Deck 13: Vector Calculus

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Question
Let <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> and let S be the boundary surface of the solid E bounded by <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> , and <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
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Question
Find the flux of Find the flux of   across the surface of the solid bounded by   , and the planes   .<div style=padding-top: 35px> across the surface of the solid bounded by Find the flux of   across the surface of the solid bounded by   , and the planes   .<div style=padding-top: 35px> , and the planes Find the flux of   across the surface of the solid bounded by   , and the planes   .<div style=padding-top: 35px> .
Question
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Let Let   and let S be the surface of the rectangular box bounded by the planes   , and   . Evaluate the surface integral   .<div style=padding-top: 35px> and let S be the surface of the rectangular box bounded by the planes Let   and let S be the surface of the rectangular box bounded by the planes   , and   . Evaluate the surface integral   .<div style=padding-top: 35px> , and Let   and let S be the surface of the rectangular box bounded by the planes   , and   . Evaluate the surface integral   .<div style=padding-top: 35px> . Evaluate the surface integral Let   and let S be the surface of the rectangular box bounded by the planes   , and   . Evaluate the surface integral   .<div style=padding-top: 35px> .
Question
Let Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .<div style=padding-top: 35px> and let S be the boundary surface of the solid Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .<div style=padding-top: 35px> . Evaluate the surface integral Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .<div style=padding-top: 35px> .
Question
Let Let   and let S be the surface of the solid bounded by the spheres   and   . Evaluate the surface integral   .<div style=padding-top: 35px> and let S be the surface of the solid bounded by the spheres Let   and let S be the surface of the solid bounded by the spheres   and   . Evaluate the surface integral   .<div style=padding-top: 35px> and Let   and let S be the surface of the solid bounded by the spheres   and   . Evaluate the surface integral   .<div style=padding-top: 35px> . Evaluate the surface integral Let   and let S be the surface of the solid bounded by the spheres   and   . Evaluate the surface integral   .<div style=padding-top: 35px> .
Question
Evaluate Evaluate   , where S is the cube bounded by the planes   and   , and n is the outward normal.<div style=padding-top: 35px> , where S is the cube bounded by the planes Evaluate   , where S is the cube bounded by the planes   and   , and n is the outward normal.<div style=padding-top: 35px> and Evaluate   , where S is the cube bounded by the planes   and   , and n is the outward normal.<div style=padding-top: 35px> , and n is the outward normal.
Question
Let Let   and let S be the surface with equation   . Evaluate the surface integral   .<div style=padding-top: 35px> and let S be the surface with equation Let   and let S be the surface with equation   . Evaluate the surface integral   .<div style=padding-top: 35px> . Evaluate the surface integral Let   and let S be the surface with equation   . Evaluate the surface integral   .<div style=padding-top: 35px> .
Question
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Use the Divergence Theorem to evaluate <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> where <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> and S is the surface of the cylinder <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> , bounded by the planes <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> and <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Find the flux of Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane.<div style=padding-top: 35px> across the surface of the solid bounded by the paraboloid Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane.<div style=padding-top: 35px> and the Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane.<div style=padding-top: 35px> plane.
Question
Let Let   and let S be the surface of the tetrahedron with vertices   , and   . Evaluate the surface integral   .<div style=padding-top: 35px> and let S be the surface of the tetrahedron with vertices Let   and let S be the surface of the tetrahedron with vertices   , and   . Evaluate the surface integral   .<div style=padding-top: 35px> , and Let   and let S be the surface of the tetrahedron with vertices   , and   . Evaluate the surface integral   .<div style=padding-top: 35px> . Evaluate the surface integral Let   and let S be the surface of the tetrahedron with vertices   , and   . Evaluate the surface integral   .<div style=padding-top: 35px> .
Question
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Use the Divergence Theorem to evaluate <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> where <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> and S is the sphere <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Let Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .<div style=padding-top: 35px> and let S be the boundary surface of the solid Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .<div style=padding-top: 35px> . Evaluate the surface integral Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .<div style=padding-top: 35px> .
Question
Evaluate the flux integral Evaluate the flux integral   over the boundary of the ball   .<div style=padding-top: 35px> over the boundary of the ball Evaluate the flux integral   over the boundary of the ball   .<div style=padding-top: 35px> .
Question
Evaluate Evaluate   , where S is the boundary surface of the solid sphere   and  <div style=padding-top: 35px> , where S is the boundary surface of the solid sphere Evaluate   , where S is the boundary surface of the solid sphere   and  <div style=padding-top: 35px> and Evaluate   , where S is the boundary surface of the solid sphere   and  <div style=padding-top: 35px>
Question
Evaluate Evaluate   , where S is the boundary surface of the region outside the sphere   and inside the ball   and   .<div style=padding-top: 35px> , where S is the boundary surface of the region outside the sphere Evaluate   , where S is the boundary surface of the region outside the sphere   and inside the ball   and   .<div style=padding-top: 35px> and inside the ball Evaluate   , where S is the boundary surface of the region outside the sphere   and inside the ball   and   .<div style=padding-top: 35px> and Evaluate   , where S is the boundary surface of the region outside the sphere   and inside the ball   and   .<div style=padding-top: 35px> .
Question
Let <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> . Evaluate the line integral <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> along the elliptical path <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Let S be the outwardly-oriented surface of a solid region E where the volume of E is Let S be the outwardly-oriented surface of a solid region E where the volume of E is   . If   and   , evaluate the surface integral   .<div style=padding-top: 35px> . If Let S be the outwardly-oriented surface of a solid region E where the volume of E is   . If   and   , evaluate the surface integral   .<div style=padding-top: 35px> and Let S be the outwardly-oriented surface of a solid region E where the volume of E is   . If   and   , evaluate the surface integral   .<div style=padding-top: 35px> , evaluate the surface integral Let S be the outwardly-oriented surface of a solid region E where the volume of E is   . If   and   , evaluate the surface integral   .<div style=padding-top: 35px> .
Question
Use Stokes' Theorem to evaluate <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> where C is the circle <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Evaluate Evaluate   , where   and S is the sphere   .<div style=padding-top: 35px> , where Evaluate   , where   and S is the sphere   .<div style=padding-top: 35px> and S is the sphere Evaluate   , where   and S is the sphere   .<div style=padding-top: 35px> .
Question
Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   where   and S is the part of the paraboloid   that lies inside the cylinder   , oriented upward.<div style=padding-top: 35px> where Use Stokes' Theorem to evaluate   where   and S is the part of the paraboloid   that lies inside the cylinder   , oriented upward.<div style=padding-top: 35px> and S is the part of the paraboloid Use Stokes' Theorem to evaluate   where   and S is the part of the paraboloid   that lies inside the cylinder   , oriented upward.<div style=padding-top: 35px> that lies inside the cylinder Use Stokes' Theorem to evaluate   where   and S is the part of the paraboloid   that lies inside the cylinder   , oriented upward.<div style=padding-top: 35px> , oriented upward.
Question
Let <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> . Evaluate the line integral <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> along the elliptical path <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Let <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> . Evaluate the line integral <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> along the rectangular path from <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> to <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> to <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> to <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> to <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Let <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> . Evaluate <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> over the surface S given by <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> , with downward orientation.

A) <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Find the flux of Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane.<div style=padding-top: 35px> across the surface of the solid bounded by the paraboloid Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane.<div style=padding-top: 35px> and the Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane.<div style=padding-top: 35px> plane.
Question
Evaluate Evaluate   , where   and S is the sphere   .<div style=padding-top: 35px> , where Evaluate   , where   and S is the sphere   .<div style=padding-top: 35px> and S is the sphere Evaluate   , where   and S is the sphere   .<div style=padding-top: 35px> .
Question
Find the flux of Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane.<div style=padding-top: 35px> across the surface of the solid bounded by the paraboloid Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane.<div style=padding-top: 35px> and the Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane.<div style=padding-top: 35px> plane.
Question
Let Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C.<div style=padding-top: 35px> . Let C be the rectangular path from Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C.<div style=padding-top: 35px> to Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C.<div style=padding-top: 35px> to Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C.<div style=padding-top: 35px> to Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C.<div style=padding-top: 35px> to Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C.<div style=padding-top: 35px> . Use Stokes' Theorem to evaluate the line integral Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C.<div style=padding-top: 35px> , where T is the unit tangent vector to C.
Question
Find the flux of Find the flux of   across the surface of the solid   .<div style=padding-top: 35px> across the surface of the solid Find the flux of   across the surface of the solid   .<div style=padding-top: 35px> .
Question
Evaluate Evaluate   , where the path C is the curve of intersection of the paraboloid   with the plane   .<div style=padding-top: 35px> , where the path C is the curve of intersection of the paraboloid Evaluate   , where the path C is the curve of intersection of the paraboloid   with the plane   .<div style=padding-top: 35px> with the plane Evaluate   , where the path C is the curve of intersection of the paraboloid   with the plane   .<div style=padding-top: 35px> .
Question
Let <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> . Evaluate the line integral <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> , where C is the curve of intersection of the paraboloid <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> and the cylinder <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Use Stokes' Theorem to evaluate <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> where C is the circle <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> .

A) <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Use Stokes' Theorem to evaluate <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> where C is the triangle with vertices <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> , and <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> , oriented counter clockwise as viewed from above.

A) <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> e. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> b. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> f. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> c. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> g. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> d. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px> h. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   <div style=padding-top: 35px>
Question
Let Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .<div style=padding-top: 35px> and let S be the boundary surface of the solid Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .<div style=padding-top: 35px> . Evaluate the surface integral Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .<div style=padding-top: 35px> .
Question
A surface has the shape of the cone <strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px> between <strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px> and <strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px> with the density function <strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px> . Find the mass of the surface.

A) <strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
B) <strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
C)<strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>

D)<strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
E)<strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
F)<strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
G)<strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
H)<strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
Question
Consider the surfaces Consider the surfaces   :   , and   :   , and let F be a vector field with continuous partial derivatives everywhere. Why do we know that   ?<div style=padding-top: 35px> : Consider the surfaces   :   , and   :   , and let F be a vector field with continuous partial derivatives everywhere. Why do we know that   ?<div style=padding-top: 35px> , and Consider the surfaces   :   , and   :   , and let F be a vector field with continuous partial derivatives everywhere. Why do we know that   ?<div style=padding-top: 35px> : Consider the surfaces   :   , and   :   , and let F be a vector field with continuous partial derivatives everywhere. Why do we know that   ?<div style=padding-top: 35px> , and let F be a vector field with continuous partial derivatives everywhere. Why do we know that Consider the surfaces   :   , and   :   , and let F be a vector field with continuous partial derivatives everywhere. Why do we know that   ?<div style=padding-top: 35px> ?
Question
Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   , where C is the triangle with vertices   , and   , oriented counterclockwise as viewed from above.<div style=padding-top: 35px> , where C is the triangle with vertices Use Stokes' Theorem to evaluate   , where C is the triangle with vertices   , and   , oriented counterclockwise as viewed from above.<div style=padding-top: 35px> , and Use Stokes' Theorem to evaluate   , where C is the triangle with vertices   , and   , oriented counterclockwise as viewed from above.<div style=padding-top: 35px> , oriented counterclockwise as viewed from above.
Question
Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   where   and S is the part of the hemisphere   that lies inside the cylinder   , oriented in the direction of the positive x-axis.<div style=padding-top: 35px> where Use Stokes' Theorem to evaluate   where   and S is the part of the hemisphere   that lies inside the cylinder   , oriented in the direction of the positive x-axis.<div style=padding-top: 35px> and S is the part of the hemisphere Use Stokes' Theorem to evaluate   where   and S is the part of the hemisphere   that lies inside the cylinder   , oriented in the direction of the positive x-axis.<div style=padding-top: 35px> that lies inside the cylinder Use Stokes' Theorem to evaluate   where   and S is the part of the hemisphere   that lies inside the cylinder   , oriented in the direction of the positive x-axis.<div style=padding-top: 35px> , oriented in the direction of the positive x-axis.
Question
Evaluate the surface integral <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  <div style=padding-top: 35px> , where <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  <div style=padding-top: 35px> and S is the part of the plane <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  <div style=padding-top: 35px> in the first octant with downward orientation.

A) <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  <div style=padding-top: 35px>
B) <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  <div style=padding-top: 35px>
C) <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  <div style=padding-top: 35px>
D)<strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  <div style=padding-top: 35px>
E) <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  <div style=padding-top: 35px>
F)<strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  <div style=padding-top: 35px>
G)<strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  <div style=padding-top: 35px>
H)<strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  <div style=padding-top: 35px>
Question
Evaluate <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   <div style=padding-top: 35px> , where <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   <div style=padding-top: 35px> and S is the cube bounded by <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   <div style=padding-top: 35px> .

A) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   <div style=padding-top: 35px>
B) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   <div style=padding-top: 35px>
C)<strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   <div style=padding-top: 35px>
D)<strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   <div style=padding-top: 35px>
E) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   <div style=padding-top: 35px>
F)<strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   <div style=padding-top: 35px>
G)<strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   <div style=padding-top: 35px>
H) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   <div style=padding-top: 35px>
Question
Evaluate the surface integral <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px> , where S is that part of the plane <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px> that lies above the square with vertices <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px> , and <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px> .

A) <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
B)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
C) <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
D)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
E)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
F)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
G)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
H)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  <div style=padding-top: 35px>
Question
Verify that Stokes' Theorem is true for the vector field Verify that Stokes' Theorem is true for the vector field   and the cone   , oriented upward.<div style=padding-top: 35px> and the cone Verify that Stokes' Theorem is true for the vector field   and the cone   , oriented upward.<div style=padding-top: 35px> , oriented upward.
Question
Let <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  <div style=padding-top: 35px> . Evaluate the surface integral <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  <div style=padding-top: 35px> , where S is that part of the plane <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  <div style=padding-top: 35px> that lies above the square with vertices <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  <div style=padding-top: 35px> , and <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  <div style=padding-top: 35px> and has upward orientation.

A) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  <div style=padding-top: 35px>
B) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  <div style=padding-top: 35px>
C) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  <div style=padding-top: 35px>
D)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  <div style=padding-top: 35px>
E)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  <div style=padding-top: 35px>
F) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  <div style=padding-top: 35px>
G)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  <div style=padding-top: 35px>
H)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  <div style=padding-top: 35px>
Question
Evaluate <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  <div style=padding-top: 35px> where <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  <div style=padding-top: 35px> and S is the part of the surface <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  <div style=padding-top: 35px> that lies above the <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  <div style=padding-top: 35px> plane and has upward orientation.

A) <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  <div style=padding-top: 35px>
B) <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  <div style=padding-top: 35px>

C)<strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  <div style=padding-top: 35px>
D)<strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  <div style=padding-top: 35px>
E)<strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  <div style=padding-top: 35px>
F)<strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  <div style=padding-top: 35px>
G) <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  <div style=padding-top: 35px>
H)<strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  <div style=padding-top: 35px>
Question
Let S be the parametric surface Let S be the parametric surface   . Use Stokes' Theorem to evaluate   , where   .<div style=padding-top: 35px> . Use Stokes' Theorem to evaluate Let S be the parametric surface   . Use Stokes' Theorem to evaluate   , where   .<div style=padding-top: 35px> , where Let S be the parametric surface   . Use Stokes' Theorem to evaluate   , where   .<div style=padding-top: 35px> .
Question
Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   , where C is the curve of intersection of the paraboloid   and the cylinder   , oriented counterclockwise as viewed from above.<div style=padding-top: 35px> , where C is the curve of intersection of the paraboloid Use Stokes' Theorem to evaluate   , where C is the curve of intersection of the paraboloid   and the cylinder   , oriented counterclockwise as viewed from above.<div style=padding-top: 35px> and the cylinder Use Stokes' Theorem to evaluate   , where C is the curve of intersection of the paraboloid   and the cylinder   , oriented counterclockwise as viewed from above.<div style=padding-top: 35px> , oriented counterclockwise as viewed from above.
Question
An upper hemisphere is given by <strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px> with the density function <strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px> . Find the mass of the sphere.

A) <strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
B) <strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
C)<strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
D)<strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
E)<strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
F)<strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
G)<strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
H)<strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
Question
Evaluate the surface integral Evaluate the surface integral   , where S is the triangle with vertices   , and  <div style=padding-top: 35px> , where S is the triangle with vertices Evaluate the surface integral   , where S is the triangle with vertices   , and  <div style=padding-top: 35px> , and Evaluate the surface integral   , where S is the triangle with vertices   , and  <div style=padding-top: 35px>
Question
Let <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   <div style=padding-top: 35px> . Evaluate the surface integral <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   <div style=padding-top: 35px> , where S is that part of the plane <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   <div style=padding-top: 35px> that lies above the square with vertices <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   <div style=padding-top: 35px> , and <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   <div style=padding-top: 35px> and has upward orientation.

A) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   <div style=padding-top: 35px>
B)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   <div style=padding-top: 35px>
C)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   <div style=padding-top: 35px>
D) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   <div style=padding-top: 35px>
E)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   <div style=padding-top: 35px>
F) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   <div style=padding-top: 35px>
G) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   <div style=padding-top: 35px>
H) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   <div style=padding-top: 35px>
Question
Evaluate the surface integral <strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px> , where S is that part of the cylinder <strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px> that lies above the square with vertices <strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px> , and <strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px> .

A) <strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
B)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
C)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
D)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
E)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
F)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
G)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
H)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  <div style=padding-top: 35px>
Question
Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   where   and C is the curve of intersection of the plane   and the cylinder   .<div style=padding-top: 35px> where Use Stokes' Theorem to evaluate   where   and C is the curve of intersection of the plane   and the cylinder   .<div style=padding-top: 35px> and C is the curve of intersection of the plane Use Stokes' Theorem to evaluate   where   and C is the curve of intersection of the plane   and the cylinder   .<div style=padding-top: 35px> and the cylinder Use Stokes' Theorem to evaluate   where   and C is the curve of intersection of the plane   and the cylinder   .<div style=padding-top: 35px> .
Question
Evaluate <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  <div style=padding-top: 35px> , where <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  <div style=padding-top: 35px> and S is the cube bounded by <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  <div style=padding-top: 35px> .

A) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  <div style=padding-top: 35px>
B)<strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  <div style=padding-top: 35px>
C) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  <div style=padding-top: 35px>
D) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  <div style=padding-top: 35px>
E) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  <div style=padding-top: 35px>
F) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  <div style=padding-top: 35px>
G) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  <div style=padding-top: 35px>
H)<strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  <div style=padding-top: 35px>
Question
Evaluate the surface integral <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   <div style=padding-top: 35px> , where S is that part of the plane <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   <div style=padding-top: 35px> that lies above the square with vertices <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   <div style=padding-top: 35px> , and <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   <div style=padding-top: 35px> .

A) <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   <div style=padding-top: 35px>
B) <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   <div style=padding-top: 35px>
C)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   <div style=padding-top: 35px>
D)2
E)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   <div style=padding-top: 35px>
F)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   <div style=padding-top: 35px>
G)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   <div style=padding-top: 35px>
H) <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   <div style=padding-top: 35px>
Question
Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   where   and C is the triangle with vertices   , and  <div style=padding-top: 35px> where Use Stokes' Theorem to evaluate   where   and C is the triangle with vertices   , and  <div style=padding-top: 35px> and C is the triangle with vertices Use Stokes' Theorem to evaluate   where   and C is the triangle with vertices   , and  <div style=padding-top: 35px> , and Use Stokes' Theorem to evaluate   where   and C is the triangle with vertices   , and  <div style=padding-top: 35px>
Question
A fluid has density 1500 and velocity field A fluid has density 1500 and velocity field   . Find the rate of flow outward through the sphere   .<div style=padding-top: 35px> . Find the rate of flow outward through the sphere A fluid has density 1500 and velocity field   . Find the rate of flow outward through the sphere   .<div style=padding-top: 35px> .
Question
Evaluate Evaluate   , where   and S is the upper half of the sphere   , with upward orientation.<div style=padding-top: 35px> , where Evaluate   , where   and S is the upper half of the sphere   , with upward orientation.<div style=padding-top: 35px> and S is the upper half of the sphere Evaluate   , where   and S is the upper half of the sphere   , with upward orientation.<div style=padding-top: 35px> , with upward orientation.
Question
Evaluate the surface integral Evaluate the surface integral   for the vector field   where S is part of the cone   between the planes z = 1 and z = 2 with upward orientation.<div style=padding-top: 35px> for the vector field Evaluate the surface integral   for the vector field   where S is part of the cone   between the planes z = 1 and z = 2 with upward orientation.<div style=padding-top: 35px> where S is part of the cone Evaluate the surface integral   for the vector field   where S is part of the cone   between the planes z = 1 and z = 2 with upward orientation.<div style=padding-top: 35px> between the planes z = 1 and z = 2 with upward orientation.
Question
Evaluate the flux of the vector field Evaluate the flux of the vector field   through the plane region with the given orientation as shown below.  <div style=padding-top: 35px> through the plane region with the given orientation as shown below. Evaluate the flux of the vector field   through the plane region with the given orientation as shown below.  <div style=padding-top: 35px>
Question
Evaluate Evaluate   where   and S is the part of the surface   that lies above the rectangle   and has upward orientation.<div style=padding-top: 35px> where Evaluate   where   and S is the part of the surface   that lies above the rectangle   and has upward orientation.<div style=padding-top: 35px> and S is the part of the surface Evaluate   where   and S is the part of the surface   that lies above the rectangle   and has upward orientation.<div style=padding-top: 35px> that lies above the rectangle Evaluate   where   and S is the part of the surface   that lies above the rectangle   and has upward orientation.<div style=padding-top: 35px> and has upward orientation.
Question
Evaluate the surface integral Evaluate the surface integral   , where S is the part of the sphere   that lies above the cone   .<div style=padding-top: 35px> , where S is the part of the sphere Evaluate the surface integral   , where S is the part of the sphere   that lies above the cone   .<div style=padding-top: 35px> that lies above the cone Evaluate the surface integral   , where S is the part of the sphere   that lies above the cone   .<div style=padding-top: 35px> .
Question
Evaluate the surface integral Evaluate the surface integral   , where S is the part of the paraboloid   that lies in front of the plane   .<div style=padding-top: 35px> , where S is the part of the paraboloid Evaluate the surface integral   , where S is the part of the paraboloid   that lies in front of the plane   .<div style=padding-top: 35px> that lies in front of the plane Evaluate the surface integral   , where S is the part of the paraboloid   that lies in front of the plane   .<div style=padding-top: 35px> .
Question
Compute the surface integral Compute the surface integral   if   and S is the piece of the sphere   in the second octant   .<div style=padding-top: 35px> if Compute the surface integral   if   and S is the piece of the sphere   in the second octant   .<div style=padding-top: 35px> and S is the piece of the sphere Compute the surface integral   if   and S is the piece of the sphere   in the second octant   .<div style=padding-top: 35px> in the second octant Compute the surface integral   if   and S is the piece of the sphere   in the second octant   .<div style=padding-top: 35px> .
Question
Consider the top half of the ellipsoid Consider the top half of the ellipsoid   parametrized by   . Find a normal vector N at the point determined by   , and determine if it is upward and/or outward.<div style=padding-top: 35px> parametrized by Consider the top half of the ellipsoid   parametrized by   . Find a normal vector N at the point determined by   , and determine if it is upward and/or outward.<div style=padding-top: 35px> . Find a normal vector N at the point determined by Consider the top half of the ellipsoid   parametrized by   . Find a normal vector N at the point determined by   , and determine if it is upward and/or outward.<div style=padding-top: 35px> , and determine if it is upward and/or outward.
Question
Evaluate the flux of the vector field Evaluate the flux of the vector field   through the plane region with the given orientation as shown below.  <div style=padding-top: 35px> through the plane region with the given orientation as shown below. Evaluate the flux of the vector field   through the plane region with the given orientation as shown below.  <div style=padding-top: 35px>
Question
Evaluate the surface integral Evaluate the surface integral   for the vector field   , where S is the hemisphere   with upward orientation.<div style=padding-top: 35px> for the vector field Evaluate the surface integral   for the vector field   , where S is the hemisphere   with upward orientation.<div style=padding-top: 35px> , where S is the hemisphere Evaluate the surface integral   for the vector field   , where S is the hemisphere   with upward orientation.<div style=padding-top: 35px> with upward orientation.
Question
Find the flux of the vector field Find the flux of the vector field   across the paraboloid given by   with   and upward orientation:<div style=padding-top: 35px> across the paraboloid given by Find the flux of the vector field   across the paraboloid given by   with   and upward orientation:<div style=padding-top: 35px> with Find the flux of the vector field   across the paraboloid given by   with   and upward orientation:<div style=padding-top: 35px> and upward orientation:
Question
Find the z-coordinate of the centroid of the upper hemisphere with uniform density whose equation is given by Find the z-coordinate of the centroid of the upper hemisphere with uniform density whose equation is given by   .<div style=padding-top: 35px> .
Question
Find the mass of the sphere Find the mass of the sphere   whose density at each point is proportional to its distance to the   plane.<div style=padding-top: 35px> whose density at each point is proportional to its distance to the Find the mass of the sphere   whose density at each point is proportional to its distance to the   plane.<div style=padding-top: 35px> plane.
Question
Evaluate Evaluate   , where S is the part of the surface   that lies between the cylinders   and   .<div style=padding-top: 35px> , where S is the part of the surface Evaluate   , where S is the part of the surface   that lies between the cylinders   and   .<div style=padding-top: 35px> that lies between the cylinders Evaluate   , where S is the part of the surface   that lies between the cylinders   and   .<div style=padding-top: 35px> and Evaluate   , where S is the part of the surface   that lies between the cylinders   and   .<div style=padding-top: 35px> .
Question
Evaluate Evaluate   , where   and S is the part of the surface   below the plane   , with upward orientation.<div style=padding-top: 35px> , where Evaluate   , where   and S is the part of the surface   below the plane   , with upward orientation.<div style=padding-top: 35px> and S is the part of the surface Evaluate   , where   and S is the part of the surface   below the plane   , with upward orientation.<div style=padding-top: 35px> below the plane Evaluate   , where   and S is the part of the surface   below the plane   , with upward orientation.<div style=padding-top: 35px> , with upward orientation.
Question
Evaluate the surface integral Evaluate the surface integral   for the vector field   where S is the part of the elliptic paraboloid   that lies below the square   and has downward orientation.<div style=padding-top: 35px> for the vector field Evaluate the surface integral   for the vector field   where S is the part of the elliptic paraboloid   that lies below the square   and has downward orientation.<div style=padding-top: 35px> where S is the part of the elliptic paraboloid Evaluate the surface integral   for the vector field   where S is the part of the elliptic paraboloid   that lies below the square   and has downward orientation.<div style=padding-top: 35px> that lies below the square Evaluate the surface integral   for the vector field   where S is the part of the elliptic paraboloid   that lies below the square   and has downward orientation.<div style=padding-top: 35px> and has downward orientation.
Question
Let <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)   <div style=padding-top: 35px> . Find the curl of F.

A) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)   <div style=padding-top: 35px>
B) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)   <div style=padding-top: 35px>
C) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)   <div style=padding-top: 35px>
D) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)   <div style=padding-top: 35px>
E) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)   <div style=padding-top: 35px>
F) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)   <div style=padding-top: 35px>
G) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)   <div style=padding-top: 35px>
H) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)   <div style=padding-top: 35px>
Question
Find the mass of a thin funnel in the shape of a cone Find the mass of a thin funnel in the shape of a cone   , is its density function is   .<div style=padding-top: 35px> , is its density
function is Find the mass of a thin funnel in the shape of a cone   , is its density function is   .<div style=padding-top: 35px> .
Question
Let <strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)  <div style=padding-top: 35px> . Find the curl of F.

A) <strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)  <div style=padding-top: 35px>
B)<strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)  <div style=padding-top: 35px>
C)<strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)  <div style=padding-top: 35px>
D) <strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)  <div style=padding-top: 35px>
E) <strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)  <div style=padding-top: 35px>
F)<strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)  <div style=padding-top: 35px>
G) <strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)  <div style=padding-top: 35px>
H)<strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)  <div style=padding-top: 35px>
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Deck 13: Vector Calculus
1
Let <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   and let S be the boundary surface of the solid E bounded by <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   , and <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Let   and let S be the boundary surface of the solid E bounded by   , and   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
G
2
Find the flux of Find the flux of   across the surface of the solid bounded by   , and the planes   . across the surface of the solid bounded by Find the flux of   across the surface of the solid bounded by   , and the planes   . , and the planes Find the flux of   across the surface of the solid bounded by   , and the planes   . .
3
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
A
4
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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5
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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6
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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7
Let Let   and let S be the surface of the rectangular box bounded by the planes   , and   . Evaluate the surface integral   . and let S be the surface of the rectangular box bounded by the planes Let   and let S be the surface of the rectangular box bounded by the planes   , and   . Evaluate the surface integral   . , and Let   and let S be the surface of the rectangular box bounded by the planes   , and   . Evaluate the surface integral   . . Evaluate the surface integral Let   and let S be the surface of the rectangular box bounded by the planes   , and   . Evaluate the surface integral   . .
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8
Let Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   . and let S be the boundary surface of the solid Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   . . Evaluate the surface integral Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   . .
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9
Let Let   and let S be the surface of the solid bounded by the spheres   and   . Evaluate the surface integral   . and let S be the surface of the solid bounded by the spheres Let   and let S be the surface of the solid bounded by the spheres   and   . Evaluate the surface integral   . and Let   and let S be the surface of the solid bounded by the spheres   and   . Evaluate the surface integral   . . Evaluate the surface integral Let   and let S be the surface of the solid bounded by the spheres   and   . Evaluate the surface integral   . .
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10
Evaluate Evaluate   , where S is the cube bounded by the planes   and   , and n is the outward normal. , where S is the cube bounded by the planes Evaluate   , where S is the cube bounded by the planes   and   , and n is the outward normal. and Evaluate   , where S is the cube bounded by the planes   and   , and n is the outward normal. , and n is the outward normal.
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11
Let Let   and let S be the surface with equation   . Evaluate the surface integral   . and let S be the surface with equation Let   and let S be the surface with equation   . Evaluate the surface integral   . . Evaluate the surface integral Let   and let S be the surface with equation   . Evaluate the surface integral   . .
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12
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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13
Use the Divergence Theorem to evaluate <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   where <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   and S is the surface of the cylinder <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   , bounded by the planes <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   and <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Use the Divergence Theorem to evaluate   where   and S is the surface of the cylinder   , bounded by the planes   and   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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14
Find the flux of Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane. across the surface of the solid bounded by the paraboloid Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane. and the Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane. plane.
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15
Let Let   and let S be the surface of the tetrahedron with vertices   , and   . Evaluate the surface integral   . and let S be the surface of the tetrahedron with vertices Let   and let S be the surface of the tetrahedron with vertices   , and   . Evaluate the surface integral   . , and Let   and let S be the surface of the tetrahedron with vertices   , and   . Evaluate the surface integral   . . Evaluate the surface integral Let   and let S be the surface of the tetrahedron with vertices   , and   . Evaluate the surface integral   . .
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16
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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17
Use the Divergence Theorem to evaluate <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   where <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   and S is the sphere <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Use the Divergence Theorem to evaluate   where   and S is the sphere   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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18
Let <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   and let S be the boundary surface of the solid <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   . Evaluate the surface integral <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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19
Let Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   . and let S be the boundary surface of the solid Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   . . Evaluate the surface integral Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   . .
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20
Evaluate the flux integral Evaluate the flux integral   over the boundary of the ball   . over the boundary of the ball Evaluate the flux integral   over the boundary of the ball   . .
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21
Evaluate Evaluate   , where S is the boundary surface of the solid sphere   and  , where S is the boundary surface of the solid sphere Evaluate   , where S is the boundary surface of the solid sphere   and  and Evaluate   , where S is the boundary surface of the solid sphere   and
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22
Evaluate Evaluate   , where S is the boundary surface of the region outside the sphere   and inside the ball   and   . , where S is the boundary surface of the region outside the sphere Evaluate   , where S is the boundary surface of the region outside the sphere   and inside the ball   and   . and inside the ball Evaluate   , where S is the boundary surface of the region outside the sphere   and inside the ball   and   . and Evaluate   , where S is the boundary surface of the region outside the sphere   and inside the ball   and   . .
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23
Let <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   . Evaluate the line integral <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   along the elliptical path <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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24
Let S be the outwardly-oriented surface of a solid region E where the volume of E is Let S be the outwardly-oriented surface of a solid region E where the volume of E is   . If   and   , evaluate the surface integral   . . If Let S be the outwardly-oriented surface of a solid region E where the volume of E is   . If   and   , evaluate the surface integral   . and Let S be the outwardly-oriented surface of a solid region E where the volume of E is   . If   and   , evaluate the surface integral   . , evaluate the surface integral Let S be the outwardly-oriented surface of a solid region E where the volume of E is   . If   and   , evaluate the surface integral   . .
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25
Use Stokes' Theorem to evaluate <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   where C is the circle <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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26
Evaluate Evaluate   , where   and S is the sphere   . , where Evaluate   , where   and S is the sphere   . and S is the sphere Evaluate   , where   and S is the sphere   . .
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27
Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   where   and S is the part of the paraboloid   that lies inside the cylinder   , oriented upward. where Use Stokes' Theorem to evaluate   where   and S is the part of the paraboloid   that lies inside the cylinder   , oriented upward. and S is the part of the paraboloid Use Stokes' Theorem to evaluate   where   and S is the part of the paraboloid   that lies inside the cylinder   , oriented upward. that lies inside the cylinder Use Stokes' Theorem to evaluate   where   and S is the part of the paraboloid   that lies inside the cylinder   , oriented upward. , oriented upward.
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28
Let <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   . Evaluate the line integral <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   along the elliptical path <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Let   . Evaluate the line integral   along the elliptical path   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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29
Let <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   . Evaluate the line integral <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   along the rectangular path from <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   to <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   to <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   to <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   to <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Let   . Evaluate the line integral   along the rectangular path from   to   to   to   to   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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30
Let <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   . Evaluate <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   over the surface S given by <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   , with downward orientation.

A) <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Let   . Evaluate   over the surface S given by   , with downward orientation.</strong> A)   e.   b.   f.   c.   g.   d.   h.
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31
Find the flux of Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane. across the surface of the solid bounded by the paraboloid Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane. and the Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane. plane.
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32
Evaluate Evaluate   , where   and S is the sphere   . , where Evaluate   , where   and S is the sphere   . and S is the sphere Evaluate   , where   and S is the sphere   . .
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33
Find the flux of Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane. across the surface of the solid bounded by the paraboloid Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane. and the Find the flux of   across the surface of the solid bounded by the paraboloid   and the   plane. plane.
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34
Let Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C. . Let C be the rectangular path from Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C. to Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C. to Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C. to Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C. to Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C. . Use Stokes' Theorem to evaluate the line integral Let   . Let C be the rectangular path from   to   to   to   to   . Use Stokes' Theorem to evaluate the line integral   , where T is the unit tangent vector to C. , where T is the unit tangent vector to C.
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35
Find the flux of Find the flux of   across the surface of the solid   . across the surface of the solid Find the flux of   across the surface of the solid   . .
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36
Evaluate Evaluate   , where the path C is the curve of intersection of the paraboloid   with the plane   . , where the path C is the curve of intersection of the paraboloid Evaluate   , where the path C is the curve of intersection of the paraboloid   with the plane   . with the plane Evaluate   , where the path C is the curve of intersection of the paraboloid   with the plane   . .
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37
Let <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   . Evaluate the line integral <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   , where C is the curve of intersection of the paraboloid <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   and the cylinder <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Let   . Evaluate the line integral   , where C is the curve of intersection of the paraboloid   and the cylinder   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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38
Use Stokes' Theorem to evaluate <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   where C is the circle <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   .

A) <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Use Stokes' Theorem to evaluate   where C is the circle   .</strong> A)   e.   b.   f.   c.   g.   d.   h.
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39
Use Stokes' Theorem to evaluate <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   where C is the triangle with vertices <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   , and <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   , oriented counter clockwise as viewed from above.

A) <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   e. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   b. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   f. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   c. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   g. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   d. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.   h. <strong>Use Stokes' Theorem to evaluate   where C is the triangle with vertices   , and   , oriented counter clockwise as viewed from above.</strong> A)   e.   b.   f.   c.   g.   d.   h.
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40
Let Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   . and let S be the boundary surface of the solid Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   . . Evaluate the surface integral Let   and let S be the boundary surface of the solid   . Evaluate the surface integral   . .
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41
A surface has the shape of the cone <strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  between <strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  and <strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  with the density function <strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)  . Find the mass of the surface.

A) <strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)
B) <strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)
C)<strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)

D)<strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)
E)<strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)
F)<strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)
G)<strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)
H)<strong>A surface has the shape of the cone   between   and   with the density function   . Find the mass of the surface.</strong> A)   B)   C)   D)  E)  F)  G)  H)
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42
Consider the surfaces Consider the surfaces   :   , and   :   , and let F be a vector field with continuous partial derivatives everywhere. Why do we know that   ? : Consider the surfaces   :   , and   :   , and let F be a vector field with continuous partial derivatives everywhere. Why do we know that   ? , and Consider the surfaces   :   , and   :   , and let F be a vector field with continuous partial derivatives everywhere. Why do we know that   ? : Consider the surfaces   :   , and   :   , and let F be a vector field with continuous partial derivatives everywhere. Why do we know that   ? , and let F be a vector field with continuous partial derivatives everywhere. Why do we know that Consider the surfaces   :   , and   :   , and let F be a vector field with continuous partial derivatives everywhere. Why do we know that   ? ?
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43
Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   , where C is the triangle with vertices   , and   , oriented counterclockwise as viewed from above. , where C is the triangle with vertices Use Stokes' Theorem to evaluate   , where C is the triangle with vertices   , and   , oriented counterclockwise as viewed from above. , and Use Stokes' Theorem to evaluate   , where C is the triangle with vertices   , and   , oriented counterclockwise as viewed from above. , oriented counterclockwise as viewed from above.
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44
Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   where   and S is the part of the hemisphere   that lies inside the cylinder   , oriented in the direction of the positive x-axis. where Use Stokes' Theorem to evaluate   where   and S is the part of the hemisphere   that lies inside the cylinder   , oriented in the direction of the positive x-axis. and S is the part of the hemisphere Use Stokes' Theorem to evaluate   where   and S is the part of the hemisphere   that lies inside the cylinder   , oriented in the direction of the positive x-axis. that lies inside the cylinder Use Stokes' Theorem to evaluate   where   and S is the part of the hemisphere   that lies inside the cylinder   , oriented in the direction of the positive x-axis. , oriented in the direction of the positive x-axis.
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45
Evaluate the surface integral <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  , where <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  and S is the part of the plane <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)  in the first octant with downward orientation.

A) <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)
B) <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)
C) <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)
D)<strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)
E) <strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)
F)<strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)
G)<strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)
H)<strong>Evaluate the surface integral   , where   and S is the part of the plane   in the first octant with downward orientation.</strong> A)   B)   C)   D)  E)   F)  G)  H)
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46
Evaluate <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   , where <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   and S is the cube bounded by <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)   .

A) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)
B) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)
C)<strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)
D)<strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)
E) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)
F)<strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)
G)<strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)
H) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)   C)  D)  E)   F)  G)  H)
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47
Evaluate the surface integral <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  , where S is that part of the plane <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  that lies above the square with vertices <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  , and <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)  .

A) <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)
B)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)
C) <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)
D)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)
E)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)
F)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)
G)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)
H)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)  C)   D)  E)  F)  G)  H)
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Verify that Stokes' Theorem is true for the vector field Verify that Stokes' Theorem is true for the vector field   and the cone   , oriented upward. and the cone Verify that Stokes' Theorem is true for the vector field   and the cone   , oriented upward. , oriented upward.
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49
Let <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  . Evaluate the surface integral <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  , where S is that part of the plane <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  that lies above the square with vertices <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  , and <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)  and has upward orientation.

A) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)
B) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)
C) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)
D)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)
E)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)
F) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)
G)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)
H)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)   C)   D)  E)  F)   G)  H)
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50
Evaluate <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  where <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  and S is the part of the surface <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  that lies above the <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)  plane and has upward orientation.

A) <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)
B) <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)

C)<strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)
D)<strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)
E)<strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)
F)<strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)
G) <strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)
H)<strong>Evaluate   where   and S is the part of the surface   that lies above the   plane and has upward orientation.</strong> A)   B)    C)  D)  E)  F)  G)   H)
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Let S be the parametric surface Let S be the parametric surface   . Use Stokes' Theorem to evaluate   , where   . . Use Stokes' Theorem to evaluate Let S be the parametric surface   . Use Stokes' Theorem to evaluate   , where   . , where Let S be the parametric surface   . Use Stokes' Theorem to evaluate   , where   . .
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52
Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   , where C is the curve of intersection of the paraboloid   and the cylinder   , oriented counterclockwise as viewed from above. , where C is the curve of intersection of the paraboloid Use Stokes' Theorem to evaluate   , where C is the curve of intersection of the paraboloid   and the cylinder   , oriented counterclockwise as viewed from above. and the cylinder Use Stokes' Theorem to evaluate   , where C is the curve of intersection of the paraboloid   and the cylinder   , oriented counterclockwise as viewed from above. , oriented counterclockwise as viewed from above.
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53
An upper hemisphere is given by <strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)  with the density function <strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)  . Find the mass of the sphere.

A) <strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)
B) <strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)
C)<strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)
D)<strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)
E)<strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)
F)<strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)
G)<strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)
H)<strong>An upper hemisphere is given by   with the density function   . Find the mass of the sphere.</strong> A)   B)   C)  D)  E)  F)  G)  H)
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54
Evaluate the surface integral Evaluate the surface integral   , where S is the triangle with vertices   , and  , where S is the triangle with vertices Evaluate the surface integral   , where S is the triangle with vertices   , and  , and Evaluate the surface integral   , where S is the triangle with vertices   , and
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Let <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   . Evaluate the surface integral <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   , where S is that part of the plane <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   that lies above the square with vertices <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   , and <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)   and has upward orientation.

A) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)
B)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)
C)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)
D) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)
E)<strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)
F) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)
G) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)
H) <strong>Let   . Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   and has upward orientation.</strong> A)   B)  C)  D)   E)  F)   G)   H)
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56
Evaluate the surface integral <strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  , where S is that part of the cylinder <strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  that lies above the square with vertices <strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  , and <strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)  .

A) <strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)
B)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)
C)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)
D)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)
E)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)
F)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)
G)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)
H)<strong>Evaluate the surface integral   , where S is that part of the cylinder   that lies above the square with vertices   , and   .</strong> A)   B)  C)  D)  E)  F)  G)  H)
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57
Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   where   and C is the curve of intersection of the plane   and the cylinder   . where Use Stokes' Theorem to evaluate   where   and C is the curve of intersection of the plane   and the cylinder   . and C is the curve of intersection of the plane Use Stokes' Theorem to evaluate   where   and C is the curve of intersection of the plane   and the cylinder   . and the cylinder Use Stokes' Theorem to evaluate   where   and C is the curve of intersection of the plane   and the cylinder   . .
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58
Evaluate <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  , where <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  and S is the cube bounded by <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)  .

A) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)
B)<strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)
C) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)
D) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)
E) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)
F) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)
G) <strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)
H)<strong>Evaluate   , where   and S is the cube bounded by   .</strong> A)   B)  C)   D)   E)   F)   G)   H)
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59
Evaluate the surface integral <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   , where S is that part of the plane <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   that lies above the square with vertices <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   , and <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)   .

A) <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)
B) <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)
C)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)
D)2
E)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)
F)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)
G)<strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)
H) <strong>Evaluate the surface integral   , where S is that part of the plane   that lies above the square with vertices   , and   .</strong> A)   B)   C)  D)2 E)  F)  G)  H)
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60
Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   where   and C is the triangle with vertices   , and  where Use Stokes' Theorem to evaluate   where   and C is the triangle with vertices   , and  and C is the triangle with vertices Use Stokes' Theorem to evaluate   where   and C is the triangle with vertices   , and  , and Use Stokes' Theorem to evaluate   where   and C is the triangle with vertices   , and
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61
A fluid has density 1500 and velocity field A fluid has density 1500 and velocity field   . Find the rate of flow outward through the sphere   . . Find the rate of flow outward through the sphere A fluid has density 1500 and velocity field   . Find the rate of flow outward through the sphere   . .
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62
Evaluate Evaluate   , where   and S is the upper half of the sphere   , with upward orientation. , where Evaluate   , where   and S is the upper half of the sphere   , with upward orientation. and S is the upper half of the sphere Evaluate   , where   and S is the upper half of the sphere   , with upward orientation. , with upward orientation.
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63
Evaluate the surface integral Evaluate the surface integral   for the vector field   where S is part of the cone   between the planes z = 1 and z = 2 with upward orientation. for the vector field Evaluate the surface integral   for the vector field   where S is part of the cone   between the planes z = 1 and z = 2 with upward orientation. where S is part of the cone Evaluate the surface integral   for the vector field   where S is part of the cone   between the planes z = 1 and z = 2 with upward orientation. between the planes z = 1 and z = 2 with upward orientation.
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64
Evaluate the flux of the vector field Evaluate the flux of the vector field   through the plane region with the given orientation as shown below.  through the plane region with the given orientation as shown below. Evaluate the flux of the vector field   through the plane region with the given orientation as shown below.
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65
Evaluate Evaluate   where   and S is the part of the surface   that lies above the rectangle   and has upward orientation. where Evaluate   where   and S is the part of the surface   that lies above the rectangle   and has upward orientation. and S is the part of the surface Evaluate   where   and S is the part of the surface   that lies above the rectangle   and has upward orientation. that lies above the rectangle Evaluate   where   and S is the part of the surface   that lies above the rectangle   and has upward orientation. and has upward orientation.
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66
Evaluate the surface integral Evaluate the surface integral   , where S is the part of the sphere   that lies above the cone   . , where S is the part of the sphere Evaluate the surface integral   , where S is the part of the sphere   that lies above the cone   . that lies above the cone Evaluate the surface integral   , where S is the part of the sphere   that lies above the cone   . .
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67
Evaluate the surface integral Evaluate the surface integral   , where S is the part of the paraboloid   that lies in front of the plane   . , where S is the part of the paraboloid Evaluate the surface integral   , where S is the part of the paraboloid   that lies in front of the plane   . that lies in front of the plane Evaluate the surface integral   , where S is the part of the paraboloid   that lies in front of the plane   . .
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68
Compute the surface integral Compute the surface integral   if   and S is the piece of the sphere   in the second octant   . if Compute the surface integral   if   and S is the piece of the sphere   in the second octant   . and S is the piece of the sphere Compute the surface integral   if   and S is the piece of the sphere   in the second octant   . in the second octant Compute the surface integral   if   and S is the piece of the sphere   in the second octant   . .
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69
Consider the top half of the ellipsoid Consider the top half of the ellipsoid   parametrized by   . Find a normal vector N at the point determined by   , and determine if it is upward and/or outward. parametrized by Consider the top half of the ellipsoid   parametrized by   . Find a normal vector N at the point determined by   , and determine if it is upward and/or outward. . Find a normal vector N at the point determined by Consider the top half of the ellipsoid   parametrized by   . Find a normal vector N at the point determined by   , and determine if it is upward and/or outward. , and determine if it is upward and/or outward.
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70
Evaluate the flux of the vector field Evaluate the flux of the vector field   through the plane region with the given orientation as shown below.  through the plane region with the given orientation as shown below. Evaluate the flux of the vector field   through the plane region with the given orientation as shown below.
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71
Evaluate the surface integral Evaluate the surface integral   for the vector field   , where S is the hemisphere   with upward orientation. for the vector field Evaluate the surface integral   for the vector field   , where S is the hemisphere   with upward orientation. , where S is the hemisphere Evaluate the surface integral   for the vector field   , where S is the hemisphere   with upward orientation. with upward orientation.
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72
Find the flux of the vector field Find the flux of the vector field   across the paraboloid given by   with   and upward orientation: across the paraboloid given by Find the flux of the vector field   across the paraboloid given by   with   and upward orientation: with Find the flux of the vector field   across the paraboloid given by   with   and upward orientation: and upward orientation:
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73
Find the z-coordinate of the centroid of the upper hemisphere with uniform density whose equation is given by Find the z-coordinate of the centroid of the upper hemisphere with uniform density whose equation is given by   . .
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74
Find the mass of the sphere Find the mass of the sphere   whose density at each point is proportional to its distance to the   plane. whose density at each point is proportional to its distance to the Find the mass of the sphere   whose density at each point is proportional to its distance to the   plane. plane.
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75
Evaluate Evaluate   , where S is the part of the surface   that lies between the cylinders   and   . , where S is the part of the surface Evaluate   , where S is the part of the surface   that lies between the cylinders   and   . that lies between the cylinders Evaluate   , where S is the part of the surface   that lies between the cylinders   and   . and Evaluate   , where S is the part of the surface   that lies between the cylinders   and   . .
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76
Evaluate Evaluate   , where   and S is the part of the surface   below the plane   , with upward orientation. , where Evaluate   , where   and S is the part of the surface   below the plane   , with upward orientation. and S is the part of the surface Evaluate   , where   and S is the part of the surface   below the plane   , with upward orientation. below the plane Evaluate   , where   and S is the part of the surface   below the plane   , with upward orientation. , with upward orientation.
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77
Evaluate the surface integral Evaluate the surface integral   for the vector field   where S is the part of the elliptic paraboloid   that lies below the square   and has downward orientation. for the vector field Evaluate the surface integral   for the vector field   where S is the part of the elliptic paraboloid   that lies below the square   and has downward orientation. where S is the part of the elliptic paraboloid Evaluate the surface integral   for the vector field   where S is the part of the elliptic paraboloid   that lies below the square   and has downward orientation. that lies below the square Evaluate the surface integral   for the vector field   where S is the part of the elliptic paraboloid   that lies below the square   and has downward orientation. and has downward orientation.
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78
Let <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)   . Find the curl of F.

A) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)
B) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)
C) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)
D) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)
E) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)
F) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)
G) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)
H) <strong>Let   . Find the curl of F.</strong> A)   B)   C)   D)   E)   F)   G)   H)
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79
Find the mass of a thin funnel in the shape of a cone Find the mass of a thin funnel in the shape of a cone   , is its density function is   . , is its density
function is Find the mass of a thin funnel in the shape of a cone   , is its density function is   . .
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80
Let <strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)  . Find the curl of F.

A) <strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)
B)<strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)
C)<strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)
D) <strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)
E) <strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)
F)<strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)
G) <strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)
H)<strong>Let   . Find the curl of F.</strong> A)   B)  C)  D)   E)   F)  G)   H)
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