154739 The currents in two coils of self- inductance 5 $\mathrm{mH}$ and $1 \mathrm{mH}$ are increasing at the same rate at a certain instant. The power supplied to the coils is also same. Then identify the false statement among the following

154741 A magnetic field given by $B(t)=(0.2 t-0.05$ $\left.t^{2}\right) T$ is directed perpendicular to the plane of a circular coil containing 25 turns of radius 1.8 $\mathrm{cm}$ and whose total resistance is $5 \Omega$. The power dissipation at 3 seconds is nearly

154742 Equivalent inductance of two inductors is $2.4 \mathrm{H}$ when connected in parallel and $10 \mathrm{H}$ when connected in series. What is the value of inductance of the individual inductors?

154743 Find the equivalent inductance between $A$ and $B$ in the given circuit.

154744 Two inductors $A$ and $B$ when connected in parallel are equivalent to a single inductor of inductance $1.5 \mathrm{H}$, and when connected in series are equivalent to a single inductor of inductance $8 \mathrm{H}$. Find the difference in the inductances of $A$ and $B$.

154739 The currents in two coils of self- inductance 5 $\mathrm{mH}$ and $1 \mathrm{mH}$ are increasing at the same rate at a certain instant. The power supplied to the coils is also same. Then identify the false statement among the following

154741 A magnetic field given by $B(t)=(0.2 t-0.05$ $\left.t^{2}\right) T$ is directed perpendicular to the plane of a circular coil containing 25 turns of radius 1.8 $\mathrm{cm}$ and whose total resistance is $5 \Omega$. The power dissipation at 3 seconds is nearly

154742 Equivalent inductance of two inductors is $2.4 \mathrm{H}$ when connected in parallel and $10 \mathrm{H}$ when connected in series. What is the value of inductance of the individual inductors?

154743 Find the equivalent inductance between $A$ and $B$ in the given circuit.

154744 Two inductors $A$ and $B$ when connected in parallel are equivalent to a single inductor of inductance $1.5 \mathrm{H}$, and when connected in series are equivalent to a single inductor of inductance $8 \mathrm{H}$. Find the difference in the inductances of $A$ and $B$.

154739 The currents in two coils of self- inductance 5 $\mathrm{mH}$ and $1 \mathrm{mH}$ are increasing at the same rate at a certain instant. The power supplied to the coils is also same. Then identify the false statement among the following

154741 A magnetic field given by $B(t)=(0.2 t-0.05$ $\left.t^{2}\right) T$ is directed perpendicular to the plane of a circular coil containing 25 turns of radius 1.8 $\mathrm{cm}$ and whose total resistance is $5 \Omega$. The power dissipation at 3 seconds is nearly

154742 Equivalent inductance of two inductors is $2.4 \mathrm{H}$ when connected in parallel and $10 \mathrm{H}$ when connected in series. What is the value of inductance of the individual inductors?

154743 Find the equivalent inductance between $A$ and $B$ in the given circuit.

154744 Two inductors $A$ and $B$ when connected in parallel are equivalent to a single inductor of inductance $1.5 \mathrm{H}$, and when connected in series are equivalent to a single inductor of inductance $8 \mathrm{H}$. Find the difference in the inductances of $A$ and $B$.

154739 The currents in two coils of self- inductance 5 $\mathrm{mH}$ and $1 \mathrm{mH}$ are increasing at the same rate at a certain instant. The power supplied to the coils is also same. Then identify the false statement among the following

154741 A magnetic field given by $B(t)=(0.2 t-0.05$ $\left.t^{2}\right) T$ is directed perpendicular to the plane of a circular coil containing 25 turns of radius 1.8 $\mathrm{cm}$ and whose total resistance is $5 \Omega$. The power dissipation at 3 seconds is nearly

154742 Equivalent inductance of two inductors is $2.4 \mathrm{H}$ when connected in parallel and $10 \mathrm{H}$ when connected in series. What is the value of inductance of the individual inductors?

154743 Find the equivalent inductance between $A$ and $B$ in the given circuit.

154744 Two inductors $A$ and $B$ when connected in parallel are equivalent to a single inductor of inductance $1.5 \mathrm{H}$, and when connected in series are equivalent to a single inductor of inductance $8 \mathrm{H}$. Find the difference in the inductances of $A$ and $B$.

154739 The currents in two coils of self- inductance 5 $\mathrm{mH}$ and $1 \mathrm{mH}$ are increasing at the same rate at a certain instant. The power supplied to the coils is also same. Then identify the false statement among the following

154741 A magnetic field given by $B(t)=(0.2 t-0.05$ $\left.t^{2}\right) T$ is directed perpendicular to the plane of a circular coil containing 25 turns of radius 1.8 $\mathrm{cm}$ and whose total resistance is $5 \Omega$. The power dissipation at 3 seconds is nearly

154742 Equivalent inductance of two inductors is $2.4 \mathrm{H}$ when connected in parallel and $10 \mathrm{H}$ when connected in series. What is the value of inductance of the individual inductors?

154743 Find the equivalent inductance between $A$ and $B$ in the given circuit.

154744 Two inductors $A$ and $B$ when connected in parallel are equivalent to a single inductor of inductance $1.5 \mathrm{H}$, and when connected in series are equivalent to a single inductor of inductance $8 \mathrm{H}$. Find the difference in the inductances of $A$ and $B$.