Consider two risky investments with the following return distributions:
|
Probability |
Return R1 (p.a.) |
|
0.25 0.30 0.25 0.20 |
+12% +4% −5% −8% |
|
Expected return |
μ1 = 1.3500% |
|
Volatility |
σ1 = 7.6176% |
|
Probability |
Return R2 (p.a.) |
|
0.30 0.30 0.20 0.20 |
+10% +8% +3% −15% |
|
Expected return |
|
|
Volatility |
The correlation between the returns of the two investments is ρ12 = 0.9.
(a) Calculate μ2 and σ2. (Read the Instructions carefully.)
(b) Express the portfolio squared volatility σP2 in terms of w1, the weight of the first investment. (Round the coefficients to 6 decimals.)
(c) Using your answer in part (b), find the weight w1 of the minimum-risk portfolio. Hence, find the expected return μP and volatility σP of the minimum-risk portfolio.
| Expected Return =Mean Return =SUMof ((Probability)*(Return)) | ||||||||
| Variance of Return =Sum of(Probability* (Deviation ^2)) | ||||||||
| Deviation =Return -Mean Return | ||||||||
| Standard Deviation of Return =Square Root of Variance of Return | ||||||||
| ANALYSIS OF ASSET 1 | ||||||||
| p | R1 | A1=R1*P | D1=R1-1.35 | E1=(D1^2) | F1=p*E1 | |||
| Probability | Return(%) | Probability*Return(%) | Deviation(%) | Deviation Squared(%%) | Probability*Deviation Squared(%%) | |||
| 0.25 | 12 | 3 | 10.65 | 113.4225 | 28.355625 | |||
| 0.30 | 4 | 1.2 | 2.65 | 7.0225 | 2.10675 | |||
| 0.25 | -5 | -1.25 | -6.35 | 40.3225 | 10.080625 | |||
| 0.20 | -8 | -1.6 | -9.35 | 87.4225 | 17.4845 | |||
| SUM | 1.35 | SUM | 58.0275 | |||||
| Expected Return =Mean return | 1.35 | % | ||||||
| Variance of Return | 58.0275 | %% | ||||||
| Standard Deviation of Return =SQRT(58.0275)= | 7.6176 | % | ||||||
| ANALYSIS OF ASSET 2 | ||||||||
| p | R2 | A2=R2*p | D2=R2-2.65 | E2=(D2^2) | F2=p*E2 | |||
| Probability | Return(%) | Probability*Return(%) | Deviation(%) | Deviation Squared(%%) | Probability*Deviation Squared(%%) | |||
| 0.25 | 10 | 2.5 | 7.35 | 54.0225 | 13.505625 | |||
| 0.30 | 8 | 2.4 | 5.35 | 28.6225 | 8.58675 | |||
| 0.25 | 3 | 0.75 | 0.35 | 0.1225 | 0.030625 | |||
| 0.20 | -15 | -3 | -17.65 | 311.5225 | 62.3045 | |||
| SUM | 2.65 | SUM | 84.4275 | |||||
| Expected Return =Mean return | 2.65 | % | ||||||
| Variance of Return | 84.4275 | %% | ||||||
| Standard Deviation of Return =SQRT(84.4275)= | 9.1884 | % | ||||||
| Covariance between Return of Asset 1 and asset 2=Correlation*Standard Deviation of asset 1*Standard Deviation of asset 2 | ||||||||
| Covariance between Return of Asset 1 and asset 2 | 62.9943 | %% | (0.9*7.6176*9.1884) | |||||
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