Sample Final Exam - Multivariable Calculus | MATH 2210, Exams of Mathematics

Material Type: Exam; Professor: Bornholdt; Class: MULTIVARI CALCULUS (QI)(H); Subject: Mathematics; University: Utah State University; Term: Fall 2007;

Typology: Exams

Pre 2010

Uploaded on 07/30/2009

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Calculus 2210 - Sample Final Exam:
1) (20) Verify the divergence theorem with F=xi+yj+8k and the closed surface Sis the boundary
of the region bounded above by the paraboloid z= 1 x2y2and bounded below by the xy-plane.
2) (20) Compute the integral
ZC
xyz dx + 2x2z dy +y6dz
where Cis the boundary of the rectangle in the plane z=ywhere 1x1 and 0 y2. The
curve is to be traversed counter-clockwise when viewed from above.
3) (20) Compute the integral
ZC(1 + ysin z)dx + (1 + xsin z)dy + (xy cos z)dz
where Cwhich consists of the straight line from (2,1,π
2) to (0,1,0), followed by the curve r(t) =
tan5ti+ cos4tj+tk, 0 tπ
4.
4) (20) Compute the integral
ZC
eydx + (xsin xz)dy +zdz
where Cconsists of the straight line between the points (1,0,1) and (0,2,0).
5) (20) Compute the flux of F=xzi2yj+ 3xkacross a sphere of radius 2.
6) (30) Find the extreme values of f(x, y) = 2x2+1
3y24x5 on the region 2x2+y232. Classify
any critical points you find.
7) (20) Using the chain rule, show that given any two functions f(u) and g(v) that z=f(x+at) +
g(xat) satifies the wave equation
2z
∂t2a22z
∂x2= 0 .
8) (10) Find the equation of the tangent plane to x2
4+y2+z2
4= 3 at (2,1,2).
9) (20) Find the center of mass (or centroid) of the region above the cone z=x2+y2and below the
sphere x2+y2+z2= 4 where the density is equal to the distance from a point in the region to the
origin (0,0,0).
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Calculus 2210 - Sample Final Exam:

  1. (20) Verify the divergence theorem with F = xi + yj + 8k and the closed surface S is the boundary of the region bounded above by the paraboloid z = 1 − x^2 − y^2 and bounded below by the xy-plane.
  2. (20) Compute the integral (^) ∫ C^ xyz dx^ + 2x

(^2) z dy + y (^6) dz

where C is the boundary of the rectangle in the plane z = y where − 1 ≤ x ≤ 1 and 0 ≤ y ≤ 2. The curve is to be traversed counter-clockwise when viewed from above.

  1. (20) Compute the integral ∫ C^ (1 +^ y^ sin^ z)dx^ + (1 +^ x^ sin^ z)dy^ + (xy^ cos^ z)dz where C which consists of the straight line from (− 2 , − 1 , π 2 ) to (0, 1 , 0), followed by the curve r(t) = tan^5 ti + cos^4 tj + tk, 0 ≤ t ≤ π 4.
  2. (20) Compute the integral (^) ∫ C^ e ydx + (x sin xz)dy + zdz

where C consists of the straight line between the points (1, 0 , 1) and (0, 2 , 0).

  1. (20) Compute the flux of F = xzi − 2 yj + 3xk across a sphere of radius 2.
  2. (30) Find the extreme values of f (x, y) = 2x^2 + 13 y^2 − 4 x − 5 on the region 2x^2 + y^2 ≤ 32. Classify any critical points you find.
  3. (20) Using the chain rule, show that given any two functions f (u) and g(v) that z = f (x + at) + g(x − at) satifies the wave equation ∂^2 z ∂t^2 −^ a

2 ∂^2 z ∂x^2 = 0^.

  1. (10) Find the equation of the tangent plane to x 42 + y^2 + z 42 = 3 at (− 2 , 1 , 2).
  2. (20) Find the center of mass (or centroid) of the region above the cone z = √x^2 + y^2 and below the sphere x^2 + y^2 + z^2 = 4 where the density is equal to the distance from a point in the region to the origin (0, 0 , 0).