A small block of mass `4 kg` is attached to a cord passing through a hole in a horizontal frictionless surface. The block is originally revolving in a circle of radius of `5 m` about the hole, with a tangential velocity of `4 m//s`. The cord is then pulled slowly from below, shortening the radius of the circle in which the block revolves. The breaking strength of the cord is `200 N`.
What will be the radius of the circle when the cord breaks?

A small block of mass 4 kg is attached to a cord passing through a hole in a horizontal frictionless syurface . The block is originally revolving in a circle of radius 0.5 m about the hole , with a tangential velocity of 4 m/s . The cord is then pulled slowly from below , shortening the radius of the circle in which the block revolves . The breaking strength of the cord is 600 N . What will be the radius of the circle when the cord breaks ?

A small block of mass 4kg is attached to a cord passing through a hole in a horizontal frictionless surface. The block is originally revolving in a circle of radius 0.5 m about the hole with a tangential velocity of 4m//s . The cord is then pulled slowly from below, shorteing the radius of the circle in which the block revolves. The breaking strength of the cord is 600 N . What will be radius of the circle when the cord breaks?

A small block of mass 4kg is attached to a cord passing through a hole in a horizontal frictionless surface. The block is originally revolving in a circle of radius 0.5 m about the hole with a tangential velocity of 4m//s . The cord is then pulled slowly from below, shorteing the radius of the circle in which the block revolves. The breaking strength of the cord is 600 N . What will be radius of the circle when the cord breaks?

A small block of mass 4 kg is attached to a cord passing through a hole in a horizontal frictionless surface. The block is originally revolving in a circle of radius of 5 m about the hole, with a tangential velocity of 4 m//s . The cord is then pulled slowly from below, shortening the radius of the circle in which the block revolves. The breaking strength of the cord is 200 N . Velocity of the block at the time of breaking of the string

A small block of mass 4 kg is attached to a cord passing through a hole in a horizontal frictionless surface. The block is originally revolving in a circle of radius of 5 m about the hole, with a tangential velocity of 4 m//s . The cord is then pulled slowly from below, shortening the radius of the circle in which the block revolves. The breaking strength of the cord is 200 N . Velocity of the block at the time of breaking of the string

A block of mass 0.1 kg is attached to a cord passing through a hole in a horizontal frictionless horizontal surface as shown in the figure. The block is originally revolving at a distance of 0.4 m from the hole, with an angular velocity of "2 rad s"^(-1) . The cord is then pulled from below, shortening the radius of the circle in which the block revolves to 0.2 m. Considering the block to be point mass, calculate the new angular velocity ("in rad s"^(-1))

A block of mass 0.1 kg is attached to a cord passing through a hole in a horizontal frictionless horizontal surface as shown in the figure. The block is originally revolving at a distance of 0.4 m from the hole, with an angular velocity of "2 rad s"^(-1) . The cord is then pulled from below, shortening the radius of the circle in which the block revolves to 0.2 m. Considering the block to be point mass, calculate the new angular velocity ("in rad s"^(-1))

A puck of mass m = 50.0 g is attached to a taut cord passing through a small hole in a frictionless, horizontal surface (Fig.) The puck is initially orbiting with speed v_i = 1.50 m//s in a circle of radius r_i = 0.30 m . The cord is then slowly pulled from below, decreasing the radius of the circle to r = 0.10 m . The puck's speed at the smaller radius is. .

A mass m is attached to a string passing through a small hole in a frictionless, horizontal surface. The mass is initially orbiting with a velocity v_(1) in a circle of radius r_(1) The string is then slowly pulled from below, decreasing the radius of the circles to r_2 (i) What is the speed of the mass when the radius is r_2 ? (ii) What is the tension in the string ? (iii) What is the work done in moving the mass m from r_(1) to r_(2) ?

A small block of mass m on a horizontal smooth table is attached to a light string passing through a hole as shown in the figure. Initially, the block moves in a circle of radius r with speed v and the string is held by a person. The person pulls the strin slowly to decrease the radius of circle to r//2 . (a) Find the tension in the string when the block moves in a circle of radius r//2 . (b) Calculate the change in the kinetic energy of the block.