Chapter 12: Q22E (page 708)
Find the volume of the given solid. Under the plane \(z = 1 + {x^2}{y^2}\)and above the region bounded by \(x = {y^2}\)and\(x = 4\)
Short Answer
The volume of the given solid can be:
\(V = \frac{{2336}}{{27}}\).
Chapter 12: Q22E (page 708)
Find the volume of the given solid. Under the plane \(z = 1 + {x^2}{y^2}\)and above the region bounded by \(x = {y^2}\)and\(x = 4\)
The volume of the given solid can be:
\(V = \frac{{2336}}{{27}}\).
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Get started for freeExpress \(D\) as a union of regions of type I (or) type II and evaluate the integral .
Express D as a region of Type 1. And also as a region of type 2. Then evaluate the double integral in 2 ways.
D is enclosed by the lines \(y = x,y = 0,x = 1\)
Calculate the iterated integral.
\(\int {_0^2} \int {_0^4{y^3}{e^{2x}}dydx} \)
Set up, but do not evaluate, integral expressions for
The hemisphere .\({{\text{x}}^{\text{2}}}\text{+}{{\text{y}}^{\text{2}}}\text{+}{{\text{z}}^{\text{2}}}\text{1,z}\approx \text{0; }\!\!\rho\!\!\text{ (x,y,z)=}\sqrt{{{\text{x}}^{\text{2}}}\text{+}{{\text{y}}^{\text{2}}}\text{+}{{\text{z}}^{\text{2}}}}\).
Change from rectangular to cylindrical coordinates .
(a). \({\rm{(2}}\sqrt {\rm{3}} {\rm{,2, - 1)}}\)
(b). \({\rm{(4, - 3,2)}}\)
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