Learning Outcomes

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The content, assignments, and assessments for Calculus III are aligned to the following learning outcomes. A full list of course learning outcomes can be viewed here: Calculus III Learning Outcomes.

Module 1: Describing curves through parametric equations and polar coordinates

  • Identify parametric equations
  • Apply calculus to parametric equations
  • Understand polar coordinates and their application
  • Determine area and arc length in polar coordinates
  • Distinguish properties of parabolas, ellipses, and hyperbolas

Module 2: Interpret functions of two or three independent variables in multidimensional space

  • Understand vectors and their operations
  • Apply vectors to three-dimensional space
  • Use the dot product
  • Use the cross product
  • Interpret equations of lines and planes in space
  • Distinguish properties of cylinders, ellipsoids, paraboloids, and hyperboloids
  • Convert coordinates between rectangular and nonrectangular coordinates

Module 3: Interpret vector-valued functions to determine the velocity, acceleration, arc length, and curvature of an object’s trajectory

  • Apply vector-valued functions to curves in the plane and in three-dimensional space
  • Apply calculus to vector-valued functions
  • Determine arc length and curvature in space
  • Describe motion in space

Module 4: Develop methods to solve differential equations of functions with several variables

  • Interpret functions of several variables
  • Determine limits and continuity of functions of several variables
  • Calculate the derivatives of functions of several variables
  • Apply tangent planes to three-dimensional surfaces
  • Apply the chain rule to functions of several variables
  • Calculate directional derivatives
  • Identify extrema and critical points for a function of two variables
  • Apply Lagrange multipliers to solve optimization problems

Module 5: Apply integration techniques to functions containing more than one variable and other coordinate systems

  • Calculate double integrals over rectangular regions
  • Apply double integrals to general regions
  • Use double integrals on polar rectangular regions
  • Calculate triple integrals over three-dimensional space
  • Evaluate triple integrals using cylinderical and spherical coordinates
  • Use triple integrals to locate centers of mass and moments of inertia
  • Calculate mutliple integrals using a change of variables

Module 6: Generalize vector fields and its application to Green’s, Stokes’ and the divergence theorems

  • Identify vector fields
  • Calculate line integrals along curves
  • Explain conservative vector fields
  • Apply Green’s theorem
  • Determine divergence and curl for a vector field
  • Interpret surface integrals
  • Use Stokes’ theorem
  • Apply the Divergence theorem

Module 7: Develop methods to solve second-order differential equations

  • Interpret second-order linear equations
  • Solve nonhomogeneous linear equations
  • Apply second-order differential equations to real-world concepts
  • Use power series to solve differential equations