Chapter 12: Q3E (page 749)
Find the Jacobian of the transformation\(\begin{array}{l}x = {e^{ - r}}sin\theta ,\;\;\;\\y = {e^r}cos\theta \end{array}\)
Short Answer
The Jacobian of the transformation is \( - \cos 2\theta \).
Chapter 12: Q3E (page 749)
Find the Jacobian of the transformation\(\begin{array}{l}x = {e^{ - r}}sin\theta ,\;\;\;\\y = {e^r}cos\theta \end{array}\)
The Jacobian of the transformation is \( - \cos 2\theta \).
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Get started for freeUse a graphing device to draw the solid enclosed by the paraboloids \({\rm{z = }}{{\rm{x}}^{\rm{2}}}{\rm{ + }}{{\rm{y}}^{\rm{2}}}\) and \({\rm{z = 5 - }}{{\rm{x}}^{\rm{2}}}{\rm{ - }}{{\rm{y}}^{\rm{2}}}.\)
Evaluate the double integral \(\iint\limits_D {\left( {2x - y} \right)dA}\)D is bounded by the circle with the centre origin and radius 2.
In evaluating a double integral over a region\(D\), sum of iterated integrals was obtained as follows:
\(\int {\int\limits_D {f\left( {x,y} \right)} } dA = \int\limits_0^1 {\int\limits_0^{2y} {f\left( {x,y} \right)} } dxdy + \int\limits_1^3 {\int\limits_0^{2 - y} {f\left( {x,y} \right)dxdy} } \).
Sketch the region\(D\)and express the double integral as an iterated integral with reversed order of integration.
Evaluate\(\iiint_{\text{E}}{\text{z}}\text{dV}\), where \({\rm{E}}\) is enclosed by the paraboloid \({\rm{z = }}{{\rm{x}}^{\rm{2}}}{\rm{ + }}{{\rm{y}}^{\rm{2}}}\) and the plane \({\rm{z = 4}}\). Use cylindrical coordinates.
Find the mass and center of mass of the solid with the given density function \({\rm{q}}\).
\({\rm{E}}\) is the tetrahedron bounded by the planes \({\rm{x = 0,y = 0,}}\)\({\rm{z = 0, x + y = 1; q(x,y,z) = y}}\)
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