Home
Class 12
PHYSICS
Three uniform rods, each of mass M and l...

Three uniform rods, each of mass `M` and length `l`, are connected to form an equilateral triangle in a gravity free space. Another small body of mass `m` is kept at the centroid. Find the minimum velocity `v` to be given to mass `m` so that it escapes the gravitational pull of the triangle.

Promotional Banner

Similar Questions

Explore conceptually related problems

Three identical rods, each of mass m and length l , form an equaliteral triangle. Moment of inertia about one of the sides is

Three identical rods, each of mass m and length l , form an equaliteral triangle. Moment of inertia about one of the sides is

Three identical rods each of mass M, length l are joined to form an equilateral DeltaABC . Find the Moment of Inertia about BC as shown.

Three particles, each of mass m, are placed at the vertices of an equilateral triangle. What is the force acting on a particle of mass 2m placed at the centroid D of the triangle ?

Three mass points each of mass m are placed at the vertices of an equilateral tringale of side l. What is the gravitational field and potential due to three masses at the centroid of the triangle ?

Three mass points each of mass m are placed at the vertices of an equilateral tringale of side l. What is the gravitational field and potential due to three masses at the centroid of the triangle ?

Three mass points each of mass m are placed at the vertices of an equilateral triangle of side 1. What is the gravitational field and potential due to the three masses at the centroid of the triangle ?

Three masses each of mass m are palced at the vertices of an equilateral triangles ABC of side l as shown in figure. The force acting on a mass 2m placed at the centroid O of the triangle is

Three masses each of mass m are palced at the vertices of an equilateral triangles ABC of side l as shown in figure. The force acting on a mass 2m placed at the centroid O of the triangle is

Three particles each of mass m are kept at vertices of an equilateral triangle of side L. The gravitational field at centre due to these particle is