Question: 1) Employing Figure 7.5 what are the declining correlation coefficients of 1, 0.3 and then 0 capturing? What direction do you wish to drive the

1) Employing Figure 7.5 what are the declining correlation coefficients of 1, 0.3 and then 0 capturing? What direction do you wish to drive the portfolio opportunity sets? Why is that direction important?

1) Employing Figure 7.5 what are the declining correlation coefficients of 1,

2) Employing Figure 7.1 Panel B what does this panel B convey regarding diversification and its end result? What does it suggest about the risk - and the management of risk - in large n portfolios?

0.3 and then 0 capturing? What direction do you wish to drive

3) Employing Figure 7.10 what do the minimum variance frontier of risky assets and the efficient frontier portray (hint: what makes them different)?

the portfolio opportunity sets? Why is that direction important? 2) Employing Figure

4) Employing Figure 7.8 and Figure 6.8 explain how/why the Risky Portfolio (P) in Figure 6.8 is different from the Risky Portfolio in Figure 7.8?

7.1 Panel B what does this panel B convey regarding diversification andits end result? What does it suggest about the risk - and

5) Employing Figure 6.8 explain why Portfolio C (client portfolio) is chosen for Client C over Portfolio P (risky portfolio)

Expected Return (%) 14 13 E 12 p=-1 11 p=0 10 p=.30 P=1 9 8 D 74 6 5 0 2 4 6 8 10 12 14 16 18 20 Standard Deviation (%) Figure 7.5 Portfolio expected return as a function of standard deviation B a Unique Risk Market Risk n Figure 7.1 Portfolio risk as a function of the number of stocks in the portfolio Panel A: All risk is firm specific. Panel B: Some risk is systematic, or marketwide. E(r Efficient Frontier Individual Assets Global Minimum- Variance Portfolio Minimum-Variance Frontier 0 Figure 7.10 The minimum-variance frontier of risky assets Expected Return (%) 18 16 14 12 CAL(P) Indifference Curve Opportunity E Set of Risky Assets Optimal Risky Portfolio . 10 8 6 Pf= 5% 4 Optimal Complete Portfolio 2 0 0 5 10 25 15 20 30 Standard Deviation (%) Figure 7.8 Determination of the optimal complete portfolio E(1) U=.094 U= .08653 U=.078 - U=.07 CAL E(r) = .15 Elr) = .1028 ri=.07 o 0 = .0902 On= = .22 Figure 6.8 Finding the optimal complete portfolio by using indifference curves Expected Return (%) 14 13 E 12 p=-1 11 p=0 10 p=.30 P=1 9 8 D 74 6 5 0 2 4 6 8 10 12 14 16 18 20 Standard Deviation (%) Figure 7.5 Portfolio expected return as a function of standard deviation B a Unique Risk Market Risk n Figure 7.1 Portfolio risk as a function of the number of stocks in the portfolio Panel A: All risk is firm specific. Panel B: Some risk is systematic, or marketwide. E(r Efficient Frontier Individual Assets Global Minimum- Variance Portfolio Minimum-Variance Frontier 0 Figure 7.10 The minimum-variance frontier of risky assets Expected Return (%) 18 16 14 12 CAL(P) Indifference Curve Opportunity E Set of Risky Assets Optimal Risky Portfolio . 10 8 6 Pf= 5% 4 Optimal Complete Portfolio 2 0 0 5 10 25 15 20 30 Standard Deviation (%) Figure 7.8 Determination of the optimal complete portfolio E(1) U=.094 U= .08653 U=.078 - U=.07 CAL E(r) = .15 Elr) = .1028 ri=.07 o 0 = .0902 On= = .22 Figure 6.8 Finding the optimal complete portfolio by using indifference curves

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