153222 Two short bar magnets each of magnetic moment of $9 \mathrm{Am}^{2}$ are placed such that one is at $x=-3 \mathrm{~cm}$ and the other at $y=-3 \mathrm{~cm}$. If their magnetic moments are directed along positive and negative $X$-directions respectively, then the resultant magnetic field at the origin is

153223 Two infinitely long wires carry currents $4 \mathrm{~A}$ and $3 A$ placed along $X$-axis and $Y$-axis respectively. Magnetic field at a point $P(0,0, d)$ m will be ...... T.

153226 A bar magnet of magnetic moment $M$ is placed at a distance $D$ with its axis along positive $X$ axis. Likewise, second bar magnet of magnetic moment $M$ is placed at a distance $2 D$ on positive $\mathrm{Y}$-axis and perpendicular to it as shown in the figure. The magnitude of magnetic field at the origin is $|B|=\alpha\left[\frac{\mu_{0}}{4 \pi} \frac{M}{D^{3}}\right]$.
The value of $\alpha$ must be (assume $\mathrm{D}>>l$, where $l$ is the length of magnets)

153227 A steady current I flows through a wire with one end at $O$ and the other end extending upto infinity as shown in the figure. The magnetic field at a point $P$, located at a distance $d$ from $O$ is

153228 Consider a current carrying wire shown in the figure. If the radius of the curved part of the wire is $R$ and the linear parts are assumed to be very long, then the magnetic induction of the field at the point $O$ is

153222 Two short bar magnets each of magnetic moment of $9 \mathrm{Am}^{2}$ are placed such that one is at $x=-3 \mathrm{~cm}$ and the other at $y=-3 \mathrm{~cm}$. If their magnetic moments are directed along positive and negative $X$-directions respectively, then the resultant magnetic field at the origin is

153223 Two infinitely long wires carry currents $4 \mathrm{~A}$ and $3 A$ placed along $X$-axis and $Y$-axis respectively. Magnetic field at a point $P(0,0, d)$ m will be ...... T.

153226 A bar magnet of magnetic moment $M$ is placed at a distance $D$ with its axis along positive $X$ axis. Likewise, second bar magnet of magnetic moment $M$ is placed at a distance $2 D$ on positive $\mathrm{Y}$-axis and perpendicular to it as shown in the figure. The magnitude of magnetic field at the origin is $|B|=\alpha\left[\frac{\mu_{0}}{4 \pi} \frac{M}{D^{3}}\right]$.
The value of $\alpha$ must be (assume $\mathrm{D}>>l$, where $l$ is the length of magnets)

153227 A steady current I flows through a wire with one end at $O$ and the other end extending upto infinity as shown in the figure. The magnetic field at a point $P$, located at a distance $d$ from $O$ is

153228 Consider a current carrying wire shown in the figure. If the radius of the curved part of the wire is $R$ and the linear parts are assumed to be very long, then the magnetic induction of the field at the point $O$ is

153222 Two short bar magnets each of magnetic moment of $9 \mathrm{Am}^{2}$ are placed such that one is at $x=-3 \mathrm{~cm}$ and the other at $y=-3 \mathrm{~cm}$. If their magnetic moments are directed along positive and negative $X$-directions respectively, then the resultant magnetic field at the origin is

153223 Two infinitely long wires carry currents $4 \mathrm{~A}$ and $3 A$ placed along $X$-axis and $Y$-axis respectively. Magnetic field at a point $P(0,0, d)$ m will be ...... T.

153226 A bar magnet of magnetic moment $M$ is placed at a distance $D$ with its axis along positive $X$ axis. Likewise, second bar magnet of magnetic moment $M$ is placed at a distance $2 D$ on positive $\mathrm{Y}$-axis and perpendicular to it as shown in the figure. The magnitude of magnetic field at the origin is $|B|=\alpha\left[\frac{\mu_{0}}{4 \pi} \frac{M}{D^{3}}\right]$.
The value of $\alpha$ must be (assume $\mathrm{D}>>l$, where $l$ is the length of magnets)

153227 A steady current I flows through a wire with one end at $O$ and the other end extending upto infinity as shown in the figure. The magnetic field at a point $P$, located at a distance $d$ from $O$ is

153228 Consider a current carrying wire shown in the figure. If the radius of the curved part of the wire is $R$ and the linear parts are assumed to be very long, then the magnetic induction of the field at the point $O$ is

153222 Two short bar magnets each of magnetic moment of $9 \mathrm{Am}^{2}$ are placed such that one is at $x=-3 \mathrm{~cm}$ and the other at $y=-3 \mathrm{~cm}$. If their magnetic moments are directed along positive and negative $X$-directions respectively, then the resultant magnetic field at the origin is

153223 Two infinitely long wires carry currents $4 \mathrm{~A}$ and $3 A$ placed along $X$-axis and $Y$-axis respectively. Magnetic field at a point $P(0,0, d)$ m will be ...... T.

153226 A bar magnet of magnetic moment $M$ is placed at a distance $D$ with its axis along positive $X$ axis. Likewise, second bar magnet of magnetic moment $M$ is placed at a distance $2 D$ on positive $\mathrm{Y}$-axis and perpendicular to it as shown in the figure. The magnitude of magnetic field at the origin is $|B|=\alpha\left[\frac{\mu_{0}}{4 \pi} \frac{M}{D^{3}}\right]$.
The value of $\alpha$ must be (assume $\mathrm{D}>>l$, where $l$ is the length of magnets)

153227 A steady current I flows through a wire with one end at $O$ and the other end extending upto infinity as shown in the figure. The magnetic field at a point $P$, located at a distance $d$ from $O$ is

153228 Consider a current carrying wire shown in the figure. If the radius of the curved part of the wire is $R$ and the linear parts are assumed to be very long, then the magnetic induction of the field at the point $O$ is

153222 Two short bar magnets each of magnetic moment of $9 \mathrm{Am}^{2}$ are placed such that one is at $x=-3 \mathrm{~cm}$ and the other at $y=-3 \mathrm{~cm}$. If their magnetic moments are directed along positive and negative $X$-directions respectively, then the resultant magnetic field at the origin is

153223 Two infinitely long wires carry currents $4 \mathrm{~A}$ and $3 A$ placed along $X$-axis and $Y$-axis respectively. Magnetic field at a point $P(0,0, d)$ m will be ...... T.

153226 A bar magnet of magnetic moment $M$ is placed at a distance $D$ with its axis along positive $X$ axis. Likewise, second bar magnet of magnetic moment $M$ is placed at a distance $2 D$ on positive $\mathrm{Y}$-axis and perpendicular to it as shown in the figure. The magnitude of magnetic field at the origin is $|B|=\alpha\left[\frac{\mu_{0}}{4 \pi} \frac{M}{D^{3}}\right]$.
The value of $\alpha$ must be (assume $\mathrm{D}>>l$, where $l$ is the length of magnets)

153227 A steady current I flows through a wire with one end at $O$ and the other end extending upto infinity as shown in the figure. The magnetic field at a point $P$, located at a distance $d$ from $O$ is

153228 Consider a current carrying wire shown in the figure. If the radius of the curved part of the wire is $R$ and the linear parts are assumed to be very long, then the magnetic induction of the field at the point $O$ is