Home
Class 12
PHYSICS
A block of mass 'm' is pulled by a const...

A block of mass 'm' is pulled by a constant power 'p' placed on a rough horizontal plane . The coefficient of friction between the block and the surface is `mu`. Maximum velocity of the block will be

Promotional Banner

Similar Questions

Explore conceptually related problems

A block of mass m is pulled by a force of constant power P placed on a rough horizontal plane. The friction coefficient between the block and the surface is mu . Then

A block of mass m is pulled by a force of constant power P placed on a rough horizontal plane. The friction coefficient between the block and the surface is mu . Then

A block of mass m ios pulled by a constant power P placed on a rough horizontal plane. The friction co-efficient between the block and surface is mu. Find maximum velocity of the block.

A block of mass m is pulled by a constant powert P placed on a rough horizontal plane. The friction coefficient the block and surface is mu . The maximum velocity of the block is.

A block of mass m is pulled by a constant powert P placed on a rough horizontal plane. The friction coefficient the block and surface is mu . The maximum velocity of the block is.

A block of 10kg is pulled at a constant speed on a rough horizontal plane by a force of 20N . Calculate the coefficient of friction ?

A block of mass m is being pulled up a rough incline by an agent delivering constant power P. The coefficient of friction between the block and the incline is mu . The maximum speed of the block during the course of ascent is

A block of mass m is being pulled up a rough incline by an agent delivering constant power P. The coefficient of friction between the block and the incline is mu . The maximum speed of the block during the course of ascent is

A block of mass m is moving with a constant acceleration a on a rough horizontal plane. If the coefficient of friction between the block and ground is mu , the power delivered by the external agent in a time interval t from the beginning is equal to: