In the arrangement shown, the pulleys and the string are ideal. The acceleration of block `B` is.

In the arrangement shown, the pulleys and the strings are ideal.The acceleration of the block B is

In the arrangement shown, the pulleys and strings are massless. The acceleration of block B is :

In the arrangement shown, the pulleys and strings are massless. The acceleration of block B is :

In the arrangement shown, the pulleys are smooth and the strings are inextensible. The acceleration of block B is :

In the arrangement shown all pulleys and strings are ideal. A vertical downward force of 10N is needed to apply on block A to keep the system in equilibrium. If mass of B is 10kg then find the mass of A

In the diagram shown in figure, both pulleys and strings are massless. The acceleration of 2 kg block is

In the diagram shown in figure, both pulleys and strings are massless. The acceleration of 2 kg block is

In the arrangement shown, the pulleys, string and the spring balance, all the ideal. If m_(1) gt m_(2) , then the reading of the spring balance is

In the arrangement shown, the pulleys, string and the spring balance, all the ideal. If m_(1) gt m_(2) , then the reading of the spring balance is

In the pulley-block arrangement shown in figure , find the relation between acceleration of blocks A and B