Home
Class 11
PHYSICS
A solid cylinder of mass m rolls on a ro...

A solid cylinder of mass `m` rolls on a rough surface with velocity `v_(0)`. It collides elastically with a cubical block of same mass at rest. The centre of mass of both the bodies are at same height. Coefficient of friction between horizontal surface and cylinder as well as horizontal surface and cube is `mu`. No frictional exists between cylinder and cube. The cylinder collides the, cube at `t = 0`, then.

Percentage of energy of cylinder lost due to collision is:

A

zero

B

`50%`

C

`66.67%`

D

`33.33%`

Text Solution

Verified by Experts

The correct Answer is:
D
Promotional Banner

Topper's Solved these Questions

  • RIGID BODY MOTION

    ANURAG MISHRA|Exercise MATCH THE COLUMN|12 Videos

  • RIGID BODY MOTION

    ANURAG MISHRA|Exercise MCQ_TYPE|41 Videos

  • IMPULSE AND MOMENTUM

    ANURAG MISHRA|Exercise matching|3 Videos

  • UNIT AND DIMENSIONS

    ANURAG MISHRA|Exercise Matching Type Problem|4 Videos

Similar Questions

Explore conceptually related problems

A solid cylinder of mass m rolls on a rough surface with velocity v_(0) . It collides elastically with a cubical block of same mass at rest. The centre of mass of both the bodies are at same height. Coefficient of friction between horizontal surface and cylinder as well as horizontal surface and cube is mu . No frictional exists between cylinder and cube. The cylinder collides the, cube at t = 0 , then. Velocity of cube when the cylinder starts pure rolling:

A solid cylinder of mass m rolls on a rough surface with velocity v_(0) . It collides elastically with a cubical block of same mass at rest. The centre of mass of both the bodies are at same height. Coefficient of friction between horizontal surface and cylinder as well as horizontal surface and cube is mu . No frictional exists between cylinder and cube. The cylinder collides the, cube at t = 0 , then. Maximum separation between cylinder before it collide the cube again is:

A solid cylinder of mass m rolls on a rough surface with velocity v_(0) . It collides elastically with a cubical block of same mass at rest. The centre of mass of both the bodies are at same height. Coefficient of friction between horizontal surface and cylinder as well as horizontal surface and cube is mu . No frictional exists between cylinder and cube. The cylinder collides the, cube at t = 0 , then. Velocity of cylinder with which it will collide with cube again is:

A solid cylinder of mass m rolls on a rough surface with velocity v_(0) . It collides elastically with a cubical block of same mass at rest. The centre of mass of both the bodies are at same height. Coefficient of friction between horizontal surface and cylinder as well as horizontal surface and cube is mu . No frictional exists between cylinder and cube. The cylinder collides the, cube at t = 0 , then. Regarding frictional force acting on cylinder we can say that:

A solid cylinder of mass m rolls on a rough surface with velocity v_(0) . It collides elastically with a cubical block of same mass at rest. The centre of mass of both the bodies are at same height. Coefficient of friction between horizontal surface and cylinder as well as horizontal surface and cube is mu . No frictional exists between cylinder and cube. The cylinder collides the, cube at t = 0 , then. Time after which the cylinder starts pure rolling again:

A force F accelerates a block of mass m on horizontal surface. The coefficient of friction between the contact surface is . The acceleration of m will be -

A solid cylinder of mass 3 kg is rolling on a horizontal surface with velocity 4 ms^(-1) . It collides with a horizontal spring of force constant 200 Nm^(-1) . The maximum compression producec in the spring will be :

A body of mass m kept on the floor of a lift moving downwards is pulled horizontally. If mu is the coefficient of friction between the surface in contact, then

A string wrapped around a cyliner of mass m and radius R . The end of the string is connected to block of same mass hanging vertically. No friction exists between the horizontal surface and cylinder. Acceleration of cylinder is:

ANURAG MISHRA-RIGID BODY MOTION-COMPREHENSION_TYPE
  1. A solid cylinder of mass m rolls on a rough surface with velocity v(0)...

    Text Solution

    |

  2. A solid cylinder of mass m rolls on a rough surface with velocity v(0)...

    Text Solution

    |

  3. A solid cylinder of mass m rolls on a rough surface with velocity v(0)...

    Text Solution

    |

  4. A solid cylinder of mass m rolls on a rough surface with velocity v(0)...

    Text Solution

    |

  5. A solid cylinder of mass m rolls on a rough surface with velocity v(0)...

    Text Solution

    |

  6. A solid cylinder of mass m rolls on a rough surface with velocity v(0)...

    Text Solution

    |

  7. A uniform rod mass m and length L is free to rotate about hinge O. A s...

    Text Solution

    |

  8. A uniform rod mass m and length L is free to rotate about hinge O. A s...

    Text Solution

    |

  9. A uniform rod mass m and length L is free to rotate about hinge O. A s...

    Text Solution

    |

  10. A spool of mass m has moment of inertia I= 2mR^(2) about its axis of s...

    Text Solution

    |

  11. A spool of mass m has moment of inertia I= 2mR^(2) about its axis of s...

    Text Solution

    |

  12. A spool of mass m has moment of inertia I= 2mR^(2) about its axis of s...

    Text Solution

    |

  13. A spool of mass m has moment of inertia I= 2mR^(2) about its axis of s...

    Text Solution

    |

  14. A spool of mass m has moment of inertia I= 2mR^(2) about its axis of s...

    Text Solution

    |

  15. A spool of mass m has moment of inertia I= 2mR^(2) about its axis of s...

    Text Solution

    |

  16. A string wrapped around a cyliner of mass m and radius R. The end of t...

    Text Solution

    |

  17. A string wrapped around a cyliner of mass m and radius R. The end of t...

    Text Solution

    |

  18. A string wrapped around a cyliner of mass m and radius R. The end of t...

    Text Solution

    |

  19. A string wrapped around a cylinder of mass m and radius R. The end of ...

    Text Solution

    |

  20. A string wrapped around a cyliner of mass m and radius R. The end of t...

    Text Solution

    |