EMF can be produced either by change of flux through a particular area kept in a magnetic field in a particular interval of time ( called self induced emf) or by the motion of any conducting rod in manetic fied....
An induced electromotive force is produced in a coil placed near a magnet when there is a relative motion between the coil and the magnetic field. This motion causes a change in the magnetic flux passing through the coil, leading to the generation of an electromotive force according to Faraday's law of electromagnetic induction.
When a magnet pulls a car, it demonstrates the principles of magnetic force and motion by showing how the magnetic force between the magnet and the car causes the car to move towards the magnet. This is because the magnet creates a magnetic field that exerts a force on the car, resulting in motion.
Electric motors contain electromagnets that transform electrical energy into mechanical energy to generate motion. These electromagnets interact with a permanent magnet to create a rotating force that drives the motor.
We don't feel the Earth moving and rotating because its motion is constant and we are moving along with it at the same speed. Our bodies have adapted to this motion over time, so we don't perceive it as movement.
To power a fan with magnets, you can use a magnetically coupled rotating system where the motion of one magnet induces motion in another magnet connected to the fan. This setup can create a magnetic field that drives the rotation of the fan blades. However, this method typically requires precise engineering and isn't commonly used for everyday fan applications due to efficiency and practicality issues.
An induced electromotive force is produced in a coil placed near a magnet when there is a relative motion between the coil and the magnetic field. This motion causes a change in the magnetic flux passing through the coil, leading to the generation of an electromotive force according to Faraday's law of electromagnetic induction.
reciprocating motion in an appliance is obtained from a rotating motor shaft with the aid of
A rotating shaft
rotating motion
When a magnet pulls a car, it demonstrates the principles of magnetic force and motion by showing how the magnetic force between the magnet and the car causes the car to move towards the magnet. This is because the magnet creates a magnetic field that exerts a force on the car, resulting in motion.
Electric motors contain electromagnets that transform electrical energy into mechanical energy to generate motion. These electromagnets interact with a permanent magnet to create a rotating force that drives the motor.
A motor takes electricity and creates rotating motion. A generator takes rotating motion and turns it into electricity.
yes
No, that statement is false. The strength of a magnet affects the magnetic field it generates but not necessarily the change in motion it causes. The change in motion is determined by factors such as mass, distance, and the magnetic field's influence on an object.
A rotating machine like a generator requires first a permanent magnet of sort. The magnet can be a natural source or induced by an electric current flow. A copper wire as it cuts cuts trough a magnetic field it self induce a current flow. Therefore current will flow into an external load.
In the same way that objects in linear motion tend to remain that way, objects which are rotating tend to keep rotating. Thus, we need both linear and angular (rotational) motion.
A stator magnet is a permanent magnet located on the stationary part of an electric motor or generator. It produces a magnetic field that interacts with the rotating part (rotor) to generate mechanical motion or electrical power. Stator magnets play a crucial role in converting electrical energy into mechanical or vice versa in various applications.