WorksheetsVCFT: Cat 2
Total questions: 15
Worksheet time: 27mins
Gauss's theorem of vector calculus connects
volume integral with surface integral
surface integral of divergence of a vector with volm integral of a scalar
surface integral of divergence of a vector with volm integral of the same vector
surface integral of divergence of a vector with volm integral of a different vector
Surface integral of curl of a vector is connected with its line integral through
Green's theorem
Stoke's theorem
Guass's theorem
Laplace's theorem
To move from Green's Theorem to Stoke's Theorem we need to change
from 2 dimensions to 3 dimension
a line integral to a surface integral
the double integral of curlF⋅kcurlF⋅k over a region DD in the plane to a surface integral of curlF⋅ncurlF⋅n over a surface floating in space
the component of the curl to the tangential vector
The surface does not have to be flat inside. True or False
True
False
Does the orientation matter?
Yes
No
When a vector is irrotational, which condition holds good?
a)Stoke’s theorem gives non-zero value
b) Stoke’s theorem gives zero value
c) Divergence theorem is invalid
d) Divergence theorem is valid
The Cartesian coordinates can be related to cylindrical coordinates and spherical coordinates. State True/False.
True
False
Evaluate ∮c(7y−esinx)dx+[15x−sin(y3+8y)]dy where c is the circle with radius 3 centered at (5,-7)
hint: use green's theorem
9 π
π2
72π
can't be calculated
∫ABf .d r is,
Volume integral
Surface integral
Line integral
None of the above
The volume of the parallelepiped formed by the coterminous edges a,b,c is represented by
a×(b×c)
a.(b×c)
a×(b.c)
a.(b.c)
which is called polar coordinate sytem
Rectangular
cylindrical
spherical
none
x=rcosθ, y=rsinθ, z=z, 0<θ<2π
spherical coordinates
cylindrical coordinates
parametric equations
none
Area of a region enclosed by a closed curve C can be computed using the formula
21∫xdy−ydx
21∫xdy+ydx
21∫xdx−ydy
21∫xdx+ydy
