A man is slipping on a frictionless inclined plane and a bag falls down from the same height. Then the velocity of both is related as
$v_{B}>v_{m}$
$v_{B} < v_{m}$
$v_{B}=v_{m}$
$v_{B}$ and $v_{m}$ can't be related.
In the figure shown the velocity of different blocks is shown. The velocity of $C$ is $.........\,m/s$
A slider block $A$ moves downward at a speed of $v_A = 2\ m/s$ , at an angle of $75^o$ with horizontal as shown in the figure. The velocity with respect to $A$ of the portion of belt $B$ between ideal pulleys $C$ and $D$ is $v_{CD/A} = 2\ m/s$ at an angle $\theta $ with the horizontal. The magnitude of velocity of portion $CD$ of the belt when $\theta = 15^o$ is .......... $m/s$
If acceleration of $A$ is $2 \,\,m/s^2$ to left and acceleration of $B$ is $1\,\,m/s^2$ to left, then acceleration of $C$ is
For the given fig. find the speed of block $A$ when $\theta = {60^o}$
Find the velocity of the hanging block if the velocities of the free ends of the rope are as indicated in the figure.