355710 A body of mass $1kg$ is rotating in a vertical circle of radius $1m.$ what will be the difference in its kinetic energy at the top and bottom of the circle?(take, $g=10m{s}^{-2}$ )

355711 A stone of mass $1kg$ tied on one end of the light string is whirled in vertical circle, as shown in the figure. The tension in the string (in $N$) when the string becomes horizontal is

355712 A particle moves down the inclined surface and completes a vertical circular motion. The ratio of $H$ and $h$ is

355713 A body of mass $mkg$ slides from rest along the curve of vertical circle from point $A$ to $B$ in frictionless path. The velocity of the body at $B$ is


(Given : $R=14m,$ $g=10m/s^2$ and $\sqrt{2}=1.4$ )

355710 A body of mass $1kg$ is rotating in a vertical circle of radius $1m.$ what will be the difference in its kinetic energy at the top and bottom of the circle?(take, $g=10m{s}^{-2}$ )

355711 A stone of mass $1kg$ tied on one end of the light string is whirled in vertical circle, as shown in the figure. The tension in the string (in $N$) when the string becomes horizontal is

355712 A particle moves down the inclined surface and completes a vertical circular motion. The ratio of $H$ and $h$ is

355713 A body of mass $mkg$ slides from rest along the curve of vertical circle from point $A$ to $B$ in frictionless path. The velocity of the body at $B$ is


(Given : $R=14m,$ $g=10m/s^2$ and $\sqrt{2}=1.4$ )

355714 The mass of a pendulum bob is $200$ gram and the string is $2$ metre long. The bob is held so that the string is horizontal, and it is then allowed to fall. The K.E. of the bob when string makes an angle of ${45}^{\circ }$ with vertical is
(Take $g=10m/s^2$ and $\sqrt{2}=1.41$ )

355710 A body of mass $1kg$ is rotating in a vertical circle of radius $1m.$ what will be the difference in its kinetic energy at the top and bottom of the circle?(take, $g=10m{s}^{-2}$ )

355711 A stone of mass $1kg$ tied on one end of the light string is whirled in vertical circle, as shown in the figure. The tension in the string (in $N$) when the string becomes horizontal is

355712 A particle moves down the inclined surface and completes a vertical circular motion. The ratio of $H$ and $h$ is

355713 A body of mass $mkg$ slides from rest along the curve of vertical circle from point $A$ to $B$ in frictionless path. The velocity of the body at $B$ is


(Given : $R=14m,$ $g=10m/s^2$ and $\sqrt{2}=1.4$ )

355714 The mass of a pendulum bob is $200$ gram and the string is $2$ metre long. The bob is held so that the string is horizontal, and it is then allowed to fall. The K.E. of the bob when string makes an angle of ${45}^{\circ }$ with vertical is
(Take $g=10m/s^2$ and $\sqrt{2}=1.41$ )

355710 A body of mass $1kg$ is rotating in a vertical circle of radius $1m.$ what will be the difference in its kinetic energy at the top and bottom of the circle?(take, $g=10m{s}^{-2}$ )

355711 A stone of mass $1kg$ tied on one end of the light string is whirled in vertical circle, as shown in the figure. The tension in the string (in $N$) when the string becomes horizontal is

355712 A particle moves down the inclined surface and completes a vertical circular motion. The ratio of $H$ and $h$ is

355713 A body of mass $mkg$ slides from rest along the curve of vertical circle from point $A$ to $B$ in frictionless path. The velocity of the body at $B$ is


(Given : $R=14m,$ $g=10m/s^2$ and $\sqrt{2}=1.4$ )

355714 The mass of a pendulum bob is $200$ gram and the string is $2$ metre long. The bob is held so that the string is horizontal, and it is then allowed to fall. The K.E. of the bob when string makes an angle of ${45}^{\circ }$ with vertical is
(Take $g=10m/s^2$ and $\sqrt{2}=1.41$ )

355710 A body of mass $1kg$ is rotating in a vertical circle of radius $1m.$ what will be the difference in its kinetic energy at the top and bottom of the circle?(take, $g=10m{s}^{-2}$ )

355711 A stone of mass $1kg$ tied on one end of the light string is whirled in vertical circle, as shown in the figure. The tension in the string (in $N$) when the string becomes horizontal is

355712 A particle moves down the inclined surface and completes a vertical circular motion. The ratio of $H$ and $h$ is

355713 A body of mass $mkg$ slides from rest along the curve of vertical circle from point $A$ to $B$ in frictionless path. The velocity of the body at $B$ is


(Given : $R=14m,$ $g=10m/s^2$ and $\sqrt{2}=1.4$ )

355714 The mass of a pendulum bob is $200$ gram and the string is $2$ metre long. The bob is held so that the string is horizontal, and it is then allowed to fall. The K.E. of the bob when string makes an angle of ${45}^{\circ }$ with vertical is
(Take $g=10m/s^2$ and $\sqrt{2}=1.41$ )