The Continuity Equation for a time varying field Eris:
dEr/cdt = Del.Ev where Ev is the vector field associated with the real time varying field.
Er + Ev =E, constitute a quaternion field.
Del.Ev is the Divergence of the vector field.
The Continuity Equation is a statement that the time variation of the real field is equal to the Divergence of the vector field. or more succinctly, the quaternion field E=Er + Ev is Real invariant.
The Vector part of the variation is 0= dEv/cdt + Del Er + DelxEv , this is Vector Invariance of E. This is not the Continuioty Equatin but the Induction Equation. Together they represent the Invariance of the quaternion field E=Er + Ev.
Because quaternions are not taught in schools yet, few realize the relationship between Continuity and Induction, they are the Real and Vector parts of Invariance!
No, the equation showing distance varying inversely with time is not true. In reality, distance is directly proportional to time when an object is moving at a constant speed. This relationship is described by the equation distance = speed x time.
A time-varying electric field creates a changing electric flux, which in turn induces a circulating electric current. This current generates a magnetic field according to Ampre's law, leading to the generation of a magnetic field.
A time-varying magnetic field creates a changing magnetic flux, which induces an electric field according to Faraday's law of electromagnetic induction. This electric field is generated as a result of the changing magnetic field, leading to the production of an electric current.
When a square wire loop is placed in a time-varying magnetic field, an electric current is induced in the loop. This current creates a magnetic field that opposes the change in the original magnetic field, leading to a phenomenon known as electromagnetic induction.
Static fields are constant in both magnitude and direction over time, like a stationary magnetic field. Time-varying fields change in magnitude or direction over time, such as an alternating current in an electrical circuit.
As per my knowledge,Maxwell's equations describes the relations between changing electric and magnetic fields. That means time varying electric field can be produced by time varying magnetic field and time varying magnetic field can be produced by time varying electric field.
Gauss's law: Electric charges produce an electric field. Gauss's law for magnetism: There are no magnetic monopoles. Faraday's law: Time-varying magnetic fields produce an electric field. Ampère's law: Steady currents and time-varying electric fields produce a magnetic field.
No, the equation showing distance varying inversely with time is not true. In reality, distance is directly proportional to time when an object is moving at a constant speed. This relationship is described by the equation distance = speed x time.
A time-varying electric field creates a changing electric flux, which in turn induces a circulating electric current. This current generates a magnetic field according to Ampre's law, leading to the generation of a magnetic field.
A time-varying magnetic field creates a changing magnetic flux, which induces an electric field according to Faraday's law of electromagnetic induction. This electric field is generated as a result of the changing magnetic field, leading to the production of an electric current.
Look up Faraday's Law of Induction. A time-varying magnetic field (i.e. a field gradient) induces an electric field. You could think of this as a transformer, in which the gradient coil is the primary and the human body is the secondary!
When a square wire loop is placed in a time-varying magnetic field, an electric current is induced in the loop. This current creates a magnetic field that opposes the change in the original magnetic field, leading to a phenomenon known as electromagnetic induction.
Equation describing the relative motion of rotor with respect to stator field as a function of time.
A time-varying magnetic field can be used to induce a current in an inductor
Static fields are constant in both magnitude and direction over time, like a stationary magnetic field. Time-varying fields change in magnitude or direction over time, such as an alternating current in an electrical circuit.
While change occurs over time , there is continuity to the stucture of a society.
While change occurs over time , there is continuity to the stucture of a society.