Chapter 10 Flashcards
___________ a relationship between expected return and risk.
A. APT stipulates
B. CAPM stipulates
C. Both CAPM and APT stipulate
D. Neither CAPM nor APT stipulate
E. No pricing model has been found.
C. Both CAPM and APT stipulate
Consider the multifactor APT with two factors. Stock A has an expected return of 17.6%, a beta of 1.45 on factor 1, and a beta of .86 on factor 2. The risk premium on the factor 1 portfolio is 3.2%. The risk-free rate of return is 5%. What is the risk-premium on factor 2 if no arbitrage opportunities exist?
9.26%
17.6% = 1.45(3.2%) + .86x + 5%; x = 9.26.
In a multifactor APT model, the coefficients on the macro factors are often called
A. systemic risk.
B. factor sensitivities.
C. idiosyncratic risk.
D. factor betas.
E. factor sensitivities and factor betas.
E. factor sensitivities and factor betas
In a multifactor APT model, the coefficients on the macro factors are often called
A. systemic risk.
B. firm-specific risk.
C. idiosyncratic risk.
D. factor betas.
D. factor betas
In a multifactor APT model, the coefficients on the macro factors are often called
A. systemic risk.
B. firm-specific risk.
C. idiosyncratic risk.
D. factor loadings.
D. factor loadings
Which pricing model provides no guidance concerning the determination of the risk premium on factor portfolios?
A. The CAPM
B. The multifactor APT
C. Both the CAPM and the multifactor APT
D. Neither the CAPM nor the multifactor APT
E. None of the options is a true statement.
B. the multifactor APT
An arbitrage opportunity exists if an investor can construct a __________ investment portfolio that will yield a sure profit.
A. positive
B. negative
C. zero
D. All of the options
E. None of the options
C. zero
The APT was developed in 1976 by
A. Lintner.
B. Modigliani and Miller.
C. Ross.
D. Sharpe.
C. Ross
A _________ portfolio is a well-diversified portfolio constructed to have a beta of 1 on one of the factors and a beta of 0 on any other factor.
A. factor
B. market
C. index
D. factor and market
E. factor, market, and index
A. factor
The exploitation of security mispricing in such a way that risk-free economic profits may be earned is called
A. arbitrage.
B. capital asset pricing.
C. factoring.
D. fundamental analysis.
E. None of the options
A. arbitrage
In developing the APT, Ross assumed that uncertainty in asset returns was a result of
A. a common macroeconomic factor.
B. firm-specific factors.
C. pricing error.
D. a common macroeconomic factor and firm-specific factors.
D. a common macroeconomic factor and firm-specific factors
The ____________ provides an unequivocal statement on the expected return-beta relationship for all assets, whereas the _____________ implies that this relationship holds for all but perhaps a small number of securities.
A. APT, CAPM
B. APT, OPM
C. CAPM, APT
D. CAPM, OPM
C. CAPM, APT
Consider a single factor APT. Portfolio A has a beta of 1.0 and an expected return of 16%. Portfolio B has a beta of 0.8 and an expected return of 12%. The risk-free rate of return is 6%. If you wanted to take advantage of an arbitrage opportunity, you should take a short position in portfolio __________ and a long position in portfolio _______.
A. A, A
B. A, B
C. B, A
D. B, B
E. A, the riskless asset
C. B, A
A: 16% = 1.0F + 6%; F = 10%
B: 12% = 0.8F + 8%; F = 7.5%
Consider the one-factor APT. The variance of returns on the factor portfolio is 6%. The beta of a well-diversified portfolio on the factor is 1.1. The variance of returns on the well-diversified portfolio is approximately
7.3%
(1.1)^2(6%) = 7.26%
Consider the one-factor APT. The standard deviation of returns on a well-diversified portfolio is 18%. The standard deviation on the factor portfolio is 16%. The beta of the well-diversified portfolio is approximately
1.13
(18)^2 = (16)^2 * b^2
Consider the single-factor APT. Stocks A and B have expected returns of 15% and 18%, respectively. The risk-free rate of return is 6%. Stock B has a beta of 1.0. If arbitrage opportunities are ruled out, stock A has a beta of
0.75
A: 15% = 6% + bF
B: 18% = 6% + 1.0F; F = 12%
Thus, beta of A = 9/12 = 0.75
Consider the multifactor APT with two factors. Stock A has an expected return of 16.4%, a beta of 1.4 on factor 1 and a beta of .8 on factor 2. The risk premium on the factor 1 portfolio is 3%. The risk-free rate of return is 6%. What is the risk-premium on factor 2 if no arbitrage opportunities exist?
7.75%
16.4% = 1.4(3%) + 0.8x + 6%; x = 7.75
Consider the multifactor model APT with two factors. Portfolio A has a beta of 0.75 on factor 1 and a beta of 1.25 on factor 2. The risk premiums on the factor 1 and factor 2 portfolios are 1% and 7%, respectively. The risk-free rate of return is 7%. The expected return on portfolio A is __________ if no arbitrage opportunities exist.
16.5%
7 + 0.75(1) + 1.25(7) = 16.5
Consider the multifactor APT with two factors. The risk premiums on the factor 1 and factor 2 portfolios are 5% and 6%, respectively. Stock A has a beta of 1.2 on factor 1, and a beta of 0.7 on factor 2. The expected return on stock A is 17%. If no arbitrage opportunities exist, the risk-free rate of return is
6.8%
17 = x + 1.25(5) + 0.7(6)
Consider a one-factor economy. Portfolio A has a beta of 1.0 on the factor and portfolio B has a beta of 2.0 on the factor. The expected returns on portfolios A and B are 11% and 17%, respectively. Assume that the risk-free rate is 6% and that arbitrage opportunities exist. Suppose you invested $100,000 in the risk-free asset, $100,000 in portfolio B, and sold short $200,000 of portfolio A. Your expected profit from this strategy would be
$1000
$100,000(0.06) = $6,000 (risk-free position); $100,000(0.17) = $17,000 (portfolio B); -$200,000(0.11) = -$22,000 (short position, portfolio A); 1,000 profit.
Consider the one-factor APT. Assume that two portfolios, A and B, are well diversified. The betas of portfolios A and B are 1.0 and 1.5, respectively. The expected returns on portfolios A and B are 19% and 24%, respectively. Assuming no arbitrage opportunities exist, the risk-free rate of return must be
9.0%
A: 19% = rf + 1(F); B: 24% = rf + 1.5(F); 5% = .5(F); F = 10%; 24% = rf + 1.5(10); rf = 9%.
Consider the multifactor APT. The risk premiums on the factor 1 and factor 2 portfolios are 5% and 3%, respectively. The risk-free rate of return is 10%. Stock A has an expected return of 19% and a beta on factor 1 of 0.8. Stock A has a beta on factor 2 of
1.67
19% = 10% + 5(0.8) + 3(x)
Consider the single factor APT. Portfolios A and B have expected returns of 14% and 18%, respectively. The risk-free rate of return is 7%. Portfolio A has a beta of 0.7. If arbitrage opportunities are ruled out, portfolio B must have a beta of
1.10
A: 14% = 7% + 0.7F; F = 10; B: 18% = 7% + 10b; b = 1.10.
There are three stocks, A, B, and C. You can either invest in these stocks or short sell them. There are three possible states of nature for economic growth in the upcoming year (each equally likely to occur); economic growth may be strong, moderate, or weak. The returns for the upcoming year on stocks A, B, and C for each of these states of nature are given below:
Stock - Strong Growth - Moderate Growth - Weak Growth
A - 39% - 17% - -5%
B - 30% - 15% - 0%
C - 6% - 14% - 22%
If you invested in an equally weighted portfolio of stocks A and B, your portfolio return would be ___________ if economic growth were moderate.
E(Rp) = 0.5(17) + 0.5(15) = 16%
There are three stocks, A, B, and C. You can either invest in these stocks or short sell them. There are three possible states of nature for economic growth in the upcoming year (each equally likely to occur); economic growth may be strong, moderate, or weak. The returns for the upcoming year on stocks A, B, and C for each of these states of nature are given below:
Stock - Strong Growth - Moderate Growth - Weak Growth
A - 39% - 17% - -5%
B - 30% - 15% - 0%
C - 6% - 14% - 22%
If you invested in an equally weighted portfolio of stocks A and C, your portfolio return would be ____________ if economic growth was strong.
22.5%
0.5(39) + 0.5(6)
There are three stocks, A, B, and C. You can either invest in these stocks or short sell them. There are three possible states of nature for economic growth in the upcoming year (each equally likely to occur); economic growth may be strong, moderate, or weak. The returns for the upcoming year on stocks A, B, and C for each of these states of nature are given below:
Stock - Strong Growth - Moderate Growth - Weak Growth
A - 39% - 17% - -5%
B - 30% - 15% - 0%
C - 6% - 14% - 22%
If you invested in an equally weighted portfolio of stocks B and C, your portfolio return would be _____________ if economic growth was weak.
11.0%
0.5(0) + 0.5(22) = 11%
There are three stocks, A, B, and C. You can either invest in these stocks or short sell them. There are three possible states of nature for economic growth in the upcoming year (each equally likely to occur); economic growth may be strong, moderate, or weak. The returns for the upcoming year on stocks A, B, and C for each of these states of nature are given below:
Stock - Strong Growth - Moderate Growth - Weak Growth
A - 39% - 17% - -5%
B - 30% - 15% - 0%
C - 6% - 14% - 22%
If you wanted to take advantage of a risk-free arbitrage opportunity, you should take a short position in _________ and a long position in an equally weighted portfolio of _______.
A. A, B and C
B. B, A and C
C. C, A and B
D. A and B, C
C. C, A and B
E(RA) = (39% + 17% - 5%)/3 = 17%; E(RB) = (30% + 15% + 0%)/3 = 15%; E(RC) = (22% + 14% + 6%)/3 = 14%; E(RP) = -0.5(14%) + 0.5[(17% + 15%)/2]; -7.0% + 8.0% = 1.0%.
Consider the multifactor APT. There are two independent economic factors, F1 and F2. The risk-free rate of return is 6%. The following information is available about two well-diversified portfolios:
Portfolio - β on F1 - β on F2 - Expected Return
A - 1.0 - 2.0 - 19%
B - 2.0 - 0.0 - 12%
Assuming no arbitrage opportunities exist, the risk premium on the factor F1 portfolio should be
3%
2A: 38% = 12% + 2.0(RP1) + 4.0(RP2); B: 12% = 6% + 2.0(RP1) + 0.0(RP2); 26% = 6% + 4.0(RP2); RP2 = 5; A: 19% = 6% + RP1 + 2.0(5); RP1 = 3%.
Consider the multifactor APT. There are two independent economic factors, F1 and F2. The risk-free rate of return is 6%. The following information is available about two well-diversified portfolios:
Portfolio - β on F1 - β on F2 - Expected Return
A - 1.0 - 2.0 - 19%
B - 2.0 - 0.0 - 12%
Assuming no arbitrage opportunities exist, the risk premium on the factor F2 portfolio should be
5%
2A: 38% = 12% + 2.0(RP1) + 4.0(RP2); B: 12% = 6% + 2.0(RP1) + 0.0(RP2); 26% = 6% + 4.0(RP2); RP2 = 5; A: 19% = 6% + RP1 + 2.0(5); RP1 = 3%.