An engineer is going to redesign an ejection seat for an airplane. The seat was designed for pilots weighing between 120 lb and 181 lb. The new population of pilots has normally distributed weights with a mean of 128 lb and a standard deviation of 32.4 lb. a. If a pilot is randomly selected, find the probability that his weight is between 120 lb and 181 lb.
The probability is approximately __. (Round to four decimal places as needed.)
b. If 32 different pilots are randomly selected, find the probability that their mean weight is between 120 lb and 181 lb.
The probability is approximately __. (Round to four decimal places as needed.
c. When redesigning the ejection seat, which probability is more relevant?
A. because the seat performance for a single pilot is more important.
B. because the seat performance for a single pilot is more important.
C. because the seat performance for a sample of pilots is more important.
D. because the seat performance for a sample of pilots is more important.

on friday there were 15 birds

the direct variation says that:

then the equation is of the form is given by:

            where k is the constant variation.

from the given table:

consider any value of x and m(x)=y

x = 2 and m(x)=y = 3

substitute these value in [1]; we have;

divide both sides by 2 we get;

⇒

check:

put x = -1 and m(x) = -1.5

substitute in the equation:

-1.5 = -1.5                   true

therefore, the function m(x) represents a direct variation

graph of this function as shown below:

the smallest possible measurement of the width is 14 feet

step-by-step explanation:

let's assume length of parallelogram is 'l'

width of parallelogram is 'w'

the perimeter of a parallelogram must be no less than 40 feet

so, we get

we are given

length of parallelogram is 6 feet

so,

l=6

we can plug it

now, we can solve for w

subtract both sides by 12

divide both sides by 2

and we get

so,

the smallest possible measurement of the width is 14 feet

believe it or not anna is correct good job anna give me a fist bump there u go gal