Medication in the bloodstream. After an injection, the amount of a medication A , in cubic centimeters (cc), in the bloodstream decreases with time t , in hours. Suppose that under certain conditions A is given by A ( t ) = A 0 t 2 + 1 , where A 0 is the initial amount of the medication. Assume that an initial amount of 100 cc is injected. a. Find A ( 0 ) , A ( 1 ) , A ( 2 ) , A ( 7 ) , and A ( 10 ) . b. Find the maximum amount of medication in the bloodstream over the interval [ 0 , ∞ ) c. Graph the function. d. d) According to this function, does the medication ever completely leave the bloodstream? Explain your answer.
Medication in the bloodstream. After an injection, the amount of a medication A , in cubic centimeters (cc), in the bloodstream decreases with time t , in hours. Suppose that under certain conditions A is given by A ( t ) = A 0 t 2 + 1 , where A 0 is the initial amount of the medication. Assume that an initial amount of 100 cc is injected. a. Find A ( 0 ) , A ( 1 ) , A ( 2 ) , A ( 7 ) , and A ( 10 ) . b. Find the maximum amount of medication in the bloodstream over the interval [ 0 , ∞ ) c. Graph the function. d. d) According to this function, does the medication ever completely leave the bloodstream? Explain your answer.
Solution Summary: The author calculates the amount A of the medication in cubic centimeters (cc) in the bloodstream that decreases with time t in hours respectively.
Medication in the bloodstream. After an injection, the amount of a medication A, in cubic centimeters (cc), in the bloodstream decreases with time t, in hours. Suppose that under certain conditions A is given by
A
(
t
)
=
A
0
t
2
+
1
,
where
A
0
is the initial amount of the medication. Assume that an initial amount of 100 cc is injected.
a. Find
A
(
0
)
,
A
(
1
)
,
A
(
2
)
,
A
(
7
)
,
and
A
(
10
)
.
b. Find the maximum amount of medication in the bloodstream over the interval
[
0
,
∞
)
c. Graph the function.
d. d) According to this function, does the medication ever completely leave the bloodstream? Explain your answer.
Suppose the planet of Tattooine currently has a population of 6500 people and an annual growth rate of
0.35%. Use this information for all the problems below.
1. Find an exponential function f(t) that gives the population of Tattooine t years from now. (3
points)
A house was valued at $95,000 in the year 1988. The value appreciated to $170,000 by the year 2007.
A) If the value is growing exponentially, what was the annual growth rate between 1988 and 2007?
Round the growth rate to 4 decimal places.
r =
B) What is the correct answer to part A written in percentage form?
r = 3
%.
B
G
R
+
K
Match each equation with a graph above
- 3(0.9)*
1
a. green (G)
3(1.5)*
b. black (K)
3(0.73)*
c. blue (B)
d. red (R)
I
✪ 4(1.21)*
- 3(1.21)*
e. orange (O)
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