Consider the situation as shown. The pulley has a moment of inertia I, and radius r, the block is in equilibrium. Find the time period of mass m. Assume no slipping.

Consider the situation as shown in the figure. The pulley has moment of inertia I and radius r . The table is rough and the coefficient of kinetic friction is mu_(k) . The system is released from the rest. Calculated speed of block of mass 3m as a function of the distance h it has descended. Assume no slipping.

Consider the situation as shown in the diagram. The pulley has radius R and moment of inertia I . The block is release when the spring (spring constant k ) is unstretched. Find the speed of block when the vlock has fallen a distance h . Assume no slipping.

Consider the situation as shown in the figure. The moment of inertia of wheel is 2 kg m^(2) and its radius is 0.25 m . Find the angular acceleration of the wheel, assuming no slipping.

An object of mass m is tied to a light string wound around a pulley that has a moment of inertia I and radius R . The wheel bearing is fricrtionless and the string does not slip on the run. Find the tension in the string and the acceleration of the object.

Figure shows two blocks of masses m and M connected by a string passing over a pulley. The horizontal table over which the mass m slides is smooth. The pulley has a radius r and moment of inertia I about its axis and it can freely rotate about this axis. Find the acceleration of the mass M assuming that the string does not slip on the pulley.

Figure shows two blocks of masses m and M connected by a string passing over a pulley. The horizontal table over which the mass m slides is smooth. The pulley has a radius r and moment of inertia I about its axis and it can freely rotate about this axis. Find the acceleration of the mass M assuming that the string does not slip on the pulley.

Figure shows two blocks of masses m and M connected bky a string pasing over a pulley. The horizontal table over which the mass m slides is smooth. The pulley has a radius r and moment of inertia I about its axis and it can freely rotte about this axis. Find the accelerationof the mass M asuming that the string does not slip on the pulley.

Solve the previous problem if the pulley has a moment of inertia I about its axis and the string does not slip over it.