MAC 2313 - Section 03 - Fall 2003
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MONICA K. HURDAL
Teaching


Phone: +1 850 644-7183   
Fax: +1 850 644-4053
E-mail: mhurdal@math.fsu.edu


Test 3 - Review

Related Pages: Course Home Page | Syllabus | Schedule and Homework

As stated in class, you are allowed to bring to the test one 8.5x11 inch page, written on both sides. You can write whatever you want on this page: eg. definitions, formulas, examples, etc. Calculators will be allowed for the test.

Chapter 17 - Parameterization and Vector Fields

  • parameterize lines, circles, curves in general, planes, surfaces
  • motion, velocity and acceleration vectors
  • applications: intersection and collision of particles, length of a curve, velocity, acceleration, uniform circular motion, parameterizations using spherical and cylindrical coordinates, tangent lines
  • visualize/draw vector fields and flow fields
  • types of vector fields: velocity fields, force fields, gravitional fields, gradient vector fields
  • applications: compute gradient vector fields, compute flow lines

    See also Chapter 17 Summary on page 819
    Review Homework for Chapter 17, pg 819: #1-21 all odds, 25

    Chapter 18 - Line Integrals

  • definition
  • properties
  • interpretations: work, circulation
  • compute line intergral over a parameterized curve
  • path-independent fields: gradient fields are path-independent
  • path-independent fields: if a curve is closed and circulation is zero, vector field is path-independent and so is a gradient field
  • determine whether a vector field is path-independent (i.e. same as computing a potential function for a vector field)
  • compute a potential function for a vector field
  • Fundamental Theorem of Calculus for Line Integrals
  • Green's Theorem
  • curl test for path independence

    See also Chapter 18 Summary on page 856
    Review Homework for Chapter 18, pg 857: #1-23 all odds

    Chapter 19 - Flux Integrals

  • definition
  • interpretation (rate fluid flows through a surface)
  • calculate flux through a surface given by z=f(x,y), through a cylindrical surface, through a spherical surface, through a parameterized surface
  • area of a parameterized surface

    See also Chapter 19 Summary on page 882
    Review Homework for Chapter 19, pg 882: #1-23 all odds


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    Copyright 2003 by Monica K. Hurdal. All rights reserved.