Maxwell Electromagnetic Field
                            
                                
	The fundamental equations of the electromagnetic field as derived by Maxwell are:
	
	
	
	Here  is the electric displacement, ρ is the electric charge density,
 is the electric displacement, ρ is the electric charge density,  is the magnetic flux density,
 is the magnetic flux density,  is the current density and
 is the current density and  is the electrical intensity. Equation (1) is an important contribution by Maxwell. The term
 is the electrical intensity. Equation (1) is an important contribution by Maxwell. The term  represents the displacement current density. In the absence of this term, equation (1) represents Ampere’s law. Equation (2) represents Maxwell’s generalization Neumann’s law of electromagnetic induction. Equation (3) represents Gauss’s flux law in magnetism.
represents the displacement current density. In the absence of this term, equation (1) represents Ampere’s law. Equation (2) represents Maxwell’s generalization Neumann’s law of electromagnetic induction. Equation (3) represents Gauss’s flux law in magnetism.
	
	This establishes the fact that a single magnetic pole cannot exist. Maxwell’s equations relate to mathematical expressions based on certain experimental results. Though it is not possible to prove the equations, yet their applicability to any particular situation can be verified. Maxwell’s equations are now used as guiding principles in a large number of situations.
	
	
	But from the equation of continuity of charge (equation 3)
	
	
	
	i.e. div  is zero for steady state only.
 is zero for steady state only.
	
	
	
	This equation will reduce to div J = 0 in the case of steady state.
	
	According to equation (6), the current density,  should be written as
 should be written as
	
	
	
	However,  is the conduction current density and
 is the conduction current density and  is the displacement current density.
 is the displacement current density.
	
	In equation (1), if  is omitted, it will be identical with equation (2). It means that a change in magnetic flux induces an electric field and a change in the electric flux induces a magnetic field. However, displacement currents will be significant only at rapidly varying fields i.e. only at high frequencies.
 is omitted, it will be identical with equation (2). It means that a change in magnetic flux induces an electric field and a change in the electric flux induces a magnetic field. However, displacement currents will be significant only at rapidly varying fields i.e. only at high frequencies.
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