The magnetic induction field strength at a distance $0.2\,m$  on the axial line of a short bar magnet of moment $3.6\,A{m^2}$ is

Two short magnets having magnetic moments in the ratio $27\;:8$, when placed on opposite sides of a deflection magnetometer, produce no deflection. If the distance of the weaker magnet is 0.12 m from the centre of deflection magnetometer, the distance of the stronger magnet from the centre is

The magnetic field is strongest at which point of a bar magnet?

The magnetic field due to a short magnet at a point on its axis at distance $X\;cm$ from the middle point of the magnet is $200\;gauss$. The magnetic field at a point on the neutral axis at a distance $X\;cm$ from the middle of the magnet is

The magnetic field lines due to a bar magnet:

The points $A\;{\rm{and}}\;B$ are situated perpendicular to the axis of 2 cm long bar magnet at large distances $x$ and 3$x$ from the centre on opposite sides. The ratio of magnetic fields at $A\;{\rm{and}}\;B$ will be approximately equal to

A short magnet of moment $6.75\;A{m^2}$ produces a neutral point on its axis. If horizontal component of earth’s magnetic field is $5 imes {10^{ - 5}}Wb/{m^2}$, then the distance of the neutral point should be

A bar magnet of magnetic moment $M$ is bent into a semicircle. The new magnetic moment is:

The magnetic potential at a point on the axial line of a bar magnet of dipole moment $M$ is $V$. What is the magnetic potential due to a bar magnet of dipole moment $\frac{M}{4}$ at the same point

The magnetic induction field strength at a distance $0.2\,m$  on the axial line of a short bar magnet of moment $3.6\,A{m^2}$ is

Breaking a bar magnet in half results in: