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# 7 . The solid E is the tetrahedron bounded by the planes x = 0 , y = 0 , z = 0 ,

#7. The solid E is the tetrahedron bounded by the planes x=0,y=0,z=0, and x+y+z=2 with density \rho (x,y,z)=y. Find (a) its mass, (b) center of mass, (c) moment of inertia I_(Z). #8. Evaluate the integral by changing to cylindrical coordinates first \int_(-2)^2\int_0^(\sqrt(4-y^(2)))\int_(\sqrt(x^(2)+y^(2)))^2 xzdzdxdy. #9. Use cylindrical coordinates to find (a) the mass and (b) the center of mass of the solid E bounded by the paraboloid z=4x^(2)+4y^(2) and the plane z=4 if E has constant density \rho =6. #10. Use spherical coordinates to evaluate _(E)(x^(2)+y^(2))dV where E is the solid in the first octant (x>=0,y>=0,z>=0), between the spheres x^(2)+y^(2)+z^(2)=1 and x^(2)+y^(2)+z^(2)=4. #11. Evaluate the integral by changing to spherical coordinates first \int_0^(\sqrt(2))\int_0^(\sqrt(2-y^(2)))\int_(-\sqrt(2-x^(2)-y^(2)))^(\sqrt(2-x^(2)-y^(2))) xydzdxdy. #12.(a) Use cylindrical coordinates to write down inequalities describing the solid inside the sphere x^(2)+y^(2)+z^(2)=16, above the plane z=2(\sqrt(3)).(b) Use cylindrical coordinates to only set up an integral (or integrals) for the volume of the solid. (c) Use spherical coordinates to write down inequalities describing the same solid. (d) Use spherical coordinates to only set up an integral (or integrals) for the volume of the solid. (e) Using either cylindrical or spherical coordinates, find the volume (evaluate an integral).
# 7 . The solid E is the tetrahedron bounded by

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