Production costs. The graph of the marginal cost function from the production of x thousand bottles of sunscreen per month [where cost C ( x ) is in thousands of dollars per month] is given in the figure. (A) Using the graph shown, describe the shape of the graph of the cost function C ( x ) as x increases from 0 to 8,000 bottles per month. (B) Given the equation of the marginal cost function. C ′ ( x ) = 3 x 2 − 24 x + 53 find the cost function if monthly fixed costs at 0 output are $80,000. What is the cost of manufacturing 4,000 bottles per month? 8,000 bottles per month? (C) Graph the cost function for 0 ≤ x ≤ 8 . [Check the shape of the graph relative to the analysis in part (A).]
Production costs. The graph of the marginal cost function from the production of x thousand bottles of sunscreen per month [where cost C ( x ) is in thousands of dollars per month] is given in the figure. (A) Using the graph shown, describe the shape of the graph of the cost function C ( x ) as x increases from 0 to 8,000 bottles per month. (B) Given the equation of the marginal cost function. C ′ ( x ) = 3 x 2 − 24 x + 53 find the cost function if monthly fixed costs at 0 output are $80,000. What is the cost of manufacturing 4,000 bottles per month? 8,000 bottles per month? (C) Graph the cost function for 0 ≤ x ≤ 8 . [Check the shape of the graph relative to the analysis in part (A).]
Production costs. The graph of the marginal cost function from the production of x thousand bottles of sunscreen per month [where cost C(x) is in thousands of dollars per month] is given in the figure.
(A) Using the graph shown, describe the shape of the graph of the cost function C(x) as x increases from 0 to 8,000 bottles per month.
(B) Given the equation of the marginal cost function.
C
′
(
x
)
=
3
x
2
−
24
x
+
53
find the cost function if monthly fixed costs at 0 output are $80,000. What is the cost of manufacturing 4,000 bottles per month? 8,000 bottles per month?
(C) Graph the cost function for
0
≤
x
≤
8
. [Check the shape of the graph relative to the analysis in part (A).]
The 60-lb collar A can slide on a frictionless vertical rod and is connected as shown to a 65-lb counterweight C. Draw the free-body
diagram of the collar that is needed to determine the value of h for which the system is in equilibrium.
-15 in.
A
60 lb
B
C
h
65 lb
Two cables tied together at Care loaded as shown. Given: Q = 130 lb.
30°
C
B
Determine the range of values of P for which both cables remain taut.
lb
Find the parametric equation for the line where the planes
-4x+y+3x= -11 and -2x+y=3z = 7
intersect.
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