153584 A narrow beam of protons and deuterons, each having the same momentum, enters a region of uniform magnetic field directed perpendicular to their direction of momentum. The ratio of the radii of the circular paths described by them is

153585 A deuteron of kinetic energy $50 \mathrm{keV}$ is describing a circular orbit of radius 0.5 metre in a plane perpendicular to the magnetic field B. The kinetic energy of the proton that describes a circular orbit of radius 0.5 metre in the same plane with the same $B$ is

153588 A wire loop that encloses an area of $20 \mathrm{~cm}^{2}$ has a resistance of $10 \Omega$. The loop is placed in a magnetic field of $2.4 \mathrm{~T}$ with its plane perpendicular to the field. The loop is suddenly removed from the field. How much charge flows pass a given point in the wire?

153591 Two identical coils each of radius $R$ and each carrying a current $I$ in the same direction are placed along a common axis and separated by distance $R$. At the midpoint between the two coils the

153593 Under the influence of a uniform magnetic field a charged particle is moving in a circle of radius $R$ with constant speed $v$. The time period of the motion

153584 A narrow beam of protons and deuterons, each having the same momentum, enters a region of uniform magnetic field directed perpendicular to their direction of momentum. The ratio of the radii of the circular paths described by them is

153585 A deuteron of kinetic energy $50 \mathrm{keV}$ is describing a circular orbit of radius 0.5 metre in a plane perpendicular to the magnetic field B. The kinetic energy of the proton that describes a circular orbit of radius 0.5 metre in the same plane with the same $B$ is

153588 A wire loop that encloses an area of $20 \mathrm{~cm}^{2}$ has a resistance of $10 \Omega$. The loop is placed in a magnetic field of $2.4 \mathrm{~T}$ with its plane perpendicular to the field. The loop is suddenly removed from the field. How much charge flows pass a given point in the wire?

153591 Two identical coils each of radius $R$ and each carrying a current $I$ in the same direction are placed along a common axis and separated by distance $R$. At the midpoint between the two coils the

153593 Under the influence of a uniform magnetic field a charged particle is moving in a circle of radius $R$ with constant speed $v$. The time period of the motion

153584 A narrow beam of protons and deuterons, each having the same momentum, enters a region of uniform magnetic field directed perpendicular to their direction of momentum. The ratio of the radii of the circular paths described by them is

153585 A deuteron of kinetic energy $50 \mathrm{keV}$ is describing a circular orbit of radius 0.5 metre in a plane perpendicular to the magnetic field B. The kinetic energy of the proton that describes a circular orbit of radius 0.5 metre in the same plane with the same $B$ is

153588 A wire loop that encloses an area of $20 \mathrm{~cm}^{2}$ has a resistance of $10 \Omega$. The loop is placed in a magnetic field of $2.4 \mathrm{~T}$ with its plane perpendicular to the field. The loop is suddenly removed from the field. How much charge flows pass a given point in the wire?

153591 Two identical coils each of radius $R$ and each carrying a current $I$ in the same direction are placed along a common axis and separated by distance $R$. At the midpoint between the two coils the

153593 Under the influence of a uniform magnetic field a charged particle is moving in a circle of radius $R$ with constant speed $v$. The time period of the motion

153584 A narrow beam of protons and deuterons, each having the same momentum, enters a region of uniform magnetic field directed perpendicular to their direction of momentum. The ratio of the radii of the circular paths described by them is

153585 A deuteron of kinetic energy $50 \mathrm{keV}$ is describing a circular orbit of radius 0.5 metre in a plane perpendicular to the magnetic field B. The kinetic energy of the proton that describes a circular orbit of radius 0.5 metre in the same plane with the same $B$ is

153588 A wire loop that encloses an area of $20 \mathrm{~cm}^{2}$ has a resistance of $10 \Omega$. The loop is placed in a magnetic field of $2.4 \mathrm{~T}$ with its plane perpendicular to the field. The loop is suddenly removed from the field. How much charge flows pass a given point in the wire?

153591 Two identical coils each of radius $R$ and each carrying a current $I$ in the same direction are placed along a common axis and separated by distance $R$. At the midpoint between the two coils the

153593 Under the influence of a uniform magnetic field a charged particle is moving in a circle of radius $R$ with constant speed $v$. The time period of the motion

153584 A narrow beam of protons and deuterons, each having the same momentum, enters a region of uniform magnetic field directed perpendicular to their direction of momentum. The ratio of the radii of the circular paths described by them is

153585 A deuteron of kinetic energy $50 \mathrm{keV}$ is describing a circular orbit of radius 0.5 metre in a plane perpendicular to the magnetic field B. The kinetic energy of the proton that describes a circular orbit of radius 0.5 metre in the same plane with the same $B$ is

153588 A wire loop that encloses an area of $20 \mathrm{~cm}^{2}$ has a resistance of $10 \Omega$. The loop is placed in a magnetic field of $2.4 \mathrm{~T}$ with its plane perpendicular to the field. The loop is suddenly removed from the field. How much charge flows pass a given point in the wire?

153591 Two identical coils each of radius $R$ and each carrying a current $I$ in the same direction are placed along a common axis and separated by distance $R$. At the midpoint between the two coils the

153593 Under the influence of a uniform magnetic field a charged particle is moving in a circle of radius $R$ with constant speed $v$. The time period of the motion