358470 A straight conductor of length \(4\;m\) moves at a speed of \(10\;m{s^{ - 1}}\), perpendicular to the magnetic field of induction of \(0.1\;Wb/{m^2}\), then induced emf is

358471 A square, a circular and an elliptical loop, all are in the \((x - y)\) plane, are moving out of a uniform magnetic field with a constant velocity \(\vec{v}=\hat{i}\). The magnetic field is directed along the negative \(z\) axis direction. The induced emf, during the passage of these loops, out of the field region, will remain constant for

358472 A jet plane having a wing - span of \(25\;\,m\) is traveling horizontally towards east with a speed of \(3600\;\,km/hour\). If the Earth's magnetic field at the location is \(4 \times {10^{ - 4}}\;T\) and the angle of dip is \(30^{\circ}\), then the potential difference between the ends of the wing is

358473 A 10 metre wire kept in east-west falling with velocity \(5\;\,m/\sec \) perpendicular to the field \(0.3 \times {10^{ - 4}}\;\,Wb/{m^2}\). The induced e.m.f. across the terminal will be

358470 A straight conductor of length \(4\;m\) moves at a speed of \(10\;m{s^{ - 1}}\), perpendicular to the magnetic field of induction of \(0.1\;Wb/{m^2}\), then induced emf is

358471 A square, a circular and an elliptical loop, all are in the \((x - y)\) plane, are moving out of a uniform magnetic field with a constant velocity \(\vec{v}=\hat{i}\). The magnetic field is directed along the negative \(z\) axis direction. The induced emf, during the passage of these loops, out of the field region, will remain constant for

358472 A jet plane having a wing - span of \(25\;\,m\) is traveling horizontally towards east with a speed of \(3600\;\,km/hour\). If the Earth's magnetic field at the location is \(4 \times {10^{ - 4}}\;T\) and the angle of dip is \(30^{\circ}\), then the potential difference between the ends of the wing is

358473 A 10 metre wire kept in east-west falling with velocity \(5\;\,m/\sec \) perpendicular to the field \(0.3 \times {10^{ - 4}}\;\,Wb/{m^2}\). The induced e.m.f. across the terminal will be

358470 A straight conductor of length \(4\;m\) moves at a speed of \(10\;m{s^{ - 1}}\), perpendicular to the magnetic field of induction of \(0.1\;Wb/{m^2}\), then induced emf is

358471 A square, a circular and an elliptical loop, all are in the \((x - y)\) plane, are moving out of a uniform magnetic field with a constant velocity \(\vec{v}=\hat{i}\). The magnetic field is directed along the negative \(z\) axis direction. The induced emf, during the passage of these loops, out of the field region, will remain constant for

358472 A jet plane having a wing - span of \(25\;\,m\) is traveling horizontally towards east with a speed of \(3600\;\,km/hour\). If the Earth's magnetic field at the location is \(4 \times {10^{ - 4}}\;T\) and the angle of dip is \(30^{\circ}\), then the potential difference between the ends of the wing is

358473 A 10 metre wire kept in east-west falling with velocity \(5\;\,m/\sec \) perpendicular to the field \(0.3 \times {10^{ - 4}}\;\,Wb/{m^2}\). The induced e.m.f. across the terminal will be

358470 A straight conductor of length \(4\;m\) moves at a speed of \(10\;m{s^{ - 1}}\), perpendicular to the magnetic field of induction of \(0.1\;Wb/{m^2}\), then induced emf is

358471 A square, a circular and an elliptical loop, all are in the \((x - y)\) plane, are moving out of a uniform magnetic field with a constant velocity \(\vec{v}=\hat{i}\). The magnetic field is directed along the negative \(z\) axis direction. The induced emf, during the passage of these loops, out of the field region, will remain constant for

358472 A jet plane having a wing - span of \(25\;\,m\) is traveling horizontally towards east with a speed of \(3600\;\,km/hour\). If the Earth's magnetic field at the location is \(4 \times {10^{ - 4}}\;T\) and the angle of dip is \(30^{\circ}\), then the potential difference between the ends of the wing is

358473 A 10 metre wire kept in east-west falling with velocity \(5\;\,m/\sec \) perpendicular to the field \(0.3 \times {10^{ - 4}}\;\,Wb/{m^2}\). The induced e.m.f. across the terminal will be