A spinning cylinder of mass `m` and radius `R` is lowered on a rough inclined plane of angle `30^(@)` with the horizontal and `mu=1sqrt(3)`. The cylinder is released at a height of `3R` from horizontal. Find the total time taken by the cylinder to reach the bottom of the incline.

A spinning cylinder with angular velocity omega_(0) of mass M and radius R is lowered on a rough inclined plane of angle 30^@ with the horizontal and mu = 1//sqrt(3) . The cylinder is released at a height of 3R from horizontal. Find the total time taken by the cylinder to reach the bottom of the incline.

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 solid cylinder of mass M and radius R rolls without slipping down an inclined plane making an angle 6 with the horizontal. Then its acceleration is.

A cylinder of mass M and radius R rolls on an inclined plane. The gain in kinetic energy is

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 m and radius R rolls down an inclined plane of inclination theta . Calculate the linear acceleration of the axis of cylinder.

A cylinder of mass m and radius R rolls down an inclined plane of inclination theta . Calculate the linear acceleration of the axis of cylinder.

A solid cylinder of mass M and radius R rolls down an inclined plane of height h. The angular velocity of the cylinder when it reaches the bottom of the plane will be :

A uniform cylinder of mass M and radius R is released from rest on a rough inclined surface of inclination theta with the horizontal as shown in figure. As the cylinder rolls down the inclined surface, the maximum elongation it the spring stiffness k is