A square coil ${10}^{-2} {\mathrm{m}}^2$ area is placed perpendicular to a uniform magnetic field of intensity ${10}^3 \mathrm{Wb} {\mathrm{m}}^{-2}$. The magnetic flux through the coil is  

A metallic square loop $\mathrm{ABCD}$ is moving in its own plane with velocity $v$ in a uniform magnetic field perpendicular to its plane as shown in the figure. An electric field is induced

The figure shows three regions of magnetic field, each of area $A$. In each region, the magnitude of magnetic field decreases at a constant rate $\alpha$. If $\overrightarrow{E}$ is the induced electric field, then the value of the line integral, $\oint \overrightarrow{E}.\overrightarrow{dl}$, along the given loop, is equal to

Figure shows three regions of magnetic field each of area $A$ and in each region magnitude of magnetic field decreases at a constant rate $\alpha$. If $\overrightarrow{E}$ is induced electric field, then value of line integral $\oint \overrightarrow{E}·\mathrm{d}\overrightarrow{r}$ along the given loop is equal to,

When magnetic flux passing through a coil is changed, the variation of induced current in the coil with time is as shown in graph. If the resistance of coil is $10 \mathrm{\Omega }$ , then the total change in flux through the coil will be,