Surface integrals of vector fields Find the flux of the following vector fields across the given surface with the specified orientation. You may use either an explicit or parametric description of the surface . 46. F = 〈 e – y , 2 z , xy 〉 across the curved sides of the surface S = { ( x , y , z ) : z = cos y , | y | ≤ π , 0 ≤ x ≤ 4 } ; normal vectors point upward.
Surface integrals of vector fields Find the flux of the following vector fields across the given surface with the specified orientation. You may use either an explicit or parametric description of the surface . 46. F = 〈 e – y , 2 z , xy 〉 across the curved sides of the surface S = { ( x , y , z ) : z = cos y , | y | ≤ π , 0 ≤ x ≤ 4 } ; normal vectors point upward.
Surface integrals of vector fieldsFind the flux of the following vector fields across the given surface with the specified orientation. You may use either an explicit or parametric description of the surface.
46.F = 〈e–y, 2z, xy〉 across the curved sides of the surface
S
=
{
(
x
,
y
,
z
)
:
z
=
cos
y
,
|
y
|
≤
π
,
0
≤
x
≤
4
}
; normal vectors point upward.
Quantities that have magnitude and direction but not position. Some examples of vectors are velocity, displacement, acceleration, and force. They are sometimes called Euclidean or spatial vectors.
Find a plane containing the point (3, -3, 1) and the line of intersection of the planes 2x + 3y - 3z = 14
and -3x - y + z = −21.
The equation of the plane is:
Determine whether the lines
L₁ : F(t) = (−2, 3, −1)t + (0,2,-3) and
L2 : ƒ(s) = (2, −3, 1)s + (−10, 17, -8)
intersect. If they do, find the point of intersection.
● They intersect at the point
They are skew lines
They are parallel or equal
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