Home
Class 12
PHYSICS
A point objects of mass m is slipping do...

A point objects of mass `m` is slipping down on a smooth hemispherical body of mass `M` and radius `R`. The point object is tied to a wall with an ideal string as shown. At a certain instant, speed of the hemisphere is `v` and its acceleration is a. Then speed `v_(p)` and acceleration `a_(p)` of a particle has value (Assume all the surfaces in contact are frictionless)

Promotional Banner

Similar Questions

Explore conceptually related problems

A symmetrical body of mass M and radius R is rolling without slipping on a horizontal surface with linear speed v. Then its angular speed is

An object of mass m is tied to a light string wound around a pulley that has a moment of inertia I and radius R . The wheel bearing is fricrtionless and the string does not slip on the run. Find the tension in the string and the acceleration of the object.

A particle of mass m is released from the top of a smooth hemisphere of radius R with the horizontal speed mu . Calculate the angle with verticle where it loses contact with the hemisphere.

A loop of mass M and radius R is rolling on a smooth horizontal surface with speed 'v'. It's total kinetic energy is

A particle of mass m is going along surface of smooth hemisphere of radius R in verticle plane. At the moment shown its speed is v. Choose correct option(s).

A small body of mass m slides down from the top of a hemisphere of radius r . The surface of block and hemisphere are frictionless. The height at which the body lose contact with the surface of the sphere is

A block of mass M is connected with a particle of mass m by a light inextensible string as shown in fig. Assuming all contaction surfaces as smooth, find the acceleration of the wedge after releasing the system.

A particle of mass 'm' is moving along a circle of radius 'r'. At some instant, its speed is 'v' and it is gaining speed at a uniform rate'a', then, at the given instant, acceleration of the mparticle is :

A ring of mass m and radius R has four particles each of mass m attached to the ring as shown in figure. The centre of ring has a speed v_(0). The kinetic energy of the system is