video J1: An Introduction to Gauss's Law.  This video explains the basics behind Gauss's Law. 

video J intro 1: An Introduction to Electric Flux (part 1)

video J intro 2: An Introduction to Electric Flux (part 2)

video J3: Finding the Electric Field for a Uniormly Charged Solid Wooden Sphere.  It doesn't have to be made out of wood.  It can be any insulating material.

video J4:  Conductors in Electrostatic Equilibrium
video J5: Gauss's Law and Concentric Spherical Shells
video J6: Gauss's Law and Concentric Spherical Shells (part 2)
video J7: Gauss's Law and Co-Axial Cables
video J8: Gauss's Law and Co-Axial Cables (part 2)
video J9: Gauss's Law and the Electric Field Due to a Very Long and Wide Slab of Charge.
video J10: Gauss's Law and the Electric Field Due to a Very Long and Wide Plane of Charge.
video J11: Gauss's Law and a the Electric Field Due to a Non-Uniformly Distributed Spherical Charge Density
video J12: Gauss's Law and the Electric Field Due to a Non-Uniformly... (part 2)
video J13: Gauss's Law and the Electric Field Due to a Non-Uniformly Charged Cylindrical Insulator.
video J14: Gauss's Law and the Electric Field Due to a Non-Uniformly Charged Cylindrical Insulator (part 2)

video J2: Gauss's Law (part 2).  This video explains how to use Gauss's law to find the electric field due a very long uniformly charged wire.

K.   Electric Potential

video K1: The electric potential energy of a system of 2 charges
video K2: Potential, Potential Difference, and Voltage
video K3: Potential Difference as a Path Integral
video K4: Potential Difference as a Path Integral (part 2)
video K5: Accelerating a Positive Charge, Q, From a Positively Charged Plate to a Negatively Charged Plate
video K6: Conductors in Electrostatic Equilibrium (Revisited)
video K7: Conductors in Electrostatic Equilibrium (Revisited... part 2)
video K8: Review for Unit K (part 1)  You might want to pause the video each time a question is asked and try to get the answer on your own.

N.   Decay and Growth in Physics  (RC Circuits)*

video N1: RC circuits - Getting a Conceptual Grasp for RC Circuits
video N2: Discharging a Capacitor in an RC Circuit (The Mathematics)
video N3: Charging a Capacitor in an RC Circuit (The Mathematics)
video N4: Time Constants for RC Circuits
video N5: Review of Unit N (part 2)  If you are wondering where part 1 is, this unit is both air resistance and RC circuits so part 1 in the air resistance unit in mechanics.  There is a little air-resistance physics at the beginning of this one as well.  You might want to pause the video each time a question is asked and try to get the answer on your own.
video N6: Review of Unit N (part 2)

O.   Magnetic Fields

video O1: Force on a Charged Particle in a Magnetic Field.  There is a review of the right-hand rule here. 
video O2: Force of a Charged Particle in a Magnetic Field (part 2)
video O3: Force on a Charged Particle in a Magnetic Field (part 3)
video O4: Charged Particle Moving in a Straight-Line Through Both and Electric Field, E, and a Magnetic Field, B.
video O5: Force on a Current-Carrying Wire in a Magnetic Field.  This video also includes the torque on a current-carrying loop positioned in a magnetic field.
video O6: Unit O Review (part 1). You might want to pause the video each time a question is asked and try to get the answer on your own.
video O7:  Unit O Review (part 2). 
video O8:  Unit O Review (part 3). 
video 09: Unit O Review (part 4). 

P.    Sources of Magnetic Fields

video P1:  The Direction of the Magentic Field Created by a Current-Carrying Wire and the Direction of the Magnetic Field Created by a Moving Charge
video P2:  Calculating the Magnetic Field Strength Created by a Moving Charge
video P3:  The Law of Biot-Savart or Calculating the Magnetic Field Strength due to an Infinitesimally Small Current-Carrying Segment of Wire.
video P4: An Application of the Law of Biot-Savart
video P5:  An Introduction to Ampere's Law (part 1).  Uses an understanding of Gauss's law to introduce Ampere's law.
video P6:  An Introduction to Ampere's Law (part 2).  Finishes the derivation of the equation that gives you the magnetic field strength a distance r away from a current carrying wire.  
video P7:  Applications of Ampere's Law (part 1).  Applies Ampere's law to find the magnetic field strength inside of a wire that has a uniform current density.
video P8:  Applications of Ampere's Law (part 2).  Applies Ampere's law to a co-axial cable.
video P9:  Applications of Ampere's Law (part 3).  Applies Ampere's law to find the magnetic field strength inside a wire that has a non-uniform current density.
video P10: The Magnetic Field Near the Center of a Solenoid (part 1).  Applies Ampere's law to find the equation for the magnetic field strength near the center of a current-carrying solenoid.
video P11: The Magnetic Field Near the Center of a Solenoid (part 2).
video P12: The Magnetic Field Due to Two Wires (Superposition of Magnetic Field Vectors)
video P13:  Force of One Current-Carrying Wire on Another Current-Carrying Wire
video P14:  The Magnetic Field Due to a Toroid
video P15:  The Magnetic Field on the Axis of a Current-Carrying Circular Hoop
video P16:  p. 1 Unit P Review: Sources of Magnetic Fields.  You might want to pause the video each time a question is asked and try to get the answer on your own.
video P17: p. 2 Unit P Review: Sources of Magnetic Fields

Q.   Electromagnetic Induction

video Q1: Magnetic Flux (part 1)  To understand electromagnetic induction you will need to understand magnetic flux.  This video describes the flux due to three different types of fields... gravitational fields, electric fields, and magnetic fields.

video Q2: Magnetic Flux (part 2)

video Q3: Calculating the Magnetic Flux for a Non-Uniform Magnetic Field

video Q4: Faraday's Law Basics (part 1)

video Q5: Faraday's Law Basics (part 2)

video Q6: Faraday's Law Basics (part 3)

video Q7: Lenz's Law: Finding the Direction of Induced Current (part1)

video Q8: Lenz's Law (part 2)