Part a: what is the s-intercept, and what does it represent in this situation? what is the t-intercept, and what does it represent in this situation? (if there isn't an intercept, explain what that means in the context of this situation. ) part b: describe the following end behavior of this function: as t increases without bound, the function f(t) . what does this mean in the context of this situation? part c: what is the average rate of change for the function between t = 5 and t = 7? show all your work. part d: the function f(t) = (1.5)" + 5 is graphed above. the function g(t) represents the total number of t-shirts sold both online and at the basketball games. if the team sold 1000 t-shirts at the basketball games each year, what would the equation of g(t) look like? how would the graph of g (t) compare to the graph of f(t)?

Part A: The s-intercept is (0,6). The s-intercept represents the amount of shirts sold in the hundreds. There t-intercept in this problem. And Since there is no t-intercept, t represents the year of 2000

Part B: How the graph reacts is as it starts, it starts out as a steady, strait line. Then when it hits (-4,5) it start to incline slightly. What it means is it is doing really well.

Part C: The average rate of change is 0.333333 over a distance of 6.32456.

Part D: The graphs would differ greatly, because f(t) inclines slowly where g(t) would be way steeper and be vertical way before f(t)

the y will be in still but your answer will be y x 3

step-by-step explanation:

jk: )

fahrenheit

step-by-step explanation:

fahrenheit is more precise than celsius. the ambient temperature on most of the inhabited world ranges from -20 degrees fahrenheit to 110 degrees fahrenheit—a 130-degree range. on the celsius scale, that range is from -28.8 degrees to 43.3 degrees—a 72.1-degree range. this means that you can get a more exact measurement of the air temperature using fahrenheit because it uses almost twice the scale.