Deck 13: Extension D: Vector Calculus

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Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C. <strong>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  </strong> A)   + e B)   + e C)   D)   <div style=padding-top: 35px> , where C is the boundary of the region bounded by the parabolas <strong>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  </strong> A)   + e B)   + e C)   D)   <div style=padding-top: 35px> and <strong>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  </strong> A)   + e B)   + e C)   D)   <div style=padding-top: 35px>

A) <strong>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  </strong> A)   + e B)   + e C)   D)   <div style=padding-top: 35px> + e
B) <strong>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  </strong> A)   + e B)   + e C)   D)   <div style=padding-top: 35px> + e
C) <strong>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  </strong> A)   + e B)   + e C)   D)   <div style=padding-top: 35px>
D) <strong>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  </strong> A)   + e B)   + e C)   D)   <div style=padding-top: 35px>
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A particle starts at the point <strong>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  </strong> A) 0 B)   C)   D)   E)   <div style=padding-top: 35px> ,moves along the x-axis to (3,0)and then along the semicircle <strong>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  </strong> A) 0 B)   C)   D)   E)   <div style=padding-top: 35px> to the starting point.Use Green's Theorem to find the work done on this particle by the force field <strong>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  </strong> A) 0 B)   C)   D)   E)   <div style=padding-top: 35px>

A) 0
B) <strong>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  </strong> A) 0 B)   C)   D)   E)   <div style=padding-top: 35px>
C) <strong>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  </strong> A) 0 B)   C)   D)   E)   <div style=padding-top: 35px>
D) <strong>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  </strong> A) 0 B)   C)   D)   E)   <div style=padding-top: 35px>
E) <strong>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  </strong> A) 0 B)   C)   D)   E)   <div style=padding-top: 35px>
Question
Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C. <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)   <div style=padding-top: 35px> ,where C is the triangle with vertices <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)   <div style=padding-top: 35px> , <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)   <div style=padding-top: 35px> ,and <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)   <div style=padding-top: 35px>

A) <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)   <div style=padding-top: 35px>
B) <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)   <div style=padding-top: 35px>
C) <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)   <div style=padding-top: 35px>
D) <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)   <div style=padding-top: 35px>
Question
Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> where A is the area of D. Find the centroid of the triangle with vertices (0,0),( <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> ,0)and (0, <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> ).

A) <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
B) <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
C) <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
D) <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
E) <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
Question
Use Green's Theorem to find the work done by the force Use Green's Theorem to find the work done by the force   in moving a particle from the origin along the x-axis to (1,0)then along the line segment to (0,1)and then back to the origin along the y-axis.<div style=padding-top: 35px> in moving a particle from the origin along the x-axis to (1,0)then along the line segment to (0,1)and then back to the origin along the y-axis.
Question
A plane lamina with constant density <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px> Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>

A) <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
B) <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
C) <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
D) <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
E) <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)   <div style=padding-top: 35px>
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Deck 13: Extension D: Vector Calculus
1
Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C. <strong>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  </strong> A)   + e B)   + e C)   D)   , where C is the boundary of the region bounded by the parabolas <strong>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  </strong> A)   + e B)   + e C)   D)   and <strong>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  </strong> A)   + e B)   + e C)   D)

A) <strong>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  </strong> A)   + e B)   + e C)   D)   + e
B) <strong>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  </strong> A)   + e B)   + e C)   D)   + e
C) <strong>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  </strong> A)   + e B)   + e C)   D)
D) <strong>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  </strong> A)   + e B)   + e C)   D)
2
A particle starts at the point <strong>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  </strong> A) 0 B)   C)   D)   E)   ,moves along the x-axis to (3,0)and then along the semicircle <strong>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  </strong> A) 0 B)   C)   D)   E)   to the starting point.Use Green's Theorem to find the work done on this particle by the force field <strong>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  </strong> A) 0 B)   C)   D)   E)

A) 0
B) <strong>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  </strong> A) 0 B)   C)   D)   E)
C) <strong>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  </strong> A) 0 B)   C)   D)   E)
D) <strong>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  </strong> A) 0 B)   C)   D)   E)
E) <strong>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  </strong> A) 0 B)   C)   D)   E)
3
Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C. <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)   ,where C is the triangle with vertices <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)   , <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)   ,and <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)

A) <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)
B) <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)
C) <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)
D) <strong>Use Green's Theorem to evaluate the line integral along the positively oriented closed curve C.   ,where C is the triangle with vertices   ,   ,and  </strong> A)   B)   C)   D)
4
Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)   where A is the area of D. Find the centroid of the triangle with vertices (0,0),( <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)   ,0)and (0, <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)   ).

A) <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)
B) <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)
C) <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)
D) <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)
E) <strong>Let D be a region bounded by a simple closed path C in the xy.Then the coordinates of the centroid   where A is the area of D. Find the centroid of the triangle with vertices (0,0),(   ,0)and (0,   ).</strong> A)   B)   C)   D)   E)
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5
Use Green's Theorem to find the work done by the force Use Green's Theorem to find the work done by the force   in moving a particle from the origin along the x-axis to (1,0)then along the line segment to (0,1)and then back to the origin along the y-axis. in moving a particle from the origin along the x-axis to (1,0)then along the line segment to (0,1)and then back to the origin along the y-axis.
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6
A plane lamina with constant density <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)

A) <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)
B) <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)
C) <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)
D) <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)
E) <strong>A plane lamina with constant density   occupies a region in the xy-plane bounded by a simple closed path C.Its moments of inertia about the axes are   Find the moments of inertia about the axes,if C is a rectangle with vertices (0,0),(4,0), (4,5)and  </strong> A)   B)   C)   D)   E)
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