Basic circuit theory - AC |
Applying AC voltage to
capacitor, coil, resistor |
AC
circuits
this Java applet shows a simple circuit consisting of an
alternating voltage source and, depending on the selected radio button, a
resistor |
AC circuits power
the
instantaneous electric power in an AC circuit, resistor, capacitor, coil, mixed |
Combinations of
Resistors, Inductors and Capacitors |
Mesures de puissance en Français |
Phasor
diagrams & complex numbers for AC circuits analysis enter magnitude, phase then press draw button |
Phasors
and sinusoids, Adding
phasors, Matching
phasors to sinusoids |
Phasors
and Time Domain Representation
Representation of sinusoidal waveform as
complex numbers (PHASORS) |
Power as function of U,
I and φ |
Sinusoidal Waveforms To illustrate sinusoidal waveforms and show the effect
of adding a phase shift |
Sinusoidal Waveforms
Sinusoidal Waveforms |
Steady
state response of a RL circuit with sinusoidal input |
Steady
state response of a RC circuit with sinusoidal input |
Horizontaal |
Basic circuit theory - DC |
Battery & light bulb |
Battery & light bulb
Battery & light bulb: Series circuits and Parallel circuits |
Battery & light bulbs |
Capacitors in
series and parallel you can select different configurations of capacitors in parallel and/or in series, change the capacitances of the individual
capacitors, and the applet will calculate the equivalent capacitance of the network |
Comparing a DC circuit to the flow of water Comparing a DC circuit to
the flow of water |
Comparing a DC circuit to the flow of water
water analogy, swf |
Conductors a conductor is a material which contains movable electric
charges. In metallic conductors, such as copper or aluminum, the movable charged
particles are electrons |
Current |
Current
moving charge, electric current, speed = mm/s |
Current divider
Norton circuit simulation |
Current flow
an electric conductor consists of atoms having free electrons
in their outer most shells. These free electrons ordinarily move randomly from
one atom to another. However, when voltage is applied across the conductor, free
electrons flow from negative to positive charges |
Current flow
Current flow |
Current flow
The current seems to move to the right though the electron moves to the left |
Current
to voltage Current to voltage passive converter |
DC circuits |
DC
circuits simulation
DC circuits simulation, online simulation of DC circuits, lightbulb, resistor |
Diviseur de tension en Français |
Electrische
circuits (DC en AC) bouwen en analyseren in Dutch |
Internal resistance |
Kirchoff's First Law Kirchhoff's first law when officially stated (see
insert at the right) sounds more complicated than it actually is. Generally
speaking, it says, the total current entering a junction must equal the total
current leaving the junction |
Kirchhoff's Laws To define and illustrate Kirchhoff's Voltage Law (KVL) |
Kirchhoff's Laws |
Kirchoff's Second Law |
Ladder network |
Light Bulb Applet
Light Bulb Applet, Voltage and Current |
Lois de Kirchhoff en Français |
Norton
equivalent this states that any linear bilateral circuit can be replaced by a circuit consisting of a single current source in parallel with a single
resistor |
Ohm's law
a circuit is used to demonstrate how the current in a circuit is directly proportional to the applied voltage and inversely proportional to the
resistance of the circuit, according to Ohm's law |
Ohm's law Ohm's law
simulation |
Ohm's law Ohm's law
simulation |
Ohm's law
rheostat |
Ohm's law |
Ohm's law
Ohm's law, resistance and temperature, resistance, potential and current, |
Ohm Zone simulator that lets you build circuitry,
a tip |
Parallel resistor
potentiometer graph This Java applet is designed to allow you to graph
Output Voltage (Vout) vs. Potentiometer |
Parallel circuits |
Parallel circuits
resistors connected in parallel |
Parallelschakeling in Dutch |
Resistance change the voltage of the battery and the resistance of the
resistor |
Resistor color codes
this tutorial allows you to change the resistance and tolerance values, which
in turns generates a differing color code |
Series circuit |
Series circuit |
Series
and parallel circuit |
Superposition en Français |
Superposition this states that the response in any element of a circuit is the sum of the responses of the individual contributions from each source. The
response from each source can be obtained by setting the other sources to zero |
Superposition
principle
superposition
principle, The circuit provides an illustration of the principle of
superposition. The values of the voltage source voltage and current source
current and of both resistances can be adjusted using the scrollbars |
Théorème de Millman |
Théorème de Thévenin
en Français |
Thévenin |
Thévenin
and Norton Equivalent Circuits
To show where Thévenin and Norton
equivalences may be used |
Thevenin and Norton
equivalent circuits |
Thevenin
equivalent this states that any linear bilateral circuit can be replaced by
a circuit consisting of a single voltage source in series with a single resistor |
Time Delay |
Voltage and current the greater the current through the light bulb, the
brighter it glows |
Voltage
to current Voltage to current passive converter |
Voltage
divider
voltage divider, This voltage divider produces an output voltage,
Vo, that is proportional to the input voltage |
Weerstanden in serie in Dutch |
Wet van ohm in Dutch |
Water
towers |
Horizontaal |
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Last updated on:
2011-01-02
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