Zero. By Gauss' or Coulomb's law - eclectic field inside a conductor or a charged empty shell is always zero. If there were a field inside a sphere it would never be able to reach equilibrium with itself.
Gauss's Law states that the magnitude of electric field within a non-uniform, charged
sphere is zero. This is because the divergence of the field is zero (if, as you go outward
from the center, yet beneath the surface of the sphere, you test the field strength, you will
find that the charges directed toward the center and pointing outward all balance out exactly).
However, at the surface of the sphere, the only field vectors present at those pointing
outward, making the surface of the sphere the only non-zero electric field intensity.
In all cases, if you have a uniformly-charged sphere with source charge placed in the center, then the symmetry based on electric field flux at each radius, moving outward in infinitesimal volumes, cancels out. This symmetry makes the NET electric field magnitude at each point within the sphere exactly zero. This is taken exactly from Gauss's Law and the divergence of the electric field vectors throughout the sphere, based on infinitesimal radii.
On the surface of the sphere, however, you can expect the total charge, Q, to the present.
The electric FIELD inside a charged hollow CONDUCTOR is zero.
If the charge is evenly distributed over the sphere ... as it would be if the sphere is a conducting material ... then the electric field at the center of the sphere is zero. If the sphere is not a conductor and the charge hasn't been applied to it symmetrically, then the magnitude and direction of the electric field at the center depend on every little detail of exactly how it's distributed on the sphere.
If the net charge enclosed by a surface is zero then the field at all points on the surface is not zero because gauss's law states that if the charge enclosed by a surface is zero then the flux through the surface is zero which depends upon the magnitude of field and the angle that it makes with the area vector at each point and so it is not necessary that the field will be zero at all points of the surface.
it is the magnetic field not the electric field which accelerates the ion inside the dees
Electromagnetic field. An electric field.
The electric FIELD inside a charged hollow CONDUCTOR is zero.
electric field inside the conducting sphere is ZER0..! because their are equivalent charges all around the sphere which makes the net force zero hence we can say that the electric field is also zero.!
If the charge is evenly distributed over the sphere ... as it would be if the sphere is a conducting material ... then the electric field at the center of the sphere is zero. If the sphere is not a conductor and the charge hasn't been applied to it symmetrically, then the magnitude and direction of the electric field at the center depend on every little detail of exactly how it's distributed on the sphere.
If the net charge enclosed by a surface is zero then the field at all points on the surface is not zero because gauss's law states that if the charge enclosed by a surface is zero then the flux through the surface is zero which depends upon the magnitude of field and the angle that it makes with the area vector at each point and so it is not necessary that the field will be zero at all points of the surface.
it is the magnetic field not the electric field which accelerates the ion inside the dees
Electromagnetic field. An electric field.
Inside a conductor, it's zero.
suck my nuts
The field is zero inside only if any charge is evenly distributed on the surface. That's a mathematical theorem, sorry I don't have the proof handy. But when you measure the electric field inside a charged sphere, the charge you use might be large enough to redistribute the surface charge. In this case the electric field will not be zero. Only if you measure at the centre.
In the electric field inside the dielectric (or insulating) medium separating the two plates
An electron, being negatively charged, will move towards positively charged plates.
It's the electric field.