Answer:
For 100 shares, the mount that should be paid = $1766
Explanation:
We have to calculate the price of the stock in the 4th year because the investor cannot afford the stock in another 3 years.
Price of the stock = Do + g / ke - g
Dividend in current year = $1.2
Dividend after 1 year = 1.2 +2.5% (1.2)= 1.23
Dividend after 2 years = 1.23 + 2.5%(1.23) = 1.26075
Dividend after 3 years = 1.26075 + 2.5%(1.26) = 1.29227
Price in 4th year = 1.29227 + 2.5% / (0.10 - 0.025)
=1.29227 + 2.5%(1.29227)/0.075
= 17.66
Therefore, for 100 shares, the mount that should be paid = 17.66 * 100 = $1766
Answer:
the Sharpe ratio of the optimal complete portfolio is 0.32
Explanation:
The computation of the sharpe ratio is shown below:
= (Return of portfolio - risk free asset) ÷ Standard deviation
= (17% - 9%) ÷ 25%
= 8% ÷ 25%
= 0.32
Hence, the Sharpe ratio of the optimal complete portfolio is 0.32
We simply applied the above formula
Answer:
Idk if this is the right answer but I Google it and I got virtual reality/artificial intelligence and autonomous vehicles
Answer:
C. $9.50 per direct labor-hour
Explanation:
The computation of the predetermined overhead rate is shown below:
Predetermined overhead rate = (Total estimated manufacturing overhead) ÷ (estimated direct labor-hours)
where,
Total estimated manufacturing overhead equals to
= Total fixed manufacturing overhead cost + Direct labor hours × variable manufacturing overhead per direct labor-hour
= $497,000 + 70,000 × $2.40
= $497,000 + $168,000
= $665,000
And, the direct labor-hours is 70,000
So the rate is equal to
= $665,000 ÷ 70,000
= $9.5 per direct labor-hour
Answer:
The answer is $56.68
Explanation:
Solution
We recall that:
The firm paid a dividend of =$7.80
The projected growth of dividends is at a rate = 9.0%
The annual return = 24.0%
Now,
V = ($7.80 * (1.09)/(.24 - 0.9)
= (8.502)/(.24-0.9)
= (8.502) * (-0.66)
= $56.68
Therefore, this would be the most we would pay for the stock. If we paid less than that, our return would be above the 24%.
