The electric field inside a conductor is zero in electrostatic conditions, as established by Gauss's law. This phenomenon occurs because free charges within the conductor redistribute themselves until the internal electric field is neutralized. This principle applies to both symmetrical conductors, such as spheres and cylinders, and asymmetrical conductors, where the movement of free charges ensures that any internal electric field is canceled out. The discussion emphasizes the importance of understanding charge distribution and electrostatic equilibrium in conductors.
PREREQUISITESPhysics students, electrical engineers, and anyone interested in understanding the principles of electrostatics and conductor behavior.
Thought a lot about it...and got it [emoji5] thanks mateDoc Al said:Note that the field within a conductor is zero for the electrostatic case. If there were a field within the conductor, the free charges would move until the field was canceled out.