The three-variable analog of the formula derived in part (b) of Exercise 43 is ∂ x , y , z ∂ u , υ , w ⋅ ∂ u , υ , w ∂ x , y , z = 1 Use this result to show that the volume V of the oblique parallelepiped that is bounded by the planes x + y + 2 z = ± 3 , x − 2 y + z = ± 2 , 4 x + y + z = ± 6 is V = 16.
The three-variable analog of the formula derived in part (b) of Exercise 43 is ∂ x , y , z ∂ u , υ , w ⋅ ∂ u , υ , w ∂ x , y , z = 1 Use this result to show that the volume V of the oblique parallelepiped that is bounded by the planes x + y + 2 z = ± 3 , x − 2 y + z = ± 2 , 4 x + y + z = ± 6 is V = 16.
The three-variable analog of the formula derived in part (b) of Exercise 43 is
∂
x
,
y
,
z
∂
u
,
υ
,
w
⋅
∂
u
,
υ
,
w
∂
x
,
y
,
z
=
1
Use this result to show that the volume V of the oblique parallelepiped that is bounded by the planes
x
+
y
+
2
z
=
±
3
,
x
−
2
y
+
z
=
±
2
,
4
x
+
y
+
z
=
±
6
is
V
=
16.
Please help me answer this. Show detailed and complete solution
Please provide Handwritten answer
Determine whether Laplace's equation in two dimensions
a?u a?u
+
əx² ' əy2
Is satisfied by the functions
1
a) и
V(x-a)2+(y-b)2
b) и — In[(x — а)? + (у — b)?]
a, b: constant.
Chapter 14 Solutions
Calculus Early Transcendentals, Binder Ready Version
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