145309 A small particle of mass $m$ moves in such a way that its potential energy $U=\frac{1}{2} m \omega^{2} r^{2}$ where $\omega$ is constant and $r$ is the distance of the particle from origin Assuming Bohr's quantization of momentum and circular orbit, the radius of $n^{\text {th }}$ orbit will be proportional to
145309 A small particle of mass $m$ moves in such a way that its potential energy $U=\frac{1}{2} m \omega^{2} r^{2}$ where $\omega$ is constant and $r$ is the distance of the particle from origin Assuming Bohr's quantization of momentum and circular orbit, the radius of $n^{\text {th }}$ orbit will be proportional to
145309 A small particle of mass $m$ moves in such a way that its potential energy $U=\frac{1}{2} m \omega^{2} r^{2}$ where $\omega$ is constant and $r$ is the distance of the particle from origin Assuming Bohr's quantization of momentum and circular orbit, the radius of $n^{\text {th }}$ orbit will be proportional to
145309 A small particle of mass $m$ moves in such a way that its potential energy $U=\frac{1}{2} m \omega^{2} r^{2}$ where $\omega$ is constant and $r$ is the distance of the particle from origin Assuming Bohr's quantization of momentum and circular orbit, the radius of $n^{\text {th }}$ orbit will be proportional to
145309 A small particle of mass $m$ moves in such a way that its potential energy $U=\frac{1}{2} m \omega^{2} r^{2}$ where $\omega$ is constant and $r$ is the distance of the particle from origin Assuming Bohr's quantization of momentum and circular orbit, the radius of $n^{\text {th }}$ orbit will be proportional to