Exam 6: Applications of the Definite Integral
Exam 1: Preliminaries143 Questions
Exam 2: Limits and Continuity125 Questions
Exam 3: Differentiation150 Questions
Exam 4: Applications of the Derivative143 Questions
Exam 5: Integration154 Questions
Exam 6: Applications of the Definite Integral113 Questions
Exam 7: Integration Techniques95 Questions
Exam 8: First-Order Differential Equations72 Questions
Exam 9: Infinite Series111 Questions
Exam 10: Parametric Equations and Polar Coordinates129 Questions
Exam 11: Vectors and the Geometry of Space107 Questions
Exam 12: Vector-Valued Functions103 Questions
Exam 13: Functions of Several Variables and Partial Differentiation112 Questions
Exam 14: Multiple Integrals92 Questions
Exam 15: Vector Calculus67 Questions
Exam 16: Second Order Differential Equations38 Questions
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Two divers, one on the 15 ft platform and one on the 30 ft platform, hope to perform a joint dive in which they enter the water at the same time. If each begins with an upward jump with an initial velocity of at 14 ft/s, how much time difference should there be between the start of the two dives?
(Multiple Choice)
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The pdf describing the chance that a given insect will die at a particular age, x days, is
. What is the chance the insect will live longer than 6 days?

(Multiple Choice)
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The moment of inertia, I, of an object is the second moment of its mass distribution relative to an axis of rotation,
, where r is the perpendicular distance from the rotation axis and
is the density of the object at a distance r from the rotation axis. What is the moment of inertia for rotation about the y-axis of a shape described by the region bordered by
x = 0, and y = 0 revolved about the y-axis? Assume the density of the material is 1.0, so that mass and volume will be numerically equivalent. [Hint: Cylindrical shells are particularly conducive to moment-of-inertia calculations since r is everywhere the same for a given shell.]
![The moment of inertia, I, of an object is the second moment of its mass distribution relative to an axis of rotation, , where r is the perpendicular distance from the rotation axis and is the density of the object at a distance r from the rotation axis. What is the moment of inertia for rotation about the y-axis of a shape described by the region bordered by x = 0, and y = 0 revolved about the y-axis? Assume the density of the material is 1.0, so that mass and volume will be numerically equivalent. [Hint: Cylindrical shells are particularly conducive to moment-of-inertia calculations since r is everywhere the same for a given shell.]](https://storage.examlex.com/TB2342/11eaa948_cd0a_8748_84bc_017962db5af3_TB2342_11.jpg)
![The moment of inertia, I, of an object is the second moment of its mass distribution relative to an axis of rotation, , where r is the perpendicular distance from the rotation axis and is the density of the object at a distance r from the rotation axis. What is the moment of inertia for rotation about the y-axis of a shape described by the region bordered by x = 0, and y = 0 revolved about the y-axis? Assume the density of the material is 1.0, so that mass and volume will be numerically equivalent. [Hint: Cylindrical shells are particularly conducive to moment-of-inertia calculations since r is everywhere the same for a given shell.]](https://storage.examlex.com/TB2342/11eaa948_cd0a_8749_84bc_dfbc31aa307b_TB2342_11.jpg)
![The moment of inertia, I, of an object is the second moment of its mass distribution relative to an axis of rotation, , where r is the perpendicular distance from the rotation axis and is the density of the object at a distance r from the rotation axis. What is the moment of inertia for rotation about the y-axis of a shape described by the region bordered by x = 0, and y = 0 revolved about the y-axis? Assume the density of the material is 1.0, so that mass and volume will be numerically equivalent. [Hint: Cylindrical shells are particularly conducive to moment-of-inertia calculations since r is everywhere the same for a given shell.]](https://storage.examlex.com/TB2342/11eaa948_cd0a_874a_84bc_45db69b9ed50_TB2342_11.jpg)
(Multiple Choice)
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Find the volume of the solid with cross-sectional area
extending over the range
.


(Multiple Choice)
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A water tower is spherical in shape with radius 35 feet, extending from 120 to 190 feet above ground. Compute the work done in filling the tank from the ground.
(Essay)
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Identify the graph and area of the region bounded by the curves
. The figures below are not necessarily to scale.

(Multiple Choice)
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Find the area of the region determined by the intersections of the curves.



(Multiple Choice)
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Use cylindrical shells to compute the volume of the solid formed by revolving the region bounded by
about x = 5.

(Multiple Choice)
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Find the volume of the solid formed by revolving the region bounded by
about y = 6.

(Multiple Choice)
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A cylindrical water tank has a radius of 2 feet and a height of 6.0 feet. Compute the work done to pump the water out of a filled tank through the top. [The density of water is 62.4 lbs/ft3.]
(Multiple Choice)
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Find the length of the curve defined by function
and extending from x = 0 to x = 2. Round your answer to three decimal places.

(Multiple Choice)
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Use the best method available to find the volume of the solid formed by revolving the region bounded by
and
about the x-axis. Write the integral that is used to find the volume.


(Multiple Choice)
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Find the area of the region bounded by the given curves. Write a single integral that represents the area.



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Identify the region (solid lines) and axis of revolution (dashed line) for the solid whose volume is described by the integral
.

(Multiple Choice)
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Use the best method available to find the volume of the solid formed by revolving the region bounded by
and
about the x-axis. Write the integral that is used to find the volume.



(Essay)
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Sketch the region determined by the intersections of the curves. Estimate the intersection points to the nearest integer, then use these points to estimate the area.



(Essay)
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