154510 A conducting square loop of side $L$ and resistance $\mathbf{R}$ moves in its plane with a uniform velocity $v$ perpendicular to one of its side. A magnetic induction $B$ constant in time and space, pointing perpendicular and into the plane of the loop exists everywhere

The current induced in the loop is

154511 What determines the charge that flows through a circuit due to the induced
{OR}
The total charge, induced in a conducting loop when it is moved in magnetic field depends on

154513 A magnetic field of $1 \mathrm{~T}$ applied at an angle $\pi / 3$ to the vertical direction is decreased to zero at a steady rate in one second. The magnitude of induced emf in a horizontally placed circular loop of radius $5 \mathrm{~cm}$ is given by

154505 Two coils of wire $A$ and $B$ are placed mutually perpendicular as shown. When current is changed in any one coil.

154510 A conducting square loop of side $L$ and resistance $\mathbf{R}$ moves in its plane with a uniform velocity $v$ perpendicular to one of its side. A magnetic induction $B$ constant in time and space, pointing perpendicular and into the plane of the loop exists everywhere

The current induced in the loop is

154511 What determines the charge that flows through a circuit due to the induced
{OR}
The total charge, induced in a conducting loop when it is moved in magnetic field depends on

154513 A magnetic field of $1 \mathrm{~T}$ applied at an angle $\pi / 3$ to the vertical direction is decreased to zero at a steady rate in one second. The magnitude of induced emf in a horizontally placed circular loop of radius $5 \mathrm{~cm}$ is given by

154505 Two coils of wire $A$ and $B$ are placed mutually perpendicular as shown. When current is changed in any one coil.

154510 A conducting square loop of side $L$ and resistance $\mathbf{R}$ moves in its plane with a uniform velocity $v$ perpendicular to one of its side. A magnetic induction $B$ constant in time and space, pointing perpendicular and into the plane of the loop exists everywhere

The current induced in the loop is

154511 What determines the charge that flows through a circuit due to the induced
{OR}
The total charge, induced in a conducting loop when it is moved in magnetic field depends on

154513 A magnetic field of $1 \mathrm{~T}$ applied at an angle $\pi / 3$ to the vertical direction is decreased to zero at a steady rate in one second. The magnitude of induced emf in a horizontally placed circular loop of radius $5 \mathrm{~cm}$ is given by

154505 Two coils of wire $A$ and $B$ are placed mutually perpendicular as shown. When current is changed in any one coil.

154510 A conducting square loop of side $L$ and resistance $\mathbf{R}$ moves in its plane with a uniform velocity $v$ perpendicular to one of its side. A magnetic induction $B$ constant in time and space, pointing perpendicular and into the plane of the loop exists everywhere

The current induced in the loop is

154511 What determines the charge that flows through a circuit due to the induced
{OR}
The total charge, induced in a conducting loop when it is moved in magnetic field depends on

154513 A magnetic field of $1 \mathrm{~T}$ applied at an angle $\pi / 3$ to the vertical direction is decreased to zero at a steady rate in one second. The magnitude of induced emf in a horizontally placed circular loop of radius $5 \mathrm{~cm}$ is given by

154505 Two coils of wire $A$ and $B$ are placed mutually perpendicular as shown. When current is changed in any one coil.