Calculating the velocity of a ball compressed into a spring.

Related BrainMass Solutions

• Spring and Projectile of a thrown ball

  The spring then is compressed a distance s, where the ball is held at rest. The ball is then released, launching it up the ramp. When the ball leaves the launching ramp its velocity vector makes an angle theta with respect to the horizontal.

• A Discussion On Compressed Springs And Spring Constants

  467937 A Discussion On Compressed Springs And Spring Constants In a physics lab experiment, a compressed spring launches a 22g metal ball at a 35 degree angle.

• sample exam questions (please do in word): A block of mass 2.5 kg is placed against a compressed spring (k = 2900 N/m) at the bottom of an inclined plane, as shown

  490474 Block of mass 2.5 kg is placed against a compressed spring Please refer to attachments for details. 6. A block of mass 2.5 kg is placed against a compressed spring (k = 2900 N/m) at the bottom of an inclined plane, as shown.

• Ball launched using a compressed spring - maximum height

  8823 Ball Launched Using a Compressed Spring - Maximum Height A vertical spring (ignore its mass), whose spring constant is 900 N/m, is attached to a table and is compressed 0.150m. What speed can it give to a .300-kg ball when released?

• Calculating Speed

  56336 Calculating Speed 7-57 A 0.150-kg block of ice is placed against a horizontal compressed spring mounted on a horizontal tabletop that is 1.20m above the floor. The spring has force constant 1900N/m and is initially compressed 0.045m.

• Simple Harmonic Motion & Elasticity, Reference Circle and Energy

  is the x component of the tangential velocity VT of the ball on the reference circle.

• Spring Compression, Speed and Distance

  40710 Spring Compression, Speed and Distance 6. [SJ3 7.P.024.] A toy cannon uses a spring to project a 5.30 g soft rubber ball. The spring is originally compressed by 5.00 cm and has a force constant of 7.80 N/m.

• Rotational Dynamics Simple Harmonic Motion

  In preparation for shooting a ball in a pinball machine, a spring (k = 703 N/m) is compressed by 0.0780 m relative to its unstrained length. The ball (m = 0.0567 kg) is at rest against the spring at point A.

• Physics: Energy Problems

  ** Please see the attached file for the complete solution response ** Solution: As the mass is compressed against the spring, work done in doing so is converted into the potential energy of the compressed spring.