Exam 4: Applications of the Derivative
Exam 1: Precalculus Review74 Questions
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Exam 3: Differentiation81 Questions
Exam 4: Applications of the Derivative77 Questions
Exam 5: The Integral82 Questions
Exam 6: Applications of the Integral80 Questions
Exam 7: Exponential Functions106 Questions
Exam 8: Techniques of Integration101 Questions
Exam 9: Further Applications of the Integral and Taylor Polynomials100 Questions
Exam 10: Introduction to Differential Equations73 Questions
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Exam 12: Parametric Equations, Polar Coordinates, and Conic Sections71 Questions
Exam 13: Vector Geometry96 Questions
Exam 14: Calculus of Vector-Valued Functions99 Questions
Exam 15: Differentiation in Several Variables95 Questions
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Exam 18: Fundamental Theorems of Vector Analysis91 Questions
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What can you conclude about the graph of
from the following table?
-1
-6
+
0
-
-
-
+
0
-
0
-
A)
is concave down on
and
B)
is an inflection point and
C)
is an inflection point and
D)
is concave up on
and
is increasing on 














(Short Answer)
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(33)
Suppose that a function
satisfies the following equation for small values of
:
.
Also,
and
.
A) Find the linearization of
at
.
B) Replace
by its linearization and find a quadratic equation for
.
C) Estimate the roots of the quadratic equation in
to 4 decimal digits using linearization for
.











(Essay)
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(41)
The radius
of a sphere is measured at 4 m. Use linear approximation to estimate the maximum error in the surface area of the sphere if
is accurate to within
m.



(Essay)
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(47)
Sketch the graph of the function. Indicate the asymptotes, local extrema, and points of inflection. 

(Essay)
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(41)
Apply Newton's Method to
with an initial guess of
to calculate
,
, and
.





(Essay)
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(35)
Find the linearization of the given function centered at
, and use it to estimate
.
A)
B) 




(Essay)
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(47)
Show that the equation
has a root
in the interval
and use Newton's Method to approximate it to four decimal places.



(Essay)
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(31)
Use Newton's Method to approximate the only positive root for
to within an error of at most 


(Short Answer)
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(45)
Find the intervals on which the function is concave up and concave down and indicate the points of inflection
A)
B) 


(Essay)
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(39)
The minimum and maximum of which of the following functions does not occur at a critical point in the open interval:
(Multiple Choice)
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(36)
Show that the equation
has a root in the interval
and use Newton's Method to approximate it with an error of at most
.



(Essay)
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(34)
Which of the following functions has a local maximum at a point in the interval
:
A)
B)
C)
D) 





(Essay)
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(37)
Find the intervals on which the function is concave up and concave down and indicate the points of inflection
A)
B) 


(Essay)
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(40)
The following is the graph of
Where do the points of inflection of
occur, and on which intervals is
concave up? 




(Essay)
4.7/5
(34)
Estimate the roots of the equation
using the linear approximation for
.


(Essay)
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(44)
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