Final Examination Questions for Mathematics 206a: Multivariable Calculus, Exams of Mathematics

The final examination questions for mathematics 206a: multivariable calculus, covering topics such as parametrization of curves and surfaces, tangents, integrals, and line integrals.

Typology: Exams

2012/2013

Uploaded on 03/07/2013

parmitaaaaa
parmitaaaaa 🇮🇳

4.2

(111)

173 documents

1 / 7

Toggle sidebar

This page cannot be seen from the preview

Don't miss anything!

bg1
NAME_______________________________________
i___ii___iii___iv___v___vi___vii___viii___ix___x___xi___xii___xiii___ TOTAL _________
December 12, Mathematics 206a Mr. Haines
2003 Multivariable Calculus
Final Examination
(3) I. Let a = (1, 3, 7) , b = (0, 3, 6), and C be the straight line segment connecting a to b. Give
a parametrization for C.
(9) II. Let x(t) = (t, t2, t3) from t = 0 to t = 3 be the parametrization of a curve in 3
.
A. Give an equation of the tangent line to this curve at the point where t = 2.
B. Give the cosine of the angle between x(t) and this tangent line at t = 2.
C. Set up but do not evaluate an integral whose value is the length of this curve.
pf3
pf4
pf5

Partial preview of the text

Download Final Examination Questions for Mathematics 206a: Multivariable Calculus and more Exams Mathematics in PDF only on Docsity!

NAME_______________________________________

i___ii___iii___iv___v___vi___vii___viii___ix___x___xi___xii___xiii___ TOTAL _________

December 12, Mathematics 206a Mr. Haines 2003 Multivariable Calculus Final Examination

(3) I. Let a = (1, 3, 7) , b = (0, 3, 6), and C be the straight line segment connecting a to b. Give a parametrization for C.

(9) II. Let x (t) = (t, t 2 , t 3 ) from t = 0 to t = 3 be the parametrization of a curve in ℜ 3.

A. Give an equation of the tangent line to this curve at the point where t = 2.

B. Give the cosine of the angle between x (t) and this tangent line at t = 2.

C. Set up but do not evaluate an integral whose value is the length of this curve.

(12) III. Give examples of:

A. Equations of two distinct parallel planes in ℜ^3.

B. Parametric equations of two distinct parallel lines in ℜ^4.

C. A non-constant vector field defined on ℜ^3 that is path independent.

D. A quadratic form.

(7) VI. Evaluate the line integral ∫ − +

C

xydx x^2 dy , where C is the boundary of the triangle cut

from the first quadrant by the lines x = 2, y = x, the x-axis, and the y-axis.

(7) VII. Calculate the value of the double integral ∫∫

R

dA , where R is the region whose

boundary is the circle parametrized by x (t) = (2 + 3cos t, 5+ 3 sin t) for 0 ≤ t ≤ 2 π.

(7) VIII. Set up but do not evaluate an iterated integral to compute the volume of the solid

below the surface x^2 + y^2 + z = 3 which lies above the region R which is the right triangle with vertices (0, 0), (0, 2), and (1, 0)

(7) IX. Suppose f ( x , y , z )= x^2 y^3 + xyz − 3 y. Compute the line integral of ∇ f , the gradient

of f along the straight line path connecting (0, 0, 0) to (1, 1, 1).

(7) XII. Evaluate ∫∫ F • n dσ

S

, where F = x i +z 2 j + y 3 k and S is the solid box determined by

the three coordinate planes, the plane x = 2, the plane y = 3, and the plane z = 4.

(7) XIII. State Stokes's Theorem.