Table of Contents

Static Vector Fields

The Static Vector Field Paradigm continues the discussion of E&M from the Symmetries & Idealizations Paradigm, focusing on electric fields, magnetic fields, and the magnetic vector potential. This course uses a variety of pedagogical techniques (small group activities, computer visualization, kinesthetic activities, and lecture/discussion) to help students build a multifaceted understanding of these ideas. This course emphasizes extending the integral versions of Maxwell's equations (learned in introductory physics) to the local, differential versions; visualizing vector-valued functions in three dimensions using the computer algebra software Maple; and extending the techniques of vector calculus from rectangular to cylindrical and spherical coordinates. (Catalog Description)

Course Goals

Sample Syllabus

Fall 2008

Textbook: The Geometry of Vector Calculus—-an introduction to vector calculus, with applications to electromagnetism. One of the Tables of Contents for this online interactive textbook has been specifically designed for this course.

Course Contents

Unit: Gauss's Law

Flux (20-50 minutes)

Gauss's Law (120 minutes)

Divergence (40 min)

Divergence Theorem (20 min)

  • Reading: GVC § Divergence Theorem
  • Derivation of the Divergence Theorem (lecture). We follow “div, grad, curl and all that”, by Schey. The Divergence theorem is almost a lemma based on the definition of divergence. Draw a diagram of an arbitrary volume divided into lots of little cubes. Calculate the sum of all the fluxes out of all the little cubes (isn't this a strange sum to consider!!) and argue that the flux out of one cube is the flux into the adjacent cube unless the cube is on the boundary.

Differential Form of Gauss's Law (10 min)

Unit: Current, Magnetic Vector Potential, and Magnetic Field

Current

Vector Potentials (Optional)

Magnetic Fields

Unit: Ampère's Law

Ampère's Law

Curl

Stokes' Theorem

Differential Form of Ampère's Law

  • Stokes' Theorem (lecture) (Math 3.12: Stokes' Theorem)
  • Differential Form of Ampère's Law: Maxwell Eq. 2 & 4 $\Vec{\nabla } \times \Vec{E} = 0$, $\Vec{\nabla } \times \Vec{B} = \mu_0 \Vec{J}$(lecture) (Physics 41: Differential Form of Ampère's Law)

Unit: Conductors

Step & Delta Functions (1 hr)

Conductors (1 hr)

Boundary Conditions

Unit: Conservative Fields

Conservative Fields

Second Derivatives

Unit: Energy

Product Rules

Energy for Continuous Distributions

Activities Included