Choosing a more convenient surface The goal is to evaluate A = ∬ S ( ∇ × F ) ⋅ n d S , where F = 〈 yz , – xz, xy〉 and S is the surface of the upper half of the ellipsoid x 2 + y 2 + 8 z 2 = 1( z ≥ 0). a. Evaluate a surface integral over a more convenient surface to find the value of A . b. Evaluate A using a line integral.
Choosing a more convenient surface The goal is to evaluate A = ∬ S ( ∇ × F ) ⋅ n d S , where F = 〈 yz , – xz, xy〉 and S is the surface of the upper half of the ellipsoid x 2 + y 2 + 8 z 2 = 1( z ≥ 0). a. Evaluate a surface integral over a more convenient surface to find the value of A . b. Evaluate A using a line integral.
Solution Summary: The author explains the Stokes' Theorem: Let S be an oriented surface in R3 with a piecewise-smooth closed boundary C.
Choosing a more convenient surface The goal is to evaluate
A
=
∬
S
(
∇
×
F
)
⋅
n
d
S
, where F = 〈yz, –xz, xy〉 and S is the surface of the upper half of the ellipsoid x2+ y2 + 8z2 = 1(z ≥ 0).
a. Evaluate a surface integral over a more convenient surface to find the value of A.
b. Evaluate A using a line integral.
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.
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