362536 Figure shows a coil of radius \(2\;cm\) concentricwith a coil of radius \(4\;cm\). Each coil has 1000 turns with a current of \(5\,amp\). In larger coil, then the current needed in the smaller coil to give the total magnetic field at the centre equal to \(2\;mT\) is

362537 Magnetic field at the centre of a circular coil of radius \(R\) due to current I flowing through it is \(B\). The magnetic field at a point along the axis at distance \(R\) from the centre is

362538 A wire of finite length carries a steady current. It is first bent to form a circular coil of one turn. The same length is now bent more sharply to give a loop of two turns of smaller radius. The magnetic field at the centre caused by the same current now will be

362539 Two insulated circular loops \(A\) and \(B\) of radius '\(a\)' carrying a current of \(\,\,\,\,\)'\(I\)' in the anti clockwise direction as shown in the figure. The magnitude of the magnetic induction at the centre will be

362536 Figure shows a coil of radius \(2\;cm\) concentricwith a coil of radius \(4\;cm\). Each coil has 1000 turns with a current of \(5\,amp\). In larger coil, then the current needed in the smaller coil to give the total magnetic field at the centre equal to \(2\;mT\) is

362537 Magnetic field at the centre of a circular coil of radius \(R\) due to current I flowing through it is \(B\). The magnetic field at a point along the axis at distance \(R\) from the centre is

362538 A wire of finite length carries a steady current. It is first bent to form a circular coil of one turn. The same length is now bent more sharply to give a loop of two turns of smaller radius. The magnetic field at the centre caused by the same current now will be

362539 Two insulated circular loops \(A\) and \(B\) of radius '\(a\)' carrying a current of \(\,\,\,\,\)'\(I\)' in the anti clockwise direction as shown in the figure. The magnitude of the magnetic induction at the centre will be

362536 Figure shows a coil of radius \(2\;cm\) concentricwith a coil of radius \(4\;cm\). Each coil has 1000 turns with a current of \(5\,amp\). In larger coil, then the current needed in the smaller coil to give the total magnetic field at the centre equal to \(2\;mT\) is

362537 Magnetic field at the centre of a circular coil of radius \(R\) due to current I flowing through it is \(B\). The magnetic field at a point along the axis at distance \(R\) from the centre is

362538 A wire of finite length carries a steady current. It is first bent to form a circular coil of one turn. The same length is now bent more sharply to give a loop of two turns of smaller radius. The magnetic field at the centre caused by the same current now will be

362539 Two insulated circular loops \(A\) and \(B\) of radius '\(a\)' carrying a current of \(\,\,\,\,\)'\(I\)' in the anti clockwise direction as shown in the figure. The magnitude of the magnetic induction at the centre will be

362536 Figure shows a coil of radius \(2\;cm\) concentricwith a coil of radius \(4\;cm\). Each coil has 1000 turns with a current of \(5\,amp\). In larger coil, then the current needed in the smaller coil to give the total magnetic field at the centre equal to \(2\;mT\) is

362537 Magnetic field at the centre of a circular coil of radius \(R\) due to current I flowing through it is \(B\). The magnetic field at a point along the axis at distance \(R\) from the centre is

362538 A wire of finite length carries a steady current. It is first bent to form a circular coil of one turn. The same length is now bent more sharply to give a loop of two turns of smaller radius. The magnetic field at the centre caused by the same current now will be

362539 Two insulated circular loops \(A\) and \(B\) of radius '\(a\)' carrying a current of \(\,\,\,\,\)'\(I\)' in the anti clockwise direction as shown in the figure. The magnitude of the magnetic induction at the centre will be