Answer:
This means that the coach should have the team going for the 2 point shot. There is a 36% probability of making the 2 point shot and winning overtime.
Step-by-step explanation:
We have these following probabilities:
A 60% probability of tying the game on a 2 point shot. In this case, the game goes to overtime, in which the team has a 60% probability of winning.
A 30% probability of making the 3 point shot and winning.
What should the coach do, go for the 2 point shot or the 3 point shot?
In which case the team has a higher probability of winning?
The team has:
A 60% probability of tying the game on a 2 point shot. In this case, the game goes to overtime, in which the team has a 60% probability of winning. So, going for the 2 point shot, the team has a 0.6*0.6 = 0.36 = 36% probability of winning.
Going for the 3 point shot, the team has a 30% probability of winning.
This means that the coach should have the team going for the 2 point shot. There is a 36% probability of making the 2 point shot and winning overtime.
Answer:
You are awesome!
Step-by-step explanation:
No need for that. :)
Answer:
(1) 97
(2) 385
(3) 9604
Step-by-step explanation:
The (1 - <em>α</em>) % confidence interval for population proportion is:

The margin of error in this interval is:

The formula to compute the sample size is:

(1)
Given:

*Use the <em>z</em>-table for the critical value.
Compute the value of <em>n</em> as follows:

Thus, the minimum sample size required is 97.
(2)
Given:

*Use the <em>z</em>-table for the critical value.
Compute the value of <em>n</em> as follows:

Thus, the minimum sample size required is 385.
(3)
Given:

*Use the <em>z</em>-table for the critical value.
Compute the value of <em>n</em> as follows:

Thus, the minimum sample size required is 9604.
620.25 u calculate 7443 and divide that by 12
You don't say if the answer needs to be rounded
the height is 77.27 meters ( not rounded)
see attached picture for solution: