Home
Class 12
PHYSICS
Equipotential surfaces...

Equipotential surfaces

A

are closer in regions of large electric fields compared to regions of lower electric fields

B

will be more crowded near sharp edges of a conductor

C

will be more crowded near regions of large charge densities

D

will always be equally spaced

Text Solution

Verified by Experts

The correct Answer is:
A, B, C
Promotional Banner

Topper's Solved these Questions

  • ELECTRIC POTENTIAL

    CHHAYA PUBLICATION|Exercise Exercise (Multiple Choice Questions - mark 1)|14 Videos
  • ELECTRIC POTENTIAL

    CHHAYA PUBLICATION|Exercise Exercise (Very Short Answer Type Questions - mark 1)|17 Videos
  • ELECTRIC POTENTIAL

    CHHAYA PUBLICATION|Exercise NCERT examplar questions with answer hint (MCQ -1 single option correct)|3 Videos
  • ELECTRIC FIELD

    CHHAYA PUBLICATION|Exercise CBSE SCANNER|31 Videos
  • ELECTROMAGNETIC INDUCTION & ALTERNATING CURRENT

    CHHAYA PUBLICATION|Exercise CBSE SCANNER|28 Videos

Similar Questions

Explore conceptually related problems

Angle between an equipotential surface and electric lines of force is

Angle between an equipotential surface and electric lines of force is

Explain— Electric field lines cut the equipotential surface normally.

What will be the shape of the equipotential surface situated at infinity due to a point charge?

The electric field lines pass through an equipotential surface _______. [Fill in the blank]

Explain why, for any charge configuration the equipotential surface through a point is normal to the electric field at that point. Draw a sketch of equipotential surfaces due to a single charge (-q), depicting the electric field lines due to the charge.

Two charges 2muC are placed at points A and B, 6 cm apart. Identify an equipotential surface of the system.

Two point charges of magnitude +q and -q are placed at (-d/2, 0, 0) and (d/2, 0,0) respectively. Find the equation of the equipotential surface where the potential is zero.

Show that electric field intensity is normal to equipotential surface.