00:01
Hello, in this video i will be explaining the following.
00:03
So our first question here is what is each orchid's labor demand as a function of daily wage and what is the market's labor demand? so i'm right to do that.
00:14
We're first going to use our marginal product of labor and the wages, which is w, is equal to v, p, m, f.
00:28
So from here we know that our p is going to to be time m p i and then that can be changed into two one hundred minus two l which is equal to two hundred minus four l so now let's rewrite the wages function to obtain the individual labor curve which is w equals 200 minus four l and l is equal to 50 minus 0 .25w.
01:16
So the market demand labor curve is equal to l equals 1 ,000 minus 5w.
01:37
If you do, skip the step.
01:40
I apologize.
01:42
If you take that l and do 20 times 50 minus 0 .25.
01:51
That gives you 1000 minus 5 w, which is the market demand labor curve.
02:08
So we're going to use that to find the market wages.
02:14
So that's going to be w is equal to 200 minus 0 .2l.
02:26
So that's how you would answer the first part, the first and the second part of the question.
02:39
So this would be in the wages and this would be the market to labor demand.
02:53
This would be the demand curve.
03:02
So either one could be, depending on how you want to set that up.
03:08
So next we have 200 workers who supply labor and inelastically solve for w.
03:13
How many workers does each court get higher and was the profit for each owner? so first we're going to do the equal premium wages, which is l equals 1 ,000 minus 5 w so that changes into 200 equals 1 ,000 minus 5 w which is 5 w equals 800 which goes to w equals 800 divided by 5 and w equals 160 so since there is 200 workers and 20 orchids the total number of workers is equal to 200 divided by 20, so 10 workers.
04:17
And now we're going to know the profit for each...