Exam 9: Further Applications of the Integral and Taylor Polynomials

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Calculate the Maclaurin polynomial Calculate the Maclaurin polynomial   for   . for Calculate the Maclaurin polynomial   for   . .

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Find the surface area of the ellipsoid obtained by rotating the ellipse Find the surface area of the ellipsoid obtained by rotating the ellipse   about the x-axis. about the x-axis.

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Approximate the arc length of the curve Approximate the arc length of the curve   over the interval   using the Trapezoidal Rule   . over the interval Approximate the arc length of the curve   over the interval   using the Trapezoidal Rule   . using the Trapezoidal Rule Approximate the arc length of the curve   over the interval   using the Trapezoidal Rule   . .

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Calculate the Maclaurin polynomial Calculate the Maclaurin polynomial   for   . for Calculate the Maclaurin polynomial   for   . .

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The plate shown in the figure, enclosed by the curves The plate shown in the figure, enclosed by the curves   ,   , and   , is submerged vertically in a fluid with density   so that its top is at a depth of   . Find the fluid pressure on a side of the plate if   is given in terms of weight per unit volume.  , The plate shown in the figure, enclosed by the curves   ,   , and   , is submerged vertically in a fluid with density   so that its top is at a depth of   . Find the fluid pressure on a side of the plate if   is given in terms of weight per unit volume.  , and The plate shown in the figure, enclosed by the curves   ,   , and   , is submerged vertically in a fluid with density   so that its top is at a depth of   . Find the fluid pressure on a side of the plate if   is given in terms of weight per unit volume.  , is submerged vertically in a fluid with density The plate shown in the figure, enclosed by the curves   ,   , and   , is submerged vertically in a fluid with density   so that its top is at a depth of   . Find the fluid pressure on a side of the plate if   is given in terms of weight per unit volume.  so that its top is at a depth of The plate shown in the figure, enclosed by the curves   ,   , and   , is submerged vertically in a fluid with density   so that its top is at a depth of   . Find the fluid pressure on a side of the plate if   is given in terms of weight per unit volume.  . Find the fluid pressure on a side of the plate if The plate shown in the figure, enclosed by the curves   ,   , and   , is submerged vertically in a fluid with density   so that its top is at a depth of   . Find the fluid pressure on a side of the plate if   is given in terms of weight per unit volume.  is given in terms of weight per unit volume. The plate shown in the figure, enclosed by the curves   ,   , and   , is submerged vertically in a fluid with density   so that its top is at a depth of   . Find the fluid pressure on a side of the plate if   is given in terms of weight per unit volume.

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Let Let   . What is the coefficient of   in the sixth Maclaurin polynomial for   ? . What is the coefficient of Let   . What is the coefficient of   in the sixth Maclaurin polynomial for   ? in the sixth Maclaurin polynomial for Let   . What is the coefficient of   in the sixth Maclaurin polynomial for   ? ?

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Find the centroid of the shaded region in the figure below. Find the centroid of the shaded region in the figure below.

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Five particles of equal mass are located at Five particles of equal mass are located at   and   . Find the center of mass of the system. and Five particles of equal mass are located at   and   . Find the center of mass of the system. . Find the center of mass of the system.

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The face of a dam is an isosceles trapezoid of height 30 ft and bases 10 ft and 50 ft. The dam is oriented vertically with the larger base at the bottom. Find the force on the dam if the water level is 4 ft below the top of the dam. (The density of the water is The face of a dam is an isosceles trapezoid of height 30 ft and bases 10 ft and 50 ft. The dam is oriented vertically with the larger base at the bottom. Find the force on the dam if the water level is 4 ft below the top of the dam. (The density of the water is   .)  .) The face of a dam is an isosceles trapezoid of height 30 ft and bases 10 ft and 50 ft. The dam is oriented vertically with the larger base at the bottom. Find the force on the dam if the water level is 4 ft below the top of the dam. (The density of the water is   .)

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Let Let   .  A) Write the Maclaurin polynomial   for   .  B) Use Taylor's Theorem for   to write an integration formula for  . A) Write the Maclaurin polynomial Let   .  A) Write the Maclaurin polynomial   for   .  B) Use Taylor's Theorem for   to write an integration formula for  for Let   .  A) Write the Maclaurin polynomial   for   .  B) Use Taylor's Theorem for   to write an integration formula for  . B) Use Taylor's Theorem for Let   .  A) Write the Maclaurin polynomial   for   .  B) Use Taylor's Theorem for   to write an integration formula for  to write an integration formula for Let   .  A) Write the Maclaurin polynomial   for   .  B) Use Taylor's Theorem for   to write an integration formula for

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Use implicit differentiation to compute the surface area of revolution about the x-axis of the part of the astroid Use implicit differentiation to compute the surface area of revolution about the x-axis of the part of the astroid   in the first quadrant.  in the first quadrant. Use implicit differentiation to compute the surface area of revolution about the x-axis of the part of the astroid   in the first quadrant.

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Compute the surface area of revolution of Compute the surface area of revolution of   about the x-axis over the interval   . about the x-axis over the interval Compute the surface area of revolution of   about the x-axis over the interval   . .

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Use additivity of moments to find the center of mass of the region consisting of a semicircle on top of an isosceles trapezoid of height 1 and bases 2 and 4, as shown below. Use additivity of moments to find the center of mass of the region consisting of a semicircle on top of an isosceles trapezoid of height 1 and bases 2 and 4, as shown below.

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Evaluate Evaluate   . .

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A thin plate shown in the following figure is bounded by the graphs of A thin plate shown in the following figure is bounded by the graphs of   and   . The plate is submerged in a fluid with density   so that its top is level with the surface of the fluid. Calculate the fluid pressure on a side of the plate if   is given in terms of weight per unit volume.  and A thin plate shown in the following figure is bounded by the graphs of   and   . The plate is submerged in a fluid with density   so that its top is level with the surface of the fluid. Calculate the fluid pressure on a side of the plate if   is given in terms of weight per unit volume.  . The plate is submerged in a fluid with density A thin plate shown in the following figure is bounded by the graphs of   and   . The plate is submerged in a fluid with density   so that its top is level with the surface of the fluid. Calculate the fluid pressure on a side of the plate if   is given in terms of weight per unit volume.  so that its top is level with the surface of the fluid. Calculate the fluid pressure on a side of the plate if A thin plate shown in the following figure is bounded by the graphs of   and   . The plate is submerged in a fluid with density   so that its top is level with the surface of the fluid. Calculate the fluid pressure on a side of the plate if   is given in terms of weight per unit volume.  is given in terms of weight per unit volume. A thin plate shown in the following figure is bounded by the graphs of   and   . The plate is submerged in a fluid with density   so that its top is level with the surface of the fluid. Calculate the fluid pressure on a side of the plate if   is given in terms of weight per unit volume.

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A water tank is a cylinder 4 ft in diameter, standing on its base. If water fills the tank to a depth of 3 ft, what is the magnitude of the force exerted on the side of the tank? (The density of the water is A water tank is a cylinder 4 ft in diameter, standing on its base. If water fills the tank to a depth of 3 ft, what is the magnitude of the force exerted on the side of the tank? (The density of the water is   .)  .) A water tank is a cylinder 4 ft in diameter, standing on its base. If water fills the tank to a depth of 3 ft, what is the magnitude of the force exerted on the side of the tank? (The density of the water is   .)

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In the following figure, the centroid of the region enclosed by the graphs of In the following figure, the centroid of the region enclosed by the graphs of   ,   and   lies on:  , In the following figure, the centroid of the region enclosed by the graphs of   ,   and   lies on:  and In the following figure, the centroid of the region enclosed by the graphs of   ,   and   lies on:  lies on: In the following figure, the centroid of the region enclosed by the graphs of   ,   and   lies on:

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An infinite plate shown in the figure below, bounded by the graphs of An infinite plate shown in the figure below, bounded by the graphs of   and   and the two axes, is submerged vertically in a fluid with density   in kilograms per cubic meter; its top is level with the fluid surface. Calculate the fluid force on a side of the plate and write the answer in terms of   and   .  and An infinite plate shown in the figure below, bounded by the graphs of   and   and the two axes, is submerged vertically in a fluid with density   in kilograms per cubic meter; its top is level with the fluid surface. Calculate the fluid force on a side of the plate and write the answer in terms of   and   .  and the two axes, is submerged vertically in a fluid with density An infinite plate shown in the figure below, bounded by the graphs of   and   and the two axes, is submerged vertically in a fluid with density   in kilograms per cubic meter; its top is level with the fluid surface. Calculate the fluid force on a side of the plate and write the answer in terms of   and   .  in kilograms per cubic meter; its top is level with the fluid surface. Calculate the fluid force on a side of the plate and write the answer in terms of An infinite plate shown in the figure below, bounded by the graphs of   and   and the two axes, is submerged vertically in a fluid with density   in kilograms per cubic meter; its top is level with the fluid surface. Calculate the fluid force on a side of the plate and write the answer in terms of   and   .  and An infinite plate shown in the figure below, bounded by the graphs of   and   and the two axes, is submerged vertically in a fluid with density   in kilograms per cubic meter; its top is level with the fluid surface. Calculate the fluid force on a side of the plate and write the answer in terms of   and   .  . An infinite plate shown in the figure below, bounded by the graphs of   and   and the two axes, is submerged vertically in a fluid with density   in kilograms per cubic meter; its top is level with the fluid surface. Calculate the fluid force on a side of the plate and write the answer in terms of   and   .

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An infinite plate shown in the figure below, bounded by the graphs of An infinite plate shown in the figure below, bounded by the graphs of   ,   , and the y-axis, is submerged vertically in water, with its top   ft below the water surface. Calculate the fluid force on a side of the plate. (The density of water is   )  , An infinite plate shown in the figure below, bounded by the graphs of   ,   , and the y-axis, is submerged vertically in water, with its top   ft below the water surface. Calculate the fluid force on a side of the plate. (The density of water is   )  , and the y-axis, is submerged vertically in water, with its top An infinite plate shown in the figure below, bounded by the graphs of   ,   , and the y-axis, is submerged vertically in water, with its top   ft below the water surface. Calculate the fluid force on a side of the plate. (The density of water is   )  ft below the water surface. Calculate the fluid force on a side of the plate. (The density of water is An infinite plate shown in the figure below, bounded by the graphs of   ,   , and the y-axis, is submerged vertically in water, with its top   ft below the water surface. Calculate the fluid force on a side of the plate. (The density of water is   )  ) An infinite plate shown in the figure below, bounded by the graphs of   ,   , and the y-axis, is submerged vertically in water, with its top   ft below the water surface. Calculate the fluid force on a side of the plate. (The density of water is   )

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Calculate the Taylor polynomial Calculate the Taylor polynomial   for   about   . for Calculate the Taylor polynomial   for   about   . about Calculate the Taylor polynomial   for   about   . .

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