In the system shown in fig., all pulleys are mass less and the string is inextensible and light.
(a) After the system is released, find the acceleration of mass `m_(1)`
(b) If `m_(1) = 1 kg, m_(2) = 2 kg "and" m_(3) = 3 `kg then what must be value of mass `m_(4)` so that it accelerates downwards?

In the system shown in fig., m_(A)=4m , m_(B)=3m , and m_(c)=8m . Friction is absent everywhere. String is inextensible and light. If the system is released from rest, then Acceleration of block C is

Consider the system ofpulleysasshown in figure-2.197. Find the acceleration of the three masses m^(1),m^(2) and m^(3). (m_(1) = I kg,m_(2) = 2kg " and " m_(3) =3kg)

In the system shown in fig., m_(A)=4m , m_(B)=3m , and m_(c)=8m . Friction is absent everywhere. String is inextensible and light. If the system is released from rest, then Acceleration of Block B is

In the arrangement shown in the fig. all pulleys are mass less and the strings are inextensible and light. Block A has mass M. (a) If the system stays at rest after it is released, find the mass of the block B. (b) If mass of the block B is twice the value found in part (a) of the problem, calculate the acceleration of block A.

If m_(1) =10kg,m_(2)=4kg,m_(3) =2kg , the acceleration of system is .

In the system shown in fig., m_(A)=4m , m_(B)=3m , and m_(c)=8m . Friction is absent everywhere. String is inextensible and light. If the system is released from rest, then Acceleration of Block A in horizontal direction is

In the pulley system shown here, find the relationship between acceleration of m_(1),m_(2) and m_(3)

In the arrangement shown in fig. m_(1)=1kg, m_(2)=2 kg . Pulleys are massless and strings are light. For what value of M, the mass m_(1) moves with constant velocity.

In the system shown in figure m_(B)=4kg , and m_(A)=2kg . The pulleys are massless and friction is absent everywhere. The acceleration of block A is.