The fields are in time phase and space quadrature.
The magnetic field will be perpendicular to the electric field and vice versa.More DetailAn electric field is the area which surrounds an electric charge within which it is capable of exerting a perceptible force on another electric charge. A magnetic field is the area of force surrounding a magnetic pole, or a current flowing through a conductor, in which there is a magnetic flux. A magnetic field can be produced when an electric current is passed through an electric circuit wound in a helix or solenoid.The relationship that exists between an electric field and a magnetic field is one of electromagnetic interaction as a consequence of associating elementary particles.The electrostatic force between charged particles is an example of this relationship.
Electric and magnetic fields are perpendicular to each other in electromagnetic waves. A change in the electric field generates a magnetic field, and a change in the magnetic field generates an electric field. They support each other and travel together in a wave-like fashion.
In an electromagnetic wave, the phase difference between the electric and magnetic fields is 90 degrees. This means that when the electric field is at its maximum value, the magnetic field is zero, and vice versa. This relationship is essential for understanding how electromagnetic waves propagate through space.
An electromagnetic wave consists of an electric field and a magnetic field oscillating perpendicular to each other. The two fields are in phase with each other and propagate through space at the speed of light. The interaction between the electric and magnetic fields allows the wave to carry energy and information.
Yes, electric currents generate magnetic fields. This is described by Ampere's law in electromagnetism, stating that a current-carrying conductor produces a magnetic field around it. This relationship between electric currents and magnetic fields is fundamental to the operation of electromagnets and many electronic devices.
If there is a fluctuating electric field at a point in space, it will induce a magnetic field at that point according to Maxwell's equations. The changing electric field will generate a magnetic field that curls around the direction of the electric field changes. This relationship between electric and magnetic fields is described by Faraday's law of electromagnetic induction.
The electric field is a fundamental force that arises from the interaction of charged particles, while the magnetic field is a force that arises from moving charges. In the presence of a changing magnetic field, an electric field is induced, as described by Faraday's law of electromagnetic induction. This relationship demonstrates the interconnection between electric and magnetic fields.
Hans Christian Oersted discovered the magnetic field of electric current in 1820. He observed that a compass needle was deflected when placed near a wire carrying an electric current, showing a relationship between electricity and magnetism.
Electromagnetic waves are created by vibrating electric charges. When an electric charge oscillates, it creates a changing electric field which in turn generates a changing magnetic field. This interplay of changing electric and magnetic fields propagates through space as electromagnetic waves.
When a charge is flowing through a wire, it creates an electric current. The flow of charges generates a magnetic field around the wire, as described by Ampere's law. This relationship between electric currents and magnetic fields forms the basis of electromagnetism.
An electric current produces a magnetic field around it, according to Ampère's law. This phenomenon forms the basis of electromagnetism and is described by Maxwell's equations. The strength of the magnetic field is directly proportional to the magnitude of the current flowing through the conductor.