153213 A circular loop of radius $r$ of conducting wire connected with a voltage source of zero internal resistance produces a magnetic field $B$ at its centre. If instead, a circular loop radius $2 \mathbf{r}$, made of same material, having the same crosssection is connected to the same voltage source, what will be the magnetic field at its centre?

153214 A straight wire carrying current $I$ is made into a circular loop. If $M$ is the magnetic moment associated with the loop, then the length of the wire is-

153215 The strength of the magnetic field at a point distant $r$ near a long straight current carrying wire is $B$. The field at a distance $\frac{r}{2}$ will be

153217 The magnetic field due to current carrying circular coil loop of radius $6 \mathrm{~cm}$ at a point on axis at a distance of $8 \mathrm{~cm}$ from the center is 54 $\mu \mathrm{T}$. What is the value at centre of loop?

153213 A circular loop of radius $r$ of conducting wire connected with a voltage source of zero internal resistance produces a magnetic field $B$ at its centre. If instead, a circular loop radius $2 \mathbf{r}$, made of same material, having the same crosssection is connected to the same voltage source, what will be the magnetic field at its centre?

153214 A straight wire carrying current $I$ is made into a circular loop. If $M$ is the magnetic moment associated with the loop, then the length of the wire is-

153215 The strength of the magnetic field at a point distant $r$ near a long straight current carrying wire is $B$. The field at a distance $\frac{r}{2}$ will be

153217 The magnetic field due to current carrying circular coil loop of radius $6 \mathrm{~cm}$ at a point on axis at a distance of $8 \mathrm{~cm}$ from the center is 54 $\mu \mathrm{T}$. What is the value at centre of loop?

153213 A circular loop of radius $r$ of conducting wire connected with a voltage source of zero internal resistance produces a magnetic field $B$ at its centre. If instead, a circular loop radius $2 \mathbf{r}$, made of same material, having the same crosssection is connected to the same voltage source, what will be the magnetic field at its centre?

153214 A straight wire carrying current $I$ is made into a circular loop. If $M$ is the magnetic moment associated with the loop, then the length of the wire is-

153215 The strength of the magnetic field at a point distant $r$ near a long straight current carrying wire is $B$. The field at a distance $\frac{r}{2}$ will be

153217 The magnetic field due to current carrying circular coil loop of radius $6 \mathrm{~cm}$ at a point on axis at a distance of $8 \mathrm{~cm}$ from the center is 54 $\mu \mathrm{T}$. What is the value at centre of loop?

153213 A circular loop of radius $r$ of conducting wire connected with a voltage source of zero internal resistance produces a magnetic field $B$ at its centre. If instead, a circular loop radius $2 \mathbf{r}$, made of same material, having the same crosssection is connected to the same voltage source, what will be the magnetic field at its centre?

153214 A straight wire carrying current $I$ is made into a circular loop. If $M$ is the magnetic moment associated with the loop, then the length of the wire is-

153215 The strength of the magnetic field at a point distant $r$ near a long straight current carrying wire is $B$. The field at a distance $\frac{r}{2}$ will be

153217 The magnetic field due to current carrying circular coil loop of radius $6 \mathrm{~cm}$ at a point on axis at a distance of $8 \mathrm{~cm}$ from the center is 54 $\mu \mathrm{T}$. What is the value at centre of loop?