a) cartesian
b)cylindrical
c) spherical
a) cartesian b)cylindrical c) spherical - Y Cone, topped by sphere of radius 7 centered at...
(1 point) The region W is the cone shown below. The angle at the vertex is T/3, and the top is flat and at a height of 3V3. 09 Jw dV in the following coordinates (do not reduce the domain of integration by taking advantage of Write the limits of integration for symmetry) (a) Cartesian With a- , and f - e- - o e la Volume Ja Jc Je (b) Cylindrical With a- cz , and f - e-...
(1 point) The region W is the cone shown below. C The angle at the vertex is /2, and the top is flat and at a height of 5 Write the limits of integration for f dV in the following coordinates (do not reduce the domain of integration by taking advantage of symmetry) (a) Cartesian: With a b d and f eb d Volume (b) Cylindrical: With a= b d and f eb ed f d Volume = (c) Spherical:...
(1 point) The region W is the cone shown below. The angle at the vertex is #/3, and the top is flat and at a height of 3v3. Write the limits of integration for wdV in the following coordinates (do not reduce the domain of integration by taking advantage of symmetry): (a) Cartesian: With a = .b = .d = and f = e = Volume = / ddd (b) Cylindrical: With a = CE and f = ddd e...
(1 point) The region W is the cone shown below. The angle at the vertex is 1/2, and the top is flat and at a height of 4. Write the limits of integration for w DV in the following coordinates (do not reduce the domain of integration by taking advantage of symmetry): b = (a) Cartesian: With a = c= er Volume = Sa Se .d = , and f = (b) Cylindrical: With a = he ,d= , and...
The region is a cone, z == ? + ytopped by a sphere of radius 4. Find the limits of integration on the triple integral for the volume of the snowcone using Cartesian, cylindrical, and spherical coordinates and the function to be integrated. For your answers 0 = theta, o =phi, and p = rho. Cartesian V= "SC"}, "plz,y,z2) dz dydz where A B = .D= and p(x, y, z) = E= F= Cylindrical v=L" S "*P10,0,2)dz dr do where...
Can someone help me with this? (1 point) The region W is the cone shown below. The angle at the vertex is 1/2, and the top is flat and at a height of 3. Write the limits of integration for Sw dV in the following coordinates (do not reduce the domain of integration by taking advantage of symmetry): (a) Cartesian: With a = b= C= d= e = and f= Volume = Sa So Sol d d d (b) Cylindrical:...
5a. The solid E lies above the cone z =V3V2 + y and below the sphere cº + y2 + 2 = 9. Completely set up, but DO NOT EVALUATE, the triple integral Ssse (y+z)dV in spherical coordinates. Show appropriate work for obtaining the limits of integration and include a sketch. Your answer should be completely ready to evaluate. (9 points) 5b. Completely set up, but DO NOT EVALUATE, the same triple integral ple (y + x)2V from part (a),...
3. Use spherical coordinates: a) Evaluate IILr2 + ข้า dV where E is the solid region inside the sphere 12 + y2 + ~2-16 and above the cone 3r2 + 3y2 b) Find the centroid of the solid hemisphere of radius a, centered at the origin and lying above the xy- plane 3. Use spherical coordinates: a) Evaluate IILr2 + ข้า dV where E is the solid region inside the sphere 12 + y2 + ~2-16 and above the cone...
Use rectangular, cylindrical and spherical coordinates to set up the triple integrals representing the volume of the region bounded below by the xy plane, bounded above by the sphere with radius and centered at the origin the equation of the sphere is x2 + y2 + z2-R2), and outside the cylinder with the equation (x - 1)2 +y2-1 (5 pts each) Find the volume by solving one of the triple integrals from above.( 5 pts) Total of 20 pts) Use...
1. The region W is the cone shown below. The angle at the vertex is 2π/3, and the top is flat and at a height of 3/√3. Write the limits of integration for ∫WdV in the following coordinates (do not reduce the domain of integration by taking advantage of symmetry): 2. Match each vector field with its graph. I know we are only supposed to post 1 per question however for this one I have 1 part correct, I just...