153575 A proton and an $\alpha$-particle enter a uniform magnetic field perpendicularly with the same speed. If proton takes $25 \mu \mathrm{s}$ to make 5 revolutions, then the periodic time for the $\alpha$ particle would be

153576 A charged particle of charge $q$ of mass $m$ moves in a circular path of radius $r$ is a magnetic field of intensity $B$. The frequency of revolution will be

153578 The charge on a particle $Y$ is double the charge on particle $X$. These two particles $X$ and $Y$ after being accelerated through the same potential difference enter a region of uniform magnetic field and describe circular paths of radii $R_{1}$ and $R_{2}$ respectively. The ratio of the mass of $X$ to that of $Y$ is

153583 A charged particle moving in a uniform magnetic field and losses $4 \%$ of its kinetic energy. The radius of curvature of its path changes by

153575 A proton and an $\alpha$-particle enter a uniform magnetic field perpendicularly with the same speed. If proton takes $25 \mu \mathrm{s}$ to make 5 revolutions, then the periodic time for the $\alpha$ particle would be

153576 A charged particle of charge $q$ of mass $m$ moves in a circular path of radius $r$ is a magnetic field of intensity $B$. The frequency of revolution will be

153578 The charge on a particle $Y$ is double the charge on particle $X$. These two particles $X$ and $Y$ after being accelerated through the same potential difference enter a region of uniform magnetic field and describe circular paths of radii $R_{1}$ and $R_{2}$ respectively. The ratio of the mass of $X$ to that of $Y$ is

153583 A charged particle moving in a uniform magnetic field and losses $4 \%$ of its kinetic energy. The radius of curvature of its path changes by

153575 A proton and an $\alpha$-particle enter a uniform magnetic field perpendicularly with the same speed. If proton takes $25 \mu \mathrm{s}$ to make 5 revolutions, then the periodic time for the $\alpha$ particle would be

153576 A charged particle of charge $q$ of mass $m$ moves in a circular path of radius $r$ is a magnetic field of intensity $B$. The frequency of revolution will be

153578 The charge on a particle $Y$ is double the charge on particle $X$. These two particles $X$ and $Y$ after being accelerated through the same potential difference enter a region of uniform magnetic field and describe circular paths of radii $R_{1}$ and $R_{2}$ respectively. The ratio of the mass of $X$ to that of $Y$ is

153583 A charged particle moving in a uniform magnetic field and losses $4 \%$ of its kinetic energy. The radius of curvature of its path changes by

153575 A proton and an $\alpha$-particle enter a uniform magnetic field perpendicularly with the same speed. If proton takes $25 \mu \mathrm{s}$ to make 5 revolutions, then the periodic time for the $\alpha$ particle would be

153576 A charged particle of charge $q$ of mass $m$ moves in a circular path of radius $r$ is a magnetic field of intensity $B$. The frequency of revolution will be

153578 The charge on a particle $Y$ is double the charge on particle $X$. These two particles $X$ and $Y$ after being accelerated through the same potential difference enter a region of uniform magnetic field and describe circular paths of radii $R_{1}$ and $R_{2}$ respectively. The ratio of the mass of $X$ to that of $Y$ is

153583 A charged particle moving in a uniform magnetic field and losses $4 \%$ of its kinetic energy. The radius of curvature of its path changes by