[" 35.Suppose the smaller pulley of the previous problem has "],[" its radius "5^(-0)cm" and moment of inertia "0^(-10)kg-m^(2)" .Find "],[" the tension in the part of the string joining the pulleys."]

The pulley shown in figure has a radius 10 cm and moment of inertia 0.5 kg-m^2 about its axis. Assuming the inclined planes to be frictionless, calculate the acceleration of the 4.0 kg block.

The pulley shown in figure has a radius 10 cm and moment of inertia 0.5 kg-m^2 about its axis. Assuming the inclined planes to be frictionless, calculate the acceleration of the 4.0 kg block.

The pulley shown in figure has a radius 10 cm and moment of inertia 0.5 kg-m^2 about its axis. Assuming the inclined planes to be frictionless, calculate the acceleration of the 4.0 kg block.

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

The descending pulley shown in figure has a radius 20 cm and moment of inertia 0.20 kg-m^2. The fixed pulley is light and the horizontal plane frictionless. Find the acceleration of the block if its mass is 1.0 kg.

The descending pulley shown in figure has a radius 20 cm and moment of inertia 0.20 kg-m^2. The fixed pulley is light and the horizontal plane frictionless. Find the acceleration of the block if its mass is 1.0 kg.

The descending pulley shown in figure has a radius 20 cm and moment of inertia 0.20 kg-m^2. The fixed pulley is light and the horizontal plane frictionless. Find the acceleration of the block if its mass is 1.0 kg.

The pulleys in figure are identical, each having a radius R and moment of inertia I. Find the acceleration of the block M.