Exam 17: Vector Calculus

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Find the work done by F over the curve in the direction of increasing t. -F = 10zi + 2xj + 9yk; C: r(t) = ti + tj + tk, 0 \le t \le 1

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Using Green's Theorem, find the outward flux of F across the closed curve C. -F =( Using Green's Theorem, find the outward flux of F across the closed curve C. -F =(   +   )i + (x - y)j ; C is the rectangle with vertices at (0, 0), ( 3, 0), ( 3, 10), and  + Using Green's Theorem, find the outward flux of F across the closed curve C. -F =(   +   )i + (x - y)j ; C is the rectangle with vertices at (0, 0), ( 3, 0), ( 3, 10), and  )i + (x - y)j ; C is the rectangle with vertices at (0, 0), ( 3, 0), ( 3, 10), and Using Green's Theorem, find the outward flux of F across the closed curve C. -F =(   +   )i + (x - y)j ; C is the rectangle with vertices at (0, 0), ( 3, 0), ( 3, 10), and

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Calculate the area of the surface S. -S is the portion of the paraboloid z = 3 Calculate the area of the surface S. -S is the portion of the paraboloid z = 3   + 3   that lies between z = 3 and z = 4. + 3 Calculate the area of the surface S. -S is the portion of the paraboloid z = 3   + 3   that lies between z = 3 and z = 4. that lies between z = 3 and z = 4.

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Using Green's Theorem, calculate the area of the indicated region. -The area bounded above by y = 3 Using Green's Theorem, calculate the area of the indicated region. -The area bounded above by y = 3   and below by y = 5  and below by y = 5 Using Green's Theorem, calculate the area of the indicated region. -The area bounded above by y = 3   and below by y = 5

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Find the flux of the curl of field F through the shell S. -F = -5 Find the flux of the curl of field F through the shell S. -F = -5   yi + 5x   j +   k; S is the portion of the paraboloid 2 -   -   = z that lies above the  yi + 5x Find the flux of the curl of field F through the shell S. -F = -5   yi + 5x   j +   k; S is the portion of the paraboloid 2 -   -   = z that lies above the  j + Find the flux of the curl of field F through the shell S. -F = -5   yi + 5x   j +   k; S is the portion of the paraboloid 2 -   -   = z that lies above the  k; S is the portion of the paraboloid 2 - Find the flux of the curl of field F through the shell S. -F = -5   yi + 5x   j +   k; S is the portion of the paraboloid 2 -   -   = z that lies above the  - Find the flux of the curl of field F through the shell S. -F = -5   yi + 5x   j +   k; S is the portion of the paraboloid 2 -   -   = z that lies above the  = z that lies above the Find the flux of the curl of field F through the shell S. -F = -5   yi + 5x   j +   k; S is the portion of the paraboloid 2 -   -   = z that lies above the

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Find the mass of the wire that lies along the curve r and has density δ. -r(t) =  Find the mass of the wire that lies along the curve r and has density δ. -r(t) =   i + 7tj, 0  \le  t  \le  1;   = 3t i + 7tj, 0 \le t \le 1;  Find the mass of the wire that lies along the curve r and has density δ. -r(t) =   i + 7tj, 0  \le  t  \le  1;   = 3t = 3t

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Using Green's Theorem, compute the counterclockwise circulation of F around the closed curve C. -F = -  Using Green's Theorem, compute the counterclockwise circulation of F around the closed curve C. -F = -   i; C is the region defined by the polar coordinate inequalities 1  \le  r  \le 4 and   i; C is the region defined by the polar coordinate inequalities 1 \le r \le 4 and  Using Green's Theorem, compute the counterclockwise circulation of F around the closed curve C. -F = -   i; C is the region defined by the polar coordinate inequalities 1  \le  r  \le 4 and

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Evaluate the surface integral of the function g over the surface S. -G(x,y,z) = x2 + y2 + z2 ; S is the surface of the cube formed from the coordinate planes and the planes x =2 , y = 2 and z = 2 .

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Solve the problem. -The shape and density of a thin shell are indicated below. Find the coordinates of the center of mass. Shell: portion of the sphere Solve the problem. -The shape and density of a thin shell are indicated below. Find the coordinates of the center of mass. Shell: portion of the sphere   +   +   = 9 that lies in the first octant Density: constant + Solve the problem. -The shape and density of a thin shell are indicated below. Find the coordinates of the center of mass. Shell: portion of the sphere   +   +   = 9 that lies in the first octant Density: constant + Solve the problem. -The shape and density of a thin shell are indicated below. Find the coordinates of the center of mass. Shell: portion of the sphere   +   +   = 9 that lies in the first octant Density: constant = 9 that lies in the first octant Density: constant

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Find the flux of the vector field F across the surface S in the indicated direction. -Find the flux of the vector field F across the surface S in the indicated direction. -  S is the portion of the parabolic cylinder y =  2x<sup>2</sup>  for which 0 ≤ z ≤  3 and -2 ≤ x ≤  2; direction is outward (away from the y-z plane)  S is the portion of the parabolic cylinder y = 2x2 for which 0 ≤ z ≤ 3 and -2 ≤ x ≤ 2; direction is outward (away from the y-z plane)

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Calculate the circulation of the field F around the closed curve C. -F = (-x - y)i + (x + y)j , curve C is the counterclockwise path around the circle with radius 2 centered at (2,1)

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Evaluate the line integral along the curve C. -Evaluate the line integral along the curve C. -

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Evaluate the surface integral of G over the surface S. -S is the plane x + y + z = 2 above the rectangle 0 \le x \le 3 and 0 \le y \le 3; G(x,y,z) = 3z

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Calculate the area of the surface S. -S is the cap cut from the paraboloid z = Calculate the area of the surface S. -S is the cap cut from the paraboloid z =   - 9   - 9   by the cone z =   . - 9 Calculate the area of the surface S. -S is the cap cut from the paraboloid z =   - 9   - 9   by the cone z =   . - 9 Calculate the area of the surface S. -S is the cap cut from the paraboloid z =   - 9   - 9   by the cone z =   . by the cone z = Calculate the area of the surface S. -S is the cap cut from the paraboloid z =   - 9   - 9   by the cone z =   . .

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Find the work done by F over the curve in the direction of increasing t. -F = -8yi + 8xj + 3  Find the work done by F over the curve in the direction of increasing t. -F = -8yi + 8xj + 3   k; C: r(t) = cos ti + sin tj, 0  \le  t  \le  6 k; C: r(t) = cos ti + sin tj, 0 \le t \le 6

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Using the Divergence Theorem, find the outward flux of F across the boundary of the region D. -F = sin yi + xzj + 3zk ; D: the thick sphere 4 \le  Using the Divergence Theorem, find the outward flux of F across the boundary of the region D. -F = sin yi + xzj + 3zk ; D: the thick sphere 4  \le    +   +   \le  9 +  Using the Divergence Theorem, find the outward flux of F across the boundary of the region D. -F = sin yi + xzj + 3zk ; D: the thick sphere 4  \le    +   +   \le  9 +  Using the Divergence Theorem, find the outward flux of F across the boundary of the region D. -F = sin yi + xzj + 3zk ; D: the thick sphere 4  \le    +   +   \le  9 \le 9

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Using Green's Theorem, find the outward flux of F across the closed curve C. -F = - Using Green's Theorem, find the outward flux of F across the closed curve C. -F = -   i ; C is the region defined by the polar coordinate inequalities   and  i ; C is the region defined by the polar coordinate inequalities Using Green's Theorem, find the outward flux of F across the closed curve C. -F = -   i ; C is the region defined by the polar coordinate inequalities   and  and Using Green's Theorem, find the outward flux of F across the closed curve C. -F = -   i ; C is the region defined by the polar coordinate inequalities   and

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Find the surface area of the surface S. -S is the portion of the paraboloid z = 49 -  Find the surface area of the surface S. -S is the portion of the paraboloid z = 49 -   -   that lies above the ring 1  \le    +    \le  36 in the   -  Find the surface area of the surface S. -S is the portion of the paraboloid z = 49 -   -   that lies above the ring 1  \le    +    \le  36 in the   that lies above the ring 1 \le  Find the surface area of the surface S. -S is the portion of the paraboloid z = 49 -   -   that lies above the ring 1  \le    +    \le  36 in the   +  Find the surface area of the surface S. -S is the portion of the paraboloid z = 49 -   -   that lies above the ring 1  \le    +    \le  36 in the   \le 36 in the  Find the surface area of the surface S. -S is the portion of the paraboloid z = 49 -   -   that lies above the ring 1  \le    +    \le  36 in the

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Using the Divergence Theorem, find the outward flux of F across the boundary of the region D. -F = 9x Using the Divergence Theorem, find the outward flux of F across the boundary of the region D. -F = 9x   i + 10yj - 3   k; D: the solid wedge cut from the first quadrant by the plane   and the elliptic cylinder   + 49   = 196 i + 10yj - 3 Using the Divergence Theorem, find the outward flux of F across the boundary of the region D. -F = 9x   i + 10yj - 3   k; D: the solid wedge cut from the first quadrant by the plane   and the elliptic cylinder   + 49   = 196 k; D: the solid wedge cut from the first quadrant by the plane Using the Divergence Theorem, find the outward flux of F across the boundary of the region D. -F = 9x   i + 10yj - 3   k; D: the solid wedge cut from the first quadrant by the plane   and the elliptic cylinder   + 49   = 196 and the elliptic cylinder Using the Divergence Theorem, find the outward flux of F across the boundary of the region D. -F = 9x   i + 10yj - 3   k; D: the solid wedge cut from the first quadrant by the plane   and the elliptic cylinder   + 49   = 196 + 49 Using the Divergence Theorem, find the outward flux of F across the boundary of the region D. -F = 9x   i + 10yj - 3   k; D: the solid wedge cut from the first quadrant by the plane   and the elliptic cylinder   + 49   = 196 = 196

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Find the gradient field F of the function f. -f(x, y, z) = Find the gradient field F of the function f.         -f(x, y, z) =

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