Find the flux of ->F (x, y, z) =〈4x, 3z + x^2, (y^2)/2> across the positively oriented surface S given by ->R(u, v) = 〈2u, 4v, −u^2〉, 1 ≤ u^2 + v^2 ≤ 4,
Find the mass of the lamina in the shape of the portion of the plane with equation 4x + 8y + z = 8 in the first octant if the area density at any point (x, y, z) on the plane is δ(x, y, z) = 6x + 12y + z g/cm^2.
Find the work done in moving a particle along a curve from point A(1, 0, −1) to B(2, 2, −3) via the conservative force field ~F (x, y, z) = 〈2y3 − 6xz, 6xy2 − 4y, 4 − 3x2〉.
(a) using the Fundamental Theorem for Line Integrals;
(b) by explicitly evaluating a line integral along the curve consisting of the line segment from A to P (1, 2, −1) followed by the line segment from P to B.
Find the centroid for the region bounded by y=3−e-X, the x−axis, x=2, and the y−axis.
Decompose (x^2+x+1)/((x+3)(x^2-x+1))
Determine the area of the region bounded by x = y²-y-6 and x = 2y +4.
Determine the area of the region bounded by x = y²-y-6 and x = 2y +4.
Determine the area to the left of g(y) = 3-y2 and to the right of x = -1
Find the area of f(x) = 3+2x-x² above the x-axis.
Find the area, take the elements of the area parallel to the x-axis. y= 2x³-3x³-9x; y=x²-2x²-3x.