The electric field on two sides of a thin sheet of charge is shown in the figure. The charge density on the sheet is

A charged ball B hangs from a silk thread S , which makes an angle theta with a large charged conducting sheet P , as shown in the figure. The surface charge density sigma of the sheet is proportional to

A charged ball B hangs from a silk thread S , which makes an angle theta with a large charged conducting sheet P , as shown in the figure. The surface charge density sigma of the sheet is proportional to

A charged ball B hangs from a silk thread S. Which makes an angle 0 with a large charge conducting sheet P as shown in the figure. The surface charge density sigma of the sheet is proportional to

A charged ball B hangs from a silk thread S, which makes an angle theta with a large charged conducting sheet P, as shown in figure. The surface charge density sigma of the sheet is proportional to

A charged ball B hangs from a silk thread S, which makes an angle theta with a large charged conducting sheet P, as shown in figure. The surface charge density sigma of the sheet is proportional to

Why do we always get electric field intensity near a charged metallic surface of magnitude twice of the electric field intensity near a thin sheet of charge with same surface charge density as of metal plate?

The electric field at a point near an infinite thin sheet of a charged conductor is .

Electric field intensity at a point due to an infinite sheet of charge having surface charge density sigma is E .If sheet were conducting electric intensity would be

Electric field intensity at a point due to an infinite sheet of charge having surface charge density sigma is E .If sheet were conducting electric intensity would be