Exam 15: Vector Anal

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Find a vector-valued function whose graph is the cone Find a vector-valued function whose graph is the cone   . ​ . ​

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Let Let   and let S be the surface bounded by the plane   and the coordinates planes. Verify the Divergence Theorem by evaluating   as a surface integral and as a triple integral.  and let S be the surface bounded by the plane Let   and let S be the surface bounded by the plane   and the coordinates planes. Verify the Divergence Theorem by evaluating   as a surface integral and as a triple integral.  and the coordinates planes. Verify the Divergence Theorem by evaluating Let   and let S be the surface bounded by the plane   and the coordinates planes. Verify the Divergence Theorem by evaluating   as a surface integral and as a triple integral.  as a surface integral and as a triple integral. Let   and let S be the surface bounded by the plane   and the coordinates planes. Verify the Divergence Theorem by evaluating   as a surface integral and as a triple integral.

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Find the value of the line integral Find the value of the line integral   , where   and   . ​  , where Find the value of the line integral   , where   and   . ​  and Find the value of the line integral   , where   and   . ​  . ​ Find the value of the line integral   , where   and   . ​

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Find the rectangular equation for the surface by eliminating parameters from the vector-valued function. Identify the surface. ​ Find the rectangular equation for the surface by eliminating parameters from the vector-valued function. Identify the surface. ​   ​

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Use the Divergence Theorem to evaluate Use the Divergence Theorem to evaluate   Verify your answer by evaluating the integral as a triple integral. ​   ​ S: cube bounded by the planes   ​ Verify your answer by evaluating the integral as a triple integral. ​ Use the Divergence Theorem to evaluate   Verify your answer by evaluating the integral as a triple integral. ​   ​ S: cube bounded by the planes   ​ ​ S: cube bounded by the planes Use the Divergence Theorem to evaluate   Verify your answer by evaluating the integral as a triple integral. ​   ​ S: cube bounded by the planes   ​

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Use Stokes's Theorem to evaluate Use Stokes's Theorem to evaluate   . Use a computer algebra system to verify your results. Note: C is oriented counterclockwise as viewed from above. ​   ​ C: triangle with vertices   ​ . Use a computer algebra system to verify your results. Note: C is oriented counterclockwise as viewed from above. ​ Use Stokes's Theorem to evaluate   . Use a computer algebra system to verify your results. Note: C is oriented counterclockwise as viewed from above. ​   ​ C: triangle with vertices   ​ ​ C: triangle with vertices Use Stokes's Theorem to evaluate   . Use a computer algebra system to verify your results. Note: C is oriented counterclockwise as viewed from above. ​   ​ C: triangle with vertices   ​

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Evaluate the integral Evaluate the integral   along the path   , defined as y-axis from   to   . ​ along the path Evaluate the integral   along the path   , defined as y-axis from   to   . ​ , defined as y-axis from Evaluate the integral   along the path   , defined as y-axis from   to   . ​ to Evaluate the integral   along the path   , defined as y-axis from   to   . ​ . ​

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Find the value of the line integral Find the value of the line integral   , where   and   ,   . (Hint: If F is conservative, the integration may be easier on an alternate path.) , where Find the value of the line integral   , where   and   ,   . (Hint: If F is conservative, the integration may be easier on an alternate path.) and Find the value of the line integral   , where   and   ,   . (Hint: If F is conservative, the integration may be easier on an alternate path.) , Find the value of the line integral   , where   and   ,   . (Hint: If F is conservative, the integration may be easier on an alternate path.) . (Hint: If F is conservative, the integration may be easier on an alternate path.)

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Evaluate Evaluate   where   is represented by   .     ,  where Evaluate   where   is represented by   .     ,  is represented by Evaluate   where   is represented by   .     ,  . Evaluate   where   is represented by   .     ,  Evaluate   where   is represented by   .     ,  , Evaluate   where   is represented by   .     ,

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Match the following vector-valued function with its graph. ​ Match the following vector-valued function with its graph. ​   ​

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Find Find   for the lamina   with uniform density of 1. Use a computer algebra system to verify your result. ​ for the lamina Find   for the lamina   with uniform density of 1. Use a computer algebra system to verify your result. ​ with uniform density of 1. Use a computer algebra system to verify your result. ​

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Find the area of the surface over the given region. Use a computer algebra system to verify your results. ​ The sphere, ​ Find the area of the surface over the given region. Use a computer algebra system to verify your results. ​ The sphere, ​   ,   ​ , Find the area of the surface over the given region. Use a computer algebra system to verify your results. ​ The sphere, ​   ,   ​

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Find the value of the line integral Find the value of the line integral   where   is an ellipse   from   to   . ​  where Find the value of the line integral   where   is an ellipse   from   to   . ​  is an ellipse Find the value of the line integral   where   is an ellipse   from   to   . ​  from Find the value of the line integral   where   is an ellipse   from   to   . ​  to Find the value of the line integral   where   is an ellipse   from   to   . ​  . ​ Find the value of the line integral   where   is an ellipse   from   to   . ​

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A stone weighing 5 pounds is attached to the end of a five-foot string and is whirled horizontally with one end held fixed. It makes 1 revolution per second. Find the work done by the force F that keeps the stone moving in a circular path. [Hint: Use Force = (mass)(centripetal acceleration).] Round your answer to two decimal places, if required.

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Verify Stokes's Theorem by evaluating ​ Verify Stokes's Theorem by evaluating ​   ​ As a line integral and as a double integral. ​     ​ ​ As a line integral and as a double integral. ​ Verify Stokes's Theorem by evaluating ​   ​ As a line integral and as a double integral. ​     ​ Verify Stokes's Theorem by evaluating ​   ​ As a line integral and as a double integral. ​     ​

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The motion of a liquid in a cylindrical container of radius 1 is described by the velocity field The motion of a liquid in a cylindrical container of radius 1 is described by the velocity field   . Find   , where S is the upper surface of the cylindrical container. ​ . Find The motion of a liquid in a cylindrical container of radius 1 is described by the velocity field   . Find   , where S is the upper surface of the cylindrical container. ​ , where S is the upper surface of the cylindrical container. ​

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Find the curl of the vector field Find the curl of the vector field   . ​ . ​

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Find the value of the line integral Find the value of the line integral   where   and ​   .  where Find the value of the line integral   where   and ​   .  and ​ Find the value of the line integral   where   and ​   .  . Find the value of the line integral   where   and ​   .

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Find the area of the surface over the given region. Use a computer algebra system to verify your results. ​ The part of the cone, ​ Find the area of the surface over the given region. Use a computer algebra system to verify your results. ​ The part of the cone, ​   ​ Where   and   . ​ ​ Where Find the area of the surface over the given region. Use a computer algebra system to verify your results. ​ The part of the cone, ​   ​ Where   and   . ​ and Find the area of the surface over the given region. Use a computer algebra system to verify your results. ​ The part of the cone, ​   ​ Where   and   . ​ . ​

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Use Green's Theorem to calculate the work done by the force Use Green's Theorem to calculate the work done by the force   on a particle that is moving counterclockwise around the closed path   where   is the boundary of the region lying between the graphs of   , and   . Round your answer to two decimal places. ​ on a particle that is moving counterclockwise around the closed path Use Green's Theorem to calculate the work done by the force   on a particle that is moving counterclockwise around the closed path   where   is the boundary of the region lying between the graphs of   , and   . Round your answer to two decimal places. ​ where Use Green's Theorem to calculate the work done by the force   on a particle that is moving counterclockwise around the closed path   where   is the boundary of the region lying between the graphs of   , and   . Round your answer to two decimal places. ​ is the boundary of the region lying between the graphs of Use Green's Theorem to calculate the work done by the force   on a particle that is moving counterclockwise around the closed path   where   is the boundary of the region lying between the graphs of   , and   . Round your answer to two decimal places. ​ , and Use Green's Theorem to calculate the work done by the force   on a particle that is moving counterclockwise around the closed path   where   is the boundary of the region lying between the graphs of   , and   . Round your answer to two decimal places. ​ . Round your answer to two decimal places. ​

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