The graph shows the height (h), in feet, of a basketball t seconds after it is shot. projectile motion formula: h(t) = -16t2 + vt + h0 v = initial vertical velocity of the ball in feet per second h0 = initial height of the ball in feet complete the quadratic equation that models the situation. h(t) = –16t2 + t + 6

The graph shows the height (h), in feet, of a basketball t seconds after it is shot. Projectile motion formula:  

= initial vertical velocity of the ball in feet per second

= initial height of the ball in feet Complete the quadratic equation that models the situation.

For a quadratic function:

 Finally:

the answer   is 200

step-by-step explanation:

this is a problem about poisson probabilities.   i don't know if you've

already studied poisson distributions, or if you have a place to look

to read more about the subject.  

here's how you can see a poisson distribution coming.   when there are

a lot of events that may happen at any time (or any place), and when

you're counting how many of them happen at a particular time (or a

particular place), and each event is independent of the others, then

the result is a poisson distribution.   this is roughly true for the

chocolate chips; one chip being in a cookie has only a small effect on

the probability that another chip will be in the cookie.

once you know you have a poisson distribution, you know a lot.   there

is only one parameter to a poisson distribution, so if you know the

mean, you know everything.   the form of the distribution is

  probability of n chips = {[e^(-x)]*(x^n)} / (n! )

6 meters

step-by-step explanation: