Deck 7: An Introduction to Portfolio Management

Question 1

Exhibit 7B.1
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S)
The general equation for the weight of the first security to achieve the minimum variance (in a two stock portfolio) is given by:
W₁ = [E( $\sigma$ ₁)² - r_1.2 E( $\sigma$ ₁) E( $\sigma$ ₂)] - [E( $\sigma$ ₁)² + E( $\sigma$ ₂)² - 2 r_1.2 E( $\sigma$ ₁) E( $\sigma$ ₂)]

-Refer to Exhibit 7B.1. Show the minimum portfolio variance for a portfolio of two risky assets when r_1.2 = -1.

A)E( $\sigma$ ₁) /[E( $\sigma$ ₁) + E( $\sigma$ ₂)]
B)E( $\sigma$ ₁) / [E( $\sigma$ ₁) - E( $\sigma$ ₂)]
C)E( $\sigma$ ₂) -[E( $\sigma$ ₁) + E( $\sigma$ ₂)]
D)E( $\sigma$ ₂) /[E( $\sigma$ ₁)- E( $\sigma$ ₂)]
E)None of the above

Answer 1

E( $\sigma$ ₂) -[E( $\sigma$ ₁) + E( $\sigma$ ₂)]

Question 2

The expected return and standard deviation of a portfolio of risky assets is equal to the weighted average of the individual asset's expected returns and standard deviation.

Answer 2

False

Question 3

Exhibit 7A.1
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S)
The general equation for the weight of the first security to achieve the minimum variance (in a two stock portfolio) is given by:
W₁ = [E( $\sigma$ ₂)² - r_1.2 E( $\sigma$ ₁)E( $\sigma$ ₂)] -[E( $\sigma$ ₁)² + E( $\sigma$ ₂)² - 2 r_1.2E( $\sigma$ ₁)E( $\sigma$ ₂)]

-Refer to Exhibit 7A.1. What weight of security 1 gives the minimum portfolio variance when r_1.2 = .60, E( $\sigma$ ₁) = .10 and E( $\sigma$ ₂) = .16?

A).0244
B).3679
C).5697
D).6309
E).9756

Answer 3

.9756

Question 4

Combining assets that are not perfectly correlated does affect both the expected return of the portfolio as well as the risk of the portfolio.

Question 5

A basic assumption of the Markowitz model is that investors base decisions solely on expected return and risk.

Question 6

An investor is risk neutral if she chooses the asset with lower risk given a choice of several assets with equal returns.

Question 7

Prior to the work of Markowitz in the late 1950's and early 1960's, portfolio managers did not have a well-developed, quantitative means of measuring risk.

Question 8

A good portfolio is a collection of individually good assets.

Question 9

In a three asset portfolio the standard deviation of the portfolio is one third of the square root of the sum of the individual standard deviations.

Question 10

For a two stock portfolio containing Stocks i and j, the correlation coefficient of returns (r_ij) is equal to the square root of the covariance (cov_ij).

Question 11

As the number of risky assets in a portfolio increases, the total risk of the portfolio decreases.

Question 12

The correlation coefficient and the covariance are measures of the extent to which two random variables move together.

Question 13

Exhibit 7A.1
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S)
The general equation for the weight of the first security to achieve the minimum variance (in a two stock portfolio) is given by:
W₁ = [E( $\sigma$ ₂)² - r_1.2 E( $\sigma$ ₁)E( $\sigma$ ₂)] -[E( $\sigma$ ₁)² + E( $\sigma$ ₂)² - 2 r_1.2E( $\sigma$ ₁)E( $\sigma$ ₂)]

-Refer to Exhibit 7A.1. Show the minimum portfolio variance for a two stock portfolio when r_1.2 = 1.

A)E( $\sigma$ ₂) -[E( $\sigma$ ₁) -E( $\sigma$ ₂)]
B)E( $\sigma$ ₂) -[E( $\sigma$ ₁) + E( $\sigma$ ₂)]
C)E( $\sigma$ ₁) - [E( $\sigma$ ₁) -E( $\sigma$ ₂)]
D)E( $\sigma$ ₁) /[E( $\sigma$ ₁) + E( $\sigma$ ₂)]
E)None of the above

Question 14

Assuming that everyone agrees on the efficient frontier (given a set of costs), there would be consensus that the optimal portfolio on the frontier would be where the ratio of return per unit of risk was greatest.

Question 15

The combination of two assets that are completely negatively correlated provides maximum returns.

Question 16

Markowitz assumed that, given an expected return, investors prefer to minimize risk.

Question 17

If the covariance of two stocks is positive, these stocks tend to move together over time.

Question 18

Increasing the correlation among assets in a portfolio results in an increase in the standard deviation of the portfolio.

Question 19

Exhibit 7B.1
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S)
The general equation for the weight of the first security to achieve the minimum variance (in a two stock portfolio) is given by:
W₁ = [E( $\sigma$ ₁)² - r_1.2 E( $\sigma$ ₁) E( $\sigma$ ₂)] - [E( $\sigma$ ₁)² + E( $\sigma$ ₂)² - 2 r_1.2 E( $\sigma$ ₁) E( $\sigma$ ₂)]

-Refer to Exhibit 7B.1. What is the value of W₁ when r_1.2 = -1 and E( $\sigma$ ₁) = .10 and E( $\sigma$ ₂) = .12?

A)45.46%
B)50.00%
C)59.45%
D)54.55%
E)74.55%

Question 20

Risk is defined as the uncertainty of future outcomes.

Question 21

An individual investor's utility curves specify the tradeoffs he or she is willing to make between

A)high risk and low risk assets.
B)high return and low return assets.
C)covariance and correlation.
D)return and risk.
E)efficient portfolios.

Question 22

Markowitz believes that any asset or portfolio of assets can be described by ____ parameter(s).

A)One
B)Two
C)Three
D)Four
E)Five

Question 23

Investors choose a portfolio on the efficient frontier based on their utility functions that reflect their attitudes towards risk.

Question 24

The purpose of calculating the covariance between two stocks is to provide a(n) ____ measure of their movement together.

A)Absolute
B)Relative
C)Indexed
D)Loglinear
E)Squared

Question 25

Which of the following statements about the correlation coefficient is false?

A)The values range between -1 to +1.
B)A value of +1 implies that the returns for the two stocks move together in a completely linear manner.
C)A value of -1 implies that the returns move in a completely opposite direction.
D)A value of zero means that the returns are independent.
E)None of the above (that is, all statements are true)

Question 26

A portfolio is efficient if no other asset or portfolios offer higher expected return with the same (or lower) risk or lower risk with the same (or higher) expected return.

Question 27

Semivariance, when applied to portfolio theory, is concerned with

A)The square root of deviations from the mean.
B)All deviations below the mean.
C)All deviations above the mean.
D)All deviations.
E)The summation of the squared deviations from the mean.

Question 28

The Markowitz model is based on several assumptions regarding investor behavior. Which of the following is not such any assumption?

A)Investors consider each investment alternative as being represented by a probability distribution of expected returns over some holding period.
B)Investors maximize one-period expected utility.
C)Investors estimate the risk of the portfolio on the basis of the variability of expected returns.
D)Investors base decisions solely on expected return and risk.
E)None of the above (that is, all are assumptions of the Markowitz model)

Question 29

The probability of an adverse outcome is a definition of

A)Statistics.
B)Variance.
C)Random.
D)Risk.
E)Semi-variance above the mean.

Question 30

As the correlation coefficient between two assets decreases, the shape of the efficient frontier

A)approaches a horizontal straight line.
B)bends out.
C)bends in.
D)approaches a vertical straight line.
E)none of the above.

Question 31

A portfolio manager is considering adding another security to his portfolio. The correlations of the 5 alternatives available are listed below. Which security would enable the highest level of risk diversification?

A)0.0
B)0.25
C)-0.25
D)-0.75
E)1.0

Question 32

A portfolio is considered to be efficient if:

A)No other portfolio offers higher expected returns with the same risk.
B)No other portfolio offers lower risk with the same expected return.
C)There is no portfolio with a higher return.
D)Choices a and b
E)All of the above

Question 33

A measure that only considers deviations above the mean is semi-variance.

Question 34

The optimal portfolio is identified at the point of tangency between the efficient frontier and the

A)highest possible utility curve.
B)lowest possible utility curve.
C)middle range utility curve.
D)steepest utility curve.
E)flattest utility curve.

Question 35

You are given a two asset portfolio with a fixed correlation coefficient. If the weights of the two assets are varied the expected portfolio return would be ____ and the expected portfolio standard deviation would be ____.

A)Nonlinear, elliptical
B)Nonlinear, circular
C)Linear, elliptical
D)Linear, circular
E)Circular, elliptical

Question 36

In a two stock portfolio, if the correlation coefficient between two stocks were to decrease over time, everything else remaining constant, the portfolio's risk would

A)Decrease.
B)Remain constant.
C)Increase.
D)Fluctuate positively and negatively.
E)Be a negative value.

Question 37

When individuals evaluate their portfolios they should evaluate

A)All the U.S. and non-U.S. stocks.
B)All marketable securities.
C)All marketable securities and other liquid assets.
D)All assets.
E)All assets and liabilities.

Question 38

The set of portfolios with the maximum rate of return for every given risk level is known as the optimal frontier.

Question 39

Given a portfolio of stocks, the envelope curve containing the set of best possible combinations is known as the

A)Efficient portfolio.
B)Utility curve.
C)Efficient frontier.
D)Last frontier.
E)Capital asset pricing model.

Question 40

If equal risk is added moving along the envelope curve containing the best possible combinations the return will

A)Decrease at an increasing rate.
B)Decrease at a decreasing rate.
C)Increase at an increasing rate.
D)Increase at a decreasing rate.
E)Remain constant.

Question 41

The slope of the efficient frontier is calculated as follows

A)E(R_portfolio)/E( $\sigma$ _portfolio)
B)E( $\sigma$ _portfolio)/ E(R_portfolio)
C) $\Delta$ E(R_portfolio)/ $\Delta$ E( $\sigma$ _portfolio)
D) $\Delta$ E( $\sigma$ _portfolio)/ $\Delta$ E(R_portfolio)
E)None of the above

Question 42

Between 1986 and 1996, the standard deviation of the returns for the NYSE and the DJIA indexes were 0.10 and 0.09, respectively, and the covariance of these index returns was 0.0009. What was the correlation coefficient between the two market indicators?

A).1000
B).1100
C).1258
D).1322
E).1164

Question 43

Between 1990 and 2000, the standard deviation of the returns for the NIKKEI and the DJIA indexes were 0.18 and 0.16, respectively, and the covariance of these index returns was 0.003. What was the correlation coefficient between the two market indicators?

A)9.6
B)0.0187
C)0.1042
D)0.0166
E)0.343

Question 44

All of the following are common risk measurements except

A)Standard deviation
B)Variance
C)Semivariance
D)Covariance
E)Range of returns

Question 45

What is the expected return of the three stock portfolio described below? $$\begin{array} { l c c } \text { Common Stock } & \text { Market Value } & \text { Expected Return } \\\hline \text { Del ton Inc. } & 50,000 & 10 \% \\\text { Efley Co. } & 40,000 & 11 \% \\\text { Grippon Inc. } & 60,000 & 16 \%\end{array}$$

A)14.89%
B)16.22%
C)12.66%
D)13.85%
E)16.99%

Question 46

What is the expected return of the three stock portfolio described below? $$\begin{array} { l c c } \text { Common Stock } & \text { Market Value } & \text { Expected Return } \\\hline \text { Lupko Inc. } & 50,000 & 13 \% \\\text { Mackey Co. } & 25,000 & 9 \% \\\text { Nippon Inc. } & 75,000 & 14 \%\end{array}$$

A)12.04%
B)12.83%
C)13.07%
D)15.89%
E)17.91%

Question 47

What is the expected return of the three stock portfolio described below? $$\begin{array} { l c c } \text { Common Stock } & \text { Market Value } & \text { Expected Return } \\\hline \text { Ando Inc. } & 95,000 & 12.0 \% \\\text { Bee Co. } & 32,000 & 8.75 \% \\\text { Cool Inc. } & 65,000 & 17.7 \%\end{array}$$

A)18.45%
B)12.82%
C)13.38%
D)15.27%
E)16.67%

Question 48

The most important criteria when adding new investments to a portfolio is the

A)Expected return of the new investment.
B)Standard deviation of the new investment.
C)Correlation of the new investment with the portfolio.
D)Both a and b
E)All of the above are equally important

Question 49

What is the expected return of the three stock portfolio described below? $$\begin{array} { l c c } \text { Common Stock } & \text { Market Value } & \text { Expected Return } \\\hline \text { Alko Inc. } & 25,000 & 38 \% \\\text { Belmont Co. } & 100,000 & 10 \% \\\text { Cardo Inc. } & 75,000 & 16 \%\end{array}$$

A)21.33%
B)12.50%
C)32.00%
D)15.75%
E)16.80%

Question 50

All of the following are assumptions of the Markowitz model except

A)Risk is measured based on the variability of returns.
B)Investors maximize one-period expected utility.
C)Investors' utility curves demonstrate properties of diminishing marginal utility of wealth.
D)Investors base decisions solely on expected return and time.
E)All of the above

Question 51

What is the expected return of the three stock portfolio described below? $$\begin{array} { l c c } \text { Common Stock } & \text { Market Value } & \text { Expected Return } \\\hline \text { Xerox } & 125,000 & 8 \% \\\text { Yelcon } & 250,000 & 25 \% \\\text { Zwiebal } & 175,000 & 16 \%\end{array}$$

A)18.27%
B)14.33%
C)16.33%
D)12.72%
E)16.45%

Question 52

The slope of the utility curves for a strongly risk-averse investor, relative to the slope of the utility curves for a less risk-averse investor, will

A)Be steeper.
B)Be flatter.
C)Be vertical.
D)Be horizontal.
E)None of the above.

Question 53

When assessing the risk impact of adding a new security to a portfolio, it is necessary to consider the

A)New securities variance
B)Variance of every security in the portfolio
C)Weight of every security in the portfolio
D)Average covariance of the new security with every security in the portfolio
E)All of the above

Question 54

Between 1980 and 1990, the standard deviation of the returns for the NIKKEI and the DJIA indexes were 0.19 and 0.06, respectively, and the covariance of these index returns was 0.0014. What was the correlation coefficient between the two market indicators?

A)8.1428
B)0.0233
C)0.0073
D)0.2514
E)0.1228

Question 55

Between 1975 and 1985, the standard deviation of the returns for the NYSE and the S&P 500 indexes were 0.06 and 0.07, respectively, and the covariance of these index returns was 0.0008. What was the correlation coefficient between the two market indicators?

A).1525
B).1388
C).1458
D).1622
E).1064

Question 56

Between 1980 and 2000, the standard deviation of the returns for the NIKKEI and the DJIA indexes were 0.08 and 0.10, respectively, and the covariance of these index returns was 0.0007. What was the correlation coefficient between the two market indicators?

A).0906
B).0985
C).0796
D).0875
E).0654

Question 57

A positive covariance between two variables indicates that

A)the two variables move in different directions.
B)the two variables move in the same direction.
C)the two variables are low risk.
D)the two variables are high risk.
E)the two variables are risk free.

Question 58

A portfolio of two securities that are perfectly positively correlated has

A)A standard deviation that is the weighted average of the individual securities standard deviations.
B)An expected return that is the weighted average of the individual securities expected returns.
C)No diversification benefit over holding either of the securities independently.
D)Both b and c
E)All of the above

Question 59

Between 1994 and 2004, the standard deviation of the returns for the S&P 500 and the NYSE indexes were 0.27 and 0.14, respectively, and the covariance of these index returns was 0.03. What was the correlation coefficient between the two market indicators?

A)1.26
B)0.7937
C)0.2142
D)0.1111
E)0.44

Question 60

A positive relationship between expected return and expected risk is consistent with

A)investors being risk seekers.
B)investors being risk avoiders.
C)investors being risk averse.
D)all of the above.
E)none of the above.

Question 61

Exhibit 7.1
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 10 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 15 \% \\\left( \sigma _ { \mathrm { A } } \right) = 8 \% & \left( \sigma _ { \mathrm { B } } \right) = 9.5 \% \\W _ { \mathrm { A } } = 0.25 & W _ { \mathrm { B } } = 0.75 \\\operatorname { Cov } _ { \mathrm { A } B } = 0.006\end{array}$$

-Refer to Exhibit 7.1. What is the expected return of a portfolio of two risky assets if the expected return E(R_i), standard deviation ( $\sigma$ _i), covariance (COV_i,j), and asset weight (W_i) are as shown above?

A)8.79%
B)12.5%
C)13.75%
D)7.72%
E)12%

Question 62

Exhibit 7.2
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 25 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 15 \% \\\left( \sigma _ { \mathrm { A } } \right) = 18 \% & \left( \sigma _ { \mathrm { B } } \right) = 11 \% \\W _ { \mathrm { A } } = 0.75 & W _ { \mathrm { B } } = 0.25 \\\mathrm { CO } V _ { \mathrm { AB } _ { \mathrm { B } } } = - 0.0009\end{array}$$

-Refer to Exhibit 7.2. What is the standard deviation of this portfolio?

A)5.45%
B)18.64%
C)20.0%
D)22.5%
E)13.65%

Question 63

Exhibit 7.3
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 9 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 11 \% \\\left( \sigma _ { \mathrm { A } } \right) = 4 \% & \left( \sigma _ { \mathrm { B } } \right) = 6 \% \\W _ { \mathrm { A } } = 0.4 & W _ { \mathrm { B } } = 0.6 \\\mathrm { COV }_ { A,B } = 0.0011\end{array}$$

-Refer to Exhibit 7.3. What is the expected return of a portfolio of two risky assets if the expected return E(R_i), standard deviation ( $\sigma$ _i), covariance (COV_i,j), and asset weight (W_i) are as shown above?

A)8.95%
B)9.30%
C)9.95%
D)10.20%
E)10.70%

Question 64

Exhibit 7.4
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 10 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 8 \% \\\left( \sigma _ { \mathrm { A } } \right) = 6 \% & \left( \sigma _ { \mathrm { B } } \right) = 5 \% \\\mathrm {~W} _ { \mathrm { A } } = 0.3 & \mathrm {~W} _ { \mathrm { B } } = 0.7 \\\mathrm { CO } V _ { \mathrm { A,B } } = 0.0008\end{array}$$

-Refer to Exhibit 7.4. What is the expected return of a portfolio of two risky assets if the expected return E(R_i), standard deviation ( $\sigma$ _i), covariance (COV_i,j), and asset weight (W_i) are as shown above?

A)8.6%
B)8.1%
C)9.3%
D)10.2%
E)11.6%

Question 65

Exhibit 7.9
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 18 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 13 \% \\\left( \sigma _ { \mathrm { A } } \right) = 7 \% & \left( \sigma _ { \mathrm { B } } \right) = 6 \% \\W _ { \mathrm { A } } = 0.3 & W _ { \mathrm { B } } = 0.7 \\\mathrm { COV } V _ { \mathrm { A,B } } = 0.0011\end{array}$$

-Refer to Exhibit 7.9. What is the expected return of a portfolio of two risky assets if the expected return E(R_i), standard deviation ( $\sigma$ _i), covariance (COV_i,j), and asset weight (W_i) are as shown above?

A)10.10%
B)11.60%
C)13.88%
D)14.50%
E)15.37%

Question 66

Exhibit 7.9
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 18 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 13 \% \\\left( \sigma _ { \mathrm { A } } \right) = 7 \% & \left( \sigma _ { \mathrm { B } } \right) = 6 \% \\W _ { \mathrm { A } } = 0.3 & W _ { \mathrm { B } } = 0.7 \\\mathrm { COV } V _ { \mathrm { A,B } } = 0.0011\end{array}$$

-Refer to Exhibit 7.9. What is the standard deviation of this portfolio?

A)5.16%
B)5.89%
C)6.11%
D)6.57%
E)7.02%

Question 67

Exhibit 7.8
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 10 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 14 \% \\\left( \sigma _ { \mathrm { A } } \right) = 7 \% & \left( \sigma _ { \mathrm { B } } \right) = 8 \% \\W _ { \mathrm { A } } = 0.7 & W _ { \mathrm { B } } = 0.3 \\\mathrm { COV } \\\mathrm { A,B } & = 0.0013\end{array}$$

-Refer to Exhibit 7.8. What is the standard deviation of this portfolio?

A)4.51%
B)5.94%
C)6.75%
D)7.09%
E)8.62%

Question 68

Exhibit 7.2
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 25 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 15 \% \\\left( \sigma _ { \mathrm { A } } \right) = 18 \% & \left( \sigma _ { \mathrm { B } } \right) = 11 \% \\W _ { \mathrm { A } } = 0.75 & W _ { \mathrm { B } } = 0.25 \\\mathrm { CO } V _ { \mathrm { AB } _ { \mathrm { B } } } = - 0.0009\end{array}$$

-Refer to Exhibit 7.2. What is the expected return of a portfolio of two risky assets if the expected return E(R_i), standard deviation ( $\sigma$ _i), covariance (COV_i,j), and asset weight (W_i) are as shown above?

A)18.64%
B)20.0%
C)22.5%
D)13.65%
E)11%

Question 69

Exhibit 7.8
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 10 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 14 \% \\\left( \sigma _ { \mathrm { A } } \right) = 7 \% & \left( \sigma _ { \mathrm { B } } \right) = 8 \% \\W _ { \mathrm { A } } = 0.7 & W _ { \mathrm { B } } = 0.3 \\\mathrm { COV } \\\mathrm { A,B } & = 0.0013\end{array}$$

-Refer to Exhibit 7.8. What is the expected return of a portfolio of two risky assets if the expected return E(R_i), standard deviation ( $\sigma$ _i), covariance (COV_i,j), and asset weight (W_i) are as shown above?

A)6.4%
B)9.1%
C)10.2%
D)10.8%
E)11.2%

Question 70

Exhibit 7.10
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 16 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 14 \% \\\left( \sigma _ { \mathrm { A } } \right) = 3 \% & \left( \sigma _ { \mathrm { B } } \right) = 8 \% \\W _ { \mathrm { A } } = 0.5 & W _ { \mathrm { B } } = 0.5 \\\mathrm { COV } V _ { \mathrm { A,B } } = 0.0014\end{array}$$

-Refer to Exhibit 7.10. What is the expected return of a portfolio of two risky assets if the expected return E(R_i), standard deviation ( $\sigma$ _i), covariance (COV_i,j), and asset weight (W_i) are as shown above?

A)11%
B)12%
C)13%
D)14%
E)15%

Question 71

Exhibit 7.5
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 8 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 15 \% \\\left( \sigma _ { \mathrm { A } } \right) = 7 \% & \left( \sigma _ { \mathrm { B } } \right) = 10 \% \\W _ { \mathrm { A } } = 0.4 & W _ { \mathrm { B } } = 0.6 \\\mathrm { COV } V _ { \mathrm { A,B } } = 0.0006\end{array}$$

-Refer to Exhibit 7.5. What is the standard deviation of this portfolio?

A)3.89%
B)4.61%
C)5.02%
D)6.83%
E)6.09%

Question 72

Exhibit 7.6
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 16 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 10 \% \\\left( \sigma _ { \mathrm { A } } \right) = 9 \% & \left( \sigma _ { \mathrm { B } } \right) = 7 \% \\W _ { \mathrm { A } } = 0.5 & W _ { \mathrm { B } } = 0.5 \\\mathrm { COV } V _ { \mathrm { A,B } } = 0.0009\end{array}$$

-Refer to Exhibit 7.6. What is the standard deviation of this portfolio?

A)6.08%
B)5.89%
C)7.06%
D)6.54%
E)7.26%

Question 73

Exhibit 7.7
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 7 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 9 \% \\\left( \sigma _ { \mathrm { A } } \right) = 6 \% & \left( \sigma _ { \mathrm { B } } \right) = 5 \% \\\mathrm {~W} _ { \mathrm { A } } = 0.6 & \mathrm {~W} _ { \mathrm { B } } = 0.4 \\\mathrm { CO } V _ { \mathrm { A,B } } = 0.0014\end{array}$$

-Refer to Exhibit 7.7. What is the expected return of a portfolio of two risky assets if the expected return E(R_i), standard deviation ( $\sigma$ _i), covariance (COV_i,j), and asset weight (W_i) are as shown above?

A)5.8%
B)6.1%
C)6.9%
D)7.8%
E)8.9%

Question 74

Exhibit 7.4
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 10 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 8 \% \\\left( \sigma _ { \mathrm { A } } \right) = 6 \% & \left( \sigma _ { \mathrm { B } } \right) = 5 \% \\\mathrm {~W} _ { \mathrm { A } } = 0.3 & \mathrm {~W} _ { \mathrm { B } } = 0.7 \\\mathrm { CO } V _ { \mathrm { A,B } } = 0.0008\end{array}$$

-Refer to Exhibit 7.4. What is the standard deviation of this portfolio?

A)5.02%
B)3.88%
C)6.21%
D)4.04%
E)4.34%

Question 75

Exhibit 7.1
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 10 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 15 \% \\\left( \sigma _ { \mathrm { A } } \right) = 8 \% & \left( \sigma _ { \mathrm { B } } \right) = 9.5 \% \\W _ { \mathrm { A } } = 0.25 & W _ { \mathrm { B } } = 0.75 \\\operatorname { Cov } _ { \mathrm { A } B } = 0.006\end{array}$$

-Refer to Exhibit 7.1. What is the standard deviation of this portfolio?

A)8.79%
B)13.75%
C)12.5%
D)7.72%
E)5.64%

Question 76

Exhibit 7.5
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 8 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 15 \% \\\left( \sigma _ { \mathrm { A } } \right) = 7 \% & \left( \sigma _ { \mathrm { B } } \right) = 10 \% \\W _ { \mathrm { A } } = 0.4 & W _ { \mathrm { B } } = 0.6 \\\mathrm { COV } V _ { \mathrm { A,B } } = 0.0006\end{array}$$

-Refer to Exhibit 7.5. What is the expected return of a portfolio of two risky assets if the expected return E(R_i), standard deviation ( $\sigma$ _i), covariance (COV_i,j), and asset weight (W_i) are as shown above?

A)8.0%
B)12.2%
C)7.4%
D)9.1%
E)11.6%

Question 77

Exhibit 7.10
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 16 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 14 \% \\\left( \sigma _ { \mathrm { A } } \right) = 3 \% & \left( \sigma _ { \mathrm { B } } \right) = 8 \% \\W _ { \mathrm { A } } = 0.5 & W _ { \mathrm { B } } = 0.5 \\\mathrm { COV } V _ { \mathrm { A,B } } = 0.0014\end{array}$$

-Refer to Exhibit 7.10. What is the standard deviation of this portfolio?

A)3.02%
B)4.88%
C)5.24%
D)5.98%
E)6.52%

Question 78

Exhibit 7.6
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 16 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 10 \% \\\left( \sigma _ { \mathrm { A } } \right) = 9 \% & \left( \sigma _ { \mathrm { B } } \right) = 7 \% \\W _ { \mathrm { A } } = 0.5 & W _ { \mathrm { B } } = 0.5 \\\mathrm { COV } V _ { \mathrm { A,B } } = 0.0009\end{array}$$

-Refer to Exhibit 7.6. What is the expected return of a portfolio of two risky assets if the expected return E(R_i), standard deviation ( $\sigma$ _i), covariance (COV_i,j), and asset weight (W_i) are as shown above?

A)10.6 %
B)10.2%
C)13.0%
D)11.9%
E)14.0%

Question 79

Exhibit 7.3
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 9 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 11 \% \\\left( \sigma _ { \mathrm { A } } \right) = 4 \% & \left( \sigma _ { \mathrm { B } } \right) = 6 \% \\W _ { \mathrm { A } } = 0.4 & W _ { \mathrm { B } } = 0.6 \\\mathrm { COV }_ { A,B } = 0.0011\end{array}$$

-Refer to Exhibit 7.3. What is the standard deviation of this portfolio?

A)3.68%
B)4.56%
C)4.99%
D)5.16%
E)6.02%

Question 80

Exhibit 7.7
USE THE INFORMATION BELOW FOR THE FOLLOWING PROBLEM(S) $$\begin{array} { c c } \text { Asset } ( \mathrm { A } ) & \text { Asset } ( \mathrm { B } ) \\\hline \mathrm { E } \left( \mathrm { R } _ { \mathrm { A } } \right) = 7 \% & \mathrm { E } \left( \mathrm { R } _ { \mathrm { B } } \right) = 9 \% \\\left( \sigma _ { \mathrm { A } } \right) = 6 \% & \left( \sigma _ { \mathrm { B } } \right) = 5 \% \\\mathrm {~W} _ { \mathrm { A } } = 0.6 & \mathrm {~W} _ { \mathrm { B } } = 0.4 \\\mathrm { CO } V _ { \mathrm { A,B } } = 0.0014\end{array}$$

-Refer to Exhibit 7.7. What is the standard deviation of this portfolio?

A)4.87%
B)3.62%
C)4.13%
D)5.76%
E)6.02%