discount yield? (formula is fine)
bank discount yield = discount/coupon value * 360/days to maturity
10/1000 * 360/100 = 3.6%
Given a $1,000 T-bill with 100 days to maturity and a discount of $10 (price of $990):
What is holding period yield? (formula is fine)
HPY = [(interest + ending value) / beginning value] − 1
(1000-990)/990 = 1.01%
Given a $1,000 T-bill with 100 days to maturity and a discount of $10 (price of $990):
What is effective annual yield? (formula is fine)
EAY = (1 + holding period yield)^365/t − 1.
1.0101^(365/100)-1 = 3.74%