Magnetics animations |
Aimant tournant devant une bobine en Français |
Attraction and
repulsion by magnet poles
this applet is used to illustrate how the
magnetic fields surrounding a magnet cause attraction and repulsion on a
surface of iron filings |
Aragoschijf |
B/H kromme |
Bobines
en Français |
Bobines de Helmholtz
en Français |
Bobines
de Helmholtz
en Français |
Champs magnétiques tournants
en Français |
Champs magnétiques tournants
en Français |
Champs magnétiques |
Champ
tournant, mode triphasé I1 = Io.cos(wt), I2 = Io.cos(wt + 2p/3),
I3 = Io.cos(wt + 4p/3), en Français |
Charged
particles moving in a magnetic field
in this demonstration particles are entering the region of the magnetic field with their velocoties being
perpendicular to the magnetic field lines. In such a situation the magnetic force serves to move the particles in a circular path |
Couplage par induction mutuelle
en Français |
Coupled
coils circuit with coupled inductance |
Courants de Foucault. Freinage magnétique
en Français |
Current testing
electrical currents are generated in a conductive material by an induced alternating magnetic field. The electrical currents are called eddy currents
because they flow in circles at and just below the surface of the material. Interruptions in the flow of eddy currents, caused by imperfections, dimensional
changes or changes in the material's conductive and permeability properties, can be detected, a tip |
Cycle d'hystérésis en Français |
Cycle d'hystérésis en Français |
Electricity and
magnetism aspects of electricity and magnetism |
Electricity and magnetism java applets
Ampere's Law, the physical characteristics of electric fields, the electrostatics of a single point charge,
electromagnetic oscillation, Gauss's law, Faraday's Law of electromagnetic induction, and Lenz's Law, electrical current and resistance |
Electromagnetic induction Electromagnetism,
Magnetic Field,
Electromagnet, swf file |
Electromagnetic
induction (Lenz's law)
The magnet is brought close or is kept away from the
coil, and faradic flows to the coil. Animation of two kinds when rotating in
case of the case to make the magnet reciprocate is moved |
Electromagnetisme Electromagnetisme: animated: swf
file |
Faraday's
magnetic field induction experiment
after discovering electromagnetic induction, Faraday began to test a hypothesis on magnetic fields and energy
currents, which is demonstrated in this tutorial showing a galvanometer connected to a wire wrapped paper cylinder |
Faraday's
electromagnetic induction experiment in 1831, Michael Faraday made his discovery of electromagnetic induction with an experiment using two coils of
wire wound around opposite sides of a ring of soft iron |
Faraday's law |
Faraday's Law |
Flux magnétique
en Français |
Force de Laplace
en Français |
Hystérésis en Français |
Hysteresis Magnetic hysteresis is an important phenomenon and refers to the
irreversibility of the magnetisation and demagnetisation process. When a
material shows a degree of irreversibility it is known as hysteretic |
Hysteresis loop of a ferromagnetic particle plot of magnetic field (horizontal) versus magnetization (vertical.) |
Induced current this applet illustrates that a current can be induced by changing
the area of a coil in a constant magnetic field |
Induction |
Induced
current |
Induced current coaxial coil
Induced current in a coaxial coil, swf file |
Inductance Applet This applet shows how EMF is induced in a loop by changing
the magnetic flux through the loop |
Induction here we can simulate the results of some of the experiments that Michael Farday made to discover the induction law |
Induction |
Lenz
law This (Quicktime) animation shows that the magnetic field produced by an
induced current creates a flux that opposes the change in flux that produces the
induced current |
Lenz
law Electromagnetically induced current always flows in such direction that
the action of the magnetic field set up by it tends to oppose the very cause
which produce it |
Lenz
law |
Lenz's
law
this interactive tutorial illustrates the directional relationships between induced magnetic fields, voltage, and current when a conductor is passed
within the lines of force of a magnetic field, an electric current induced by a changing magnetic field will
flow such that it will create its own magnetic field that opposes the magnetic field that created it |
Lenz's Law Lenz's Law, Eddy Currents |
Levitating
Magnet Applet
This applet presents the fields of a permanent magnet of
magnetic dipole moment M falling though a non-magnetic copper ring with
resistance R and self-inductance L |
Loi de Lenz en Français |
Lorentz force
demonstrates the Lorentz force, exerted on a current-carrying conductor swing in
the magnetic field of a horseshoe magnet |
Magnetfeld
von Leitern, Spulen |
Magnetic Field
This applet shows interactions between moving charges |
Magnetic field |
Magnetic
Field and Wires To show the magnetic field produced as a result of current
flowing through a wire |
Magnetic
fields and compass orientation explore the effects of induced electromagnetic fields on the orientation of a compass |
Magnetic
field lines
this tutorial illustrates the forces of magnetic attraction and repulsion, and how they can be seen as lines of force |
Magnetic Field of a Bar Magnet
The magnetic field of a bar magnet can be investigated with a compass needle |
Magnetic
field of a straight current carrying wire an electric current produces a magnetic field,
the magnetic field of a straight current-carrying wire |
Magnetic field due to electric currents the magnetic field resulting from a
current flowing in: a straight wire, a circular coil and a solenoid |
Magnetic
Field Of Two Moving Charges
This applet is designed to allow you to explore
the concept of the superposition of magnetic fields from two moving charges |
Magnetische veldlijnen opgewekt door een spoel in Dutch |
Magnetische veldlijnen van stroomvoerende geleiders in Dutch |
Magnetfeld
stromdurchflossener leiter in German |
Magnets and electromagnets Magnets and
electromagnets |
Oersted |
Relais |
Relay
how an Electromechanical Relay Works |
Solenoid
solenoid is just a fancy name for a coil of wire. If we run current through the
wire, the coil becomes an electromagnet |
Solenoid
how many loops are necessary to create a solenoid with a uniform magnetic field |
Solenoid
a Java simulation of an air-core inductor, a coil of wire, if we run current through the wire, the coil
becomes an electromagnet |
Solenoid |
Solénoïde en
Français |
Stabmagnet
in German |
Teaching electromagnetism using advanced technologies movies about Faraday's
law, electrostatics, radiation, magnetostatics |
Horizontaal |
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Last updated on:
2011-01-02
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