Six charges are placed at the vertices of a regular hexagon as shown in the figure. The electric field on the line passing through point and perpendicular to the plane of the figure at a distance of x(>>a) from O is -Q -Q

Six charges are placed at the vertices of a rectangular hexagon as shown in the figure. The electric field on the line passing through point O and perpendicular to the plane of the figure as a function of distance x from point O is (assume x>>>a)

Six charges are placed at the vertices of a rectangular hexagon as shown in the figure. The electric field on the line passing through point O and perpendicular to the plane of the figure as a function of distance x from point O is ( xgtgta )

Six point charge each of the magnitude Q are placed at the vertices of a regular hexagon of side a as shown in the figure Electric field intensity on the line passing through the centre o and perpendicular to the plane of the figure at a large distance x (gt gt a) from o is (" Let " .(1)/(4pi in_(0) ) = k)

Six point charges are placed at the vertices of a hexagon of side 1 m as shown in figure. Net electric field at the centre of the hexagon is

Six charges +q each are placed at the corners of a regular hexagon of each side a. The electric field at the centre of the hexagon is

Six point charges are placed at the vertices of a regular hexagon of side a as shown. If E represents electric field and V represents electric potential at O then,