A cylinder of mass `10 kg` is rolling perfectly on a plane of inclination `30^(@)`. Find the force of friction between the cylinder and the surface of inclined plane.

A solid cylinder of mass 8 kg is rolling perfectly down an inclined plane of inclination 30. Calculate the force of friction between the cylinder and inclined plane and acceleration of the cylinder down the inclined plane.

A solid cylinder of mass 10 kg and radius 15 cm is rolling perfectly on a plane of inclination 30^(@) . The coefficient of static friction, mu_(s)=0.25 (i) Find the force of friction acting on the cylinder. (ii) What is the work done against friction during rolling ? (iii) If the inclination theta of the plane is increases, at what value of theta does the cylinder begin to skid, and not roll perfectly ?

A solid cylinder of mass m and radius r is rolling on a rough inclined plane of inclination theta . The coefficient of friction between the cylinder and incline is mu . Then.

A cylinder of mass 10 kg and radius 15 cm is rolling perfectly on a plane of inclination 30^(@) . The coefficient of static friction is mu_(s) = 0.25 . (a) How much is the force of friction acting on the cylinder ? (b) What is the work done against friction during rolling ? (c ) If the inclination theta of plane is increased, at what value of theta does the cylinder begin to skid and not roll perfectly ?

A cylinder of radius R and mass M rolls without slipping down a plane inclined at an angle theta . Coeff. of friction between the cylinder and the plane is mu . For what maximum inclination theta , the cylinder rolls without slipping ?

A cylinder is rolling down on a inclined plane of inclination 60^(@) . What is iths acceleration?

A solid cylinder of mass 8 kg and radius 50 cm is rolling down a plane inclined at an angle of 30^@ with the horizontal. force of friction on the cylinder is?

A block of mass m is at rest on a rough inclined plane of angle of inclination theta . If coefficient of friction between the block and the inclined plane is mu , then the minimum value of force along the plane required to move the block on the plane is

A horizontal uniform rod of mass 'm' has its left end hinged to the fixed incline plane, while its right end rrests on the top of a uniform cylinder of mass 'm' which in turn is at rest on the fixed inclined plane as shown. The coefficient of friction between the cylinder and rod, and between the cylinder and inclined plane, is sufficient to keep the cylinder at rest. The magnitude of normal reaction exerted by the inclinded plane on the cylinder is :