Please show work and answer all parts **Problem Description:**A stone with mass 0.83 kg is attached to one end of a string 0.94 m long. The string will break if its tension exceeds 62.0 N. The stone is whirled in a horizontal circle on a frictionless tabletop; the other end of the string remains fixed.(a) Draw a free body diagram of the stone.(b) Find the maximum speed the stone can attain without the string breaking.**Instructions:**- **Part (a): Free Body Diagram** - Visualize the stone at the center of a circular path. - Represent the tension in the string as an arrow pointing radially inward toward the center of the circle. - Consider gravitational force acting downward and normal force upward, even though their effects are not felt due to the horizontal motion.- **Part (b): Maximum Speed Calculation** - Use the formula for centripetal force: \( F = \frac{mv^2}{r} \). - Set the maximum tension as the centripetal force and solve for \( v \). - Plug in the given values: \( m = 0.83 \, \text{kg} \), \( r = 0.94 \, \text{m} \), \( F = 62.0 \, \text{N} \). - Calculate the maximum speed \( v \).

If a particle is moving in a circular path then centripetal force acts on a particle. The magnitude…

A stone with mass 0.83kg is attached to one end of a string 0.94m long. The string will break if its tension exceeds 62.0N. The stone is whirled in a horizontal circle on a frictionless tabletop; the other end of the string remains fixed. (a) Draw a free body diagram of the stone. (b) Find the maximum speed the stone can attain without the string breaking.

A stone with mass 0.83kg is attached to one end of a string 0.94m long. The string will break if its tension exceeds 62.0N. The stone is whirled in a horizontal circle on a frictionless tabletop; the other end of the string remains fixed. (a) Draw a free body diagram of the stone. (b) Find the maximum speed the stone can attain without the string breaking.