Materials; 4th Maxwell equation pending
Magnetic Field Energy pending
Self-inductance; RL circuit The ability of a circuit to fight the electric flux that is produced by the circuit itself.
Levitation Describes the three forms of magnetic levitation: using superconductors, movement, or alternating current.
Aurora Borealis The Auroras are a result of these electrons and protons from the solar wind colliding with the our atmosphere. This causes a breathtaking display of light near the Earth's poles.
Heart The polarization waves of the heart produce an electric field around our body. This can be measure in an ECG.
Maxwell’s addition to Ampère’s law Maxwell suggested that we add a term to Ampere's law, which contains the derivative of the electric flux. This is called the displacement current.
Motional EMF; AC Motors To create an induced EMF, and must change the change in the magnetic flux by either changing the magnetic field in time; changing the area in time, or changing the angle θ in time.
Electromagnetic induction; Faraday’s law A current, therefore an electric field, can be produced by a changing magnetic field. This current wants to oppose the change in the magnetic field.
Ampère’s law Ampère's law relates the magnetic field of a closed loop to the electric current passing through that loop.
Biot-Savart law; Gauss’s law for magnetism The Biot-Savart law describing the magnetic field generated by a constant electric current. Gauss's law for magnetism says that magnetic monopoles do not exist.
Moving charge; Cyclotron A magnetic field changes the direction of a moving charged particle, but it doesn't do work.
Magnets; Charges in motion; Lorenz force The magnetic force acting on a moving charge can be expressed in terms of a magnetic field. Similar to how the electric force can be expressed in terms of an electric field.
Batteries; Kirchhoff’s rules pending
Current; Ohm’s law Ohm's law is the linear relation between the potential and the current.
Capacitors The capacitance of two conductors to store energy only depends on their geometry. Adding a dielectric increases the capacitance.
Energy density Another way to find electrostatic potential energy.
Gradient field; Faraday cage The gradient relates the electric potential with the electric field.
Potential The work per unit charge required to go from infinity to point P.
Gauss’ law Gauss' law relates the electric field through a closed surface with the charge contained within that surface.
Electric field The electric field is defined as the force per unit charge in space.
Coulomb’s law The electric force between two particles decreases with the inverse square of the distance, just as the gravitational force.
Evaluating discrete transfer functions Evaluates the response of discrete transfer functions to various input signals such as using impulse sinusoidal wave forms.
Discrete transfer functions (unfinished) Transfer function in the Z-domain let us determine the discrete system response characteristics without having to solve the underlying equations.
Inverse Z-transform (unfinished) The inverse Z-transform, can be evaluated using Cauchy's integral. Which is an integral taken over a counter-clockwise closed contour C in the region of converge of (z)
Z-transform proofs Proofs for Z-transform properties, pairs, initial and final value. Includes derivative, binomial scaled, sine and other functions.
Z-transform and proofs (unfinished) Derives the Z-transform using the Laplace transform. Includes stability criteria and region of convergence where the z-transform is valid.
Evaluating continuous transfer functions Evaluates the response of transfer functions to various input signals such as using impulse, unit step and sinusoidal wave forms.
Continuous transfer functions Transfer function in the Laplace domain let us determine the system response characteristics.
Laplace in mechanical systems Analyzes springs, resistance and mass in mechanical systems using Laplace transforms to solve the ordinary differential equations.
Laplace transform and proofs The Laplace transform turns differential equations in time, into algebraic equations in the Laplace domain thereby making them easier to solve.