Exam 16: Vector Calculus

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Show that F is conservative, and find a function f such that Show that F is conservative, and find a function f such that   , and use the result to evaluate   , where C is any curve from   to   .   ;   and  , and use the result to evaluate Show that F is conservative, and find a function f such that   , and use the result to evaluate   , where C is any curve from   to   .   ;   and  , where C is any curve from Show that F is conservative, and find a function f such that   , and use the result to evaluate   , where C is any curve from   to   .   ;   and  to Show that F is conservative, and find a function f such that   , and use the result to evaluate   , where C is any curve from   to   .   ;   and  . Show that F is conservative, and find a function f such that   , and use the result to evaluate   , where C is any curve from   to   .   ;   and  ; Show that F is conservative, and find a function f such that   , and use the result to evaluate   , where C is any curve from   to   .   ;   and  and Show that F is conservative, and find a function f such that   , and use the result to evaluate   , where C is any curve from   to   .   ;   and

(Multiple Choice)
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Find the divergence of the vector field. Find the divergence of the vector field.

(Essay)
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A particle starts at the point A particle starts at the point   , moves along the x-axis to (3, 0) and then along the semicircle   to the starting point. Use Green's Theorem to find the work done on this particle by the force field  , moves along the x-axis to (3, 0) and then along the semicircle A particle starts at the point   , moves along the x-axis to (3, 0) and then along the semicircle   to the starting point. Use Green's Theorem to find the work done on this particle by the force field  to the starting point. Use Green's Theorem to find the work done on this particle by the force field A particle starts at the point   , moves along the x-axis to (3, 0) and then along the semicircle   to the starting point. Use Green's Theorem to find the work done on this particle by the force field

(Multiple Choice)
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Evaluate Evaluate   , that is, find the flux of F across S.   ; S is the hemisphere   ; n points upward. , that is, find the flux of F across S. Evaluate   , that is, find the flux of F across S.   ; S is the hemisphere   ; n points upward. ; S is the hemisphere Evaluate   , that is, find the flux of F across S.   ; S is the hemisphere   ; n points upward. ; n points upward.

(Multiple Choice)
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Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   .   ; S is the part of the ellipsoid   lying above the xy-plane and oriented with normal pointing upward. . Use Stokes' Theorem to evaluate   .   ; S is the part of the ellipsoid   lying above the xy-plane and oriented with normal pointing upward. ; S is the part of the ellipsoid Use Stokes' Theorem to evaluate   .   ; S is the part of the ellipsoid   lying above the xy-plane and oriented with normal pointing upward. lying above the xy-plane and oriented with normal pointing upward.

(Short Answer)
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Evaluate Evaluate   , that is, find the flux of F across S.   ; S is the part of the paraboloid   between the planes z = 0 and z = 5; n points upward. , that is, find the flux of F across S. Evaluate   , that is, find the flux of F across S.   ; S is the part of the paraboloid   between the planes z = 0 and z = 5; n points upward. ; S is the part of the paraboloid Evaluate   , that is, find the flux of F across S.   ; S is the part of the paraboloid   between the planes z = 0 and z = 5; n points upward. between the planes z = 0 and z = 5; n points upward.

(Essay)
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Match the equation with one of the graphs below. Match the equation with one of the graphs below.

(Multiple Choice)
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Find the area of the surface S where S is the part of the surface Find the area of the surface S where S is the part of the surface   that lies inside the cylinder  that lies inside the cylinder Find the area of the surface S where S is the part of the surface   that lies inside the cylinder

(Essay)
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Evaluate Evaluate   for the vector field F and the path C. (Hint: Show that F is conservative, and pick a simpler path.)   C:  for the vector field F and the path C. (Hint: Show that F is conservative, and pick a simpler path.) Evaluate   for the vector field F and the path C. (Hint: Show that F is conservative, and pick a simpler path.)   C:  C: Evaluate   for the vector field F and the path C. (Hint: Show that F is conservative, and pick a simpler path.)   C:

(Multiple Choice)
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Find the mass of the surface S having the given mass density. S is the hemisphere Find the mass of the surface S having the given mass density. S is the hemisphere   ,   ; the density at a point P on S is equal to the distance between P and the xy-plane. , Find the mass of the surface S having the given mass density. S is the hemisphere   ,   ; the density at a point P on S is equal to the distance between P and the xy-plane. ; the density at a point P on S is equal to the distance between P and the xy-plane.

(Multiple Choice)
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The plot of a vector field is shown below. A particle is moved The plot of a vector field is shown below. A particle is moved         . By inspection, determine whether the work done by F on the particle is positive, negative, or zero.  The plot of a vector field is shown below. A particle is moved         . By inspection, determine whether the work done by F on the particle is positive, negative, or zero.  The plot of a vector field is shown below. A particle is moved         . By inspection, determine whether the work done by F on the particle is positive, negative, or zero.  The plot of a vector field is shown below. A particle is moved         . By inspection, determine whether the work done by F on the particle is positive, negative, or zero.  . By inspection, determine whether the work done by F on the particle is positive, negative, or zero. The plot of a vector field is shown below. A particle is moved         . By inspection, determine whether the work done by F on the particle is positive, negative, or zero.

(Short Answer)
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Determine whether or not vector field is conservative. If it is conservative, find a function f such that Determine whether or not vector field is conservative. If it is conservative, find a function f such that    Determine whether or not vector field is conservative. If it is conservative, find a function f such that

(Essay)
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Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C. Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   , where C is the boundary of the region bounded by the parabolas   and   . , where C is the boundary of the region bounded by the parabolas Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   , where C is the boundary of the region bounded by the parabolas   and   . and Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   , where C is the boundary of the region bounded by the parabolas   and   . .

(Multiple Choice)
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Find the work done by the force field F on a particle that moves along the curve C. Find the work done by the force field F on a particle that moves along the curve C.   ;   ,  ; Find the work done by the force field F on a particle that moves along the curve C.   ;   ,  , Find the work done by the force field F on a particle that moves along the curve C.   ;   ,

(Multiple Choice)
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Find the area of the surface. The part of the paraboloid Find the area of the surface. The part of the paraboloid   ;   ,  ; Find the area of the surface. The part of the paraboloid   ;   ,  , Find the area of the surface. The part of the paraboloid   ;   ,

(Multiple Choice)
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Evaluate the line integral. Evaluate the line integral.

(Essay)
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Use Stokes' Theorem to evaluate Use Stokes' Theorem to evaluate   .   ; C is the boundary of the triangle with vertices   ,   , and   oriented in a counterclockwise direction when viewed from above . Use Stokes' Theorem to evaluate   .   ; C is the boundary of the triangle with vertices   ,   , and   oriented in a counterclockwise direction when viewed from above ; C is the boundary of the triangle with vertices Use Stokes' Theorem to evaluate   .   ; C is the boundary of the triangle with vertices   ,   , and   oriented in a counterclockwise direction when viewed from above , Use Stokes' Theorem to evaluate   .   ; C is the boundary of the triangle with vertices   ,   , and   oriented in a counterclockwise direction when viewed from above , and Use Stokes' Theorem to evaluate   .   ; C is the boundary of the triangle with vertices   ,   , and   oriented in a counterclockwise direction when viewed from above oriented in a counterclockwise direction when viewed from above

(Short Answer)
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Find an equation in rectangular coordinates, and then identify the surface. Find an equation in rectangular coordinates, and then identify the surface.

(Essay)
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Find the div F if Find the div F if   . .

(Essay)
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Assuming that S satisfies the conditions of the Divergence Theorem and the scalar functions and components of the vector fields have continuous second order partial derivatives, find Assuming that S satisfies the conditions of the Divergence Theorem and the scalar functions and components of the vector fields have continuous second order partial derivatives, find   , where a is the constant vector. , where a is the constant vector.

(Multiple Choice)
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