B In Problems 17-26, evaluate each iterated integral. (See the indicated problem for the evaluation of the inner integral.) 20. ∫ − 2 3 ∫ 1 4 ( 4 x + 6 y + 5 ) d y d x (See Problem 10.) 10. (A) ∫ ( 4 x + 6 y + 5 ) d y (B) ∫ 1 4 ( 4 x + 6 y + 5 ) d y
B In Problems 17-26, evaluate each iterated integral. (See the indicated problem for the evaluation of the inner integral.) 20. ∫ − 2 3 ∫ 1 4 ( 4 x + 6 y + 5 ) d y d x (See Problem 10.) 10. (A) ∫ ( 4 x + 6 y + 5 ) d y (B) ∫ 1 4 ( 4 x + 6 y + 5 ) d y
Solution Summary: The author calculates the iterated integral with respect to y.
BIn Problems 17-26, evaluate each iterated integral. (See the indicated problem for the evaluation of the inner integral.)
20.
∫
−
2
3
∫
1
4
(
4
x
+
6
y
+
5
)
d
y
d
x
(See Problem 10.)
10. (A)
∫
(
4
x
+
6
y
+
5
)
d
y
(B)
∫
1
4
(
4
x
+
6
y
+
5
)
d
y
With differentiation, one of the major concepts of calculus. Integration involves the calculation of an integral, which is useful to find many quantities such as areas, volumes, and displacement.
The fox population in a certain region has an annual growth rate of 8 percent per year. It is estimated that the
population in the year 2000 was 22600.
(a) Find a function that models the population t years after 2000 (t = 0 for 2000).
Your answer is P(t)
=
(b) Use the function from part (a) to estimate the fox population in the year 2008.
Your answer is (the answer should be an integer)
r
The solutions are 1
where x1 x2-
● Question 11
Solve: x 54
Give your answer as an interval.
Question 12
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