For the following application exercises, the goal is to evaluate A = ∬ s ( ∇ × F ) ⋅ n d S , where F = 〈 x z , − x z , x y 〉 and S is the upper half of ellipsoid x 2 + y 2 + 8 z 2 = 1 , where z ≥ 0 . 366. Evaluate A using a line integral.
For the following application exercises, the goal is to evaluate A = ∬ s ( ∇ × F ) ⋅ n d S , where F = 〈 x z , − x z , x y 〉 and S is the upper half of ellipsoid x 2 + y 2 + 8 z 2 = 1 , where z ≥ 0 . 366. Evaluate A using a line integral.
For the following application exercises, the goal is to evaluate
A
=
∬
s
(
∇
×
F
)
⋅
n
d
S
, where
F
=
〈
x
z
,
−
x
z
,
x
y
〉
and
S
is the upper half of ellipsoid
x
2
+
y
2
+
8
z
2
=
1
, where
z
≥
0
.
366. Evaluate
A
using a line integral.
With differentiation, one of the major concepts of calculus. Integration involves the calculation of an integral, which is useful to find many quantities such as areas, volumes, and displacement.
Let C be the circle x2 + y? = 52 in the ay-plane taken in the counterclockwise
direction. Suggest a parametrization r(t) for C. Find the integral of x dr
over C. This is an integral of a vector function and the answer is a vector.
pla answer this ASAP,thx
Calculate the vector integral(on hte image below) where,F = x 2i + y 2 j , C : is curve y = 3x ; moving from (0,0) to (2,6)
Use Green's Theorem to evaluate the line integral of the vector field
F = (4x° – 7y)i + (9y' + 7x – 7)j
around the boundary of the parallelogram in the following figure (note the orientation).
(To, 0)
Note that xo = 6 and yo = 7 in the above diagram.
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