The given problem involves a dipole placed in an electric field. To determine the direction in which the dipole will move, we need to consider the behavior of a dipole in an electric field.
When a dipole is placed in an electric field, the dipole experiences a torque that tends to align it with the field. The potential energy of the dipole in an electric field is given by:
U = -p · E
Where:
The dipole will move towards the direction where its potential energy decreases. This happens when the dipole rotates to align with the electric field, minimizing its potential energy.
In this case, as the dipole aligns with the electric field, it moves towards the right, where the potential energy is lower.
Final Answer:
The dipole will move towards the right as its potential energy will decrease.
Two identical concave mirrors each of focal length $ f $ are facing each other as shown. A glass slab of thickness $ t $ and refractive index $ n_0 $ is placed equidistant from both mirrors on the principal axis. A monochromatic point source $ S $ is placed at the center of the slab. For the image to be formed on $ S $ itself, which of the following distances between the two mirrors is/are correct:
The major products obtained from the reactions in List-II are the reactants for the named reactions mentioned in List-I. Match each entry in List-I with the appropriate entry in List-II and choose the correct option.
An electric dipole is a pair of equal and opposite point charges -q and q, separated by a distance of 2a. The direction from q to -q is said to be the direction in space.
p=q×2a
where,
p denotes the electric dipole moment, pointing from the negative charge to the positive charge.