Question

Blocks A (mass 3.50 kg ) and B (mass 7.00 kg ) move on a frictionless,...

Blocks A (mass 3.50 kg ) and B (mass 7.00 kg ) move on a frictionless, horizontal surface. Initially, block B is at rest and block A is moving toward it at 5.00 m/s . The blocks are equipped with ideal spring bumpers. The collision is head-on, so all motion before and after the collision is along a straight line. Let +x be the direction of the initial motion of block A.

Part A Find the maximum energy stored in the spring bumpers.

Part B Find the velocity of block A when the energy stored in the spring bumpers is maximum.

Part C Find the velocity of block B when the energy stored in the spring bumpers is maximum.

Part D Find the velocity of block A after they have moved apart.

Part E Find the velocity of B after they have moved apart.

0 0
Add a comment Improve this question Transcribed image text
Answer #1

Aoply Conserwation f momentum A) Usmmvgmont 43.3s . (กา -I-666 m/s. (353 (566) 14.57 when he unesy Stool sonng bum

VA 666- A M6 2 66a m/s 3.33 m/s

Add a comment
Know the answer?
Add Answer to:
Blocks A (mass 3.50 kg ) and B (mass 7.00 kg ) move on a frictionless,...
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Not the answer you're looking for? Ask your own homework help question. Our experts will answer your question WITHIN MINUTES for Free.
Similar Homework Help Questions
  • Blocks A (mass 3.00 kg ) and B (mass8.00 kg ) move on a frictionless, horizontal...

    Blocks A (mass 3.00 kg ) and B (mass8.00 kg ) move on a frictionless, horizontal surface. Initially, block B is at rest and block A is moving toward it at 3.00 m/s . The blocks are equipped with ideal spring bumpers. The collision is head-on, so all motion before and after the collision is along a straight line. Let +x be the direction of the initial motion of block A. A. Find the maximum energy stored in the spring...

  • Blocks A (mass 4.50 kg) and B (mass 15.00 kg) move on a frictionless, horizontal surface....

    Blocks A (mass 4.50 kg) and B (mass 15.00 kg) move on a frictionless, horizontal surface. Initially, block B is at rest and block A is moving toward it at 1.00 m/s.The blocks are equipped with ideal spring bumpers. The collision is head-on, so all motion before and after the collision is along a straight line. Let +x be thedirection of the initial motion of AFind the maximum energy stored in the spring bumpers and the velocity of each block...

  • Blocks A (mass 5.00 kg ) and B (mass 14.50 kg ) move on a frictionless,...

    Blocks A (mass 5.00 kg ) and B (mass 14.50 kg ) move on a frictionless, horizontal surface. Initially, block B is at rest and block A is moving toward it at 9.00 m/s . The blocks are equipped with ideal spring bumpers. The collision is head-on, so all motion before and after the collision is along a straight line. Let +x be the direction of the initial motion ofA. Part A Find the maximum energy stored in the spring...

  • 8.67 Blocks A (mass 6.00 kg) and B (mass 14.00 kg, to the right of A)...

    8.67 Blocks A (mass 6.00 kg) and B (mass 14.00 kg, to the right of A) move on a frictionless, horizontal surface. Initially, block B is moving to the left at 0.500 m/s and block A is moving to the right at 2.00 m/s. The blocks are equipped with ideal spring bumpers. The collision is headon, so all motion before and after it is along a straight line. Let +x be the direction of the initial motion of A. Find...

  • 4. Two blocks with masses 10.0 kg and 15.0 kg are placed on a horizontal frictionless...

    4. Two blocks with masses 10.0 kg and 15.0 kg are placed on a horizontal frictionless surface. A light spring is placed in a horizontal position between the blocks. The blocks are pushed together, compressing the spring, and then release from rest. After blocks have lost contact with the spring, the 10.0 kg mass has velocity, v = 4.0 î m/s. (a) How much potential energy was stored in the spring before the blocks were released? (b) What is the...

  • Block 1, of mass m1 = 3.50 kg , moves along a frictionless air track with...

    Block 1, of mass m1 = 3.50 kg , moves along a frictionless air track with speed v1 = 11.0 m/s . It collides with block 2, of mass m2 = 43.0 kg , which was initially at rest. The blocks stick together after the collision. What is the change ΔK=Kfinal−Kinitial in the two-block system's kinetic energy due to the collision?

  • Block 1 (mass 2.00 kg) is moving rightward at 10.0 m/s and block 2 (mass 5.00...

    Block 1 (mass 2.00 kg) is moving rightward at 10.0 m/s and block 2 (mass 5.00 kg) is moving rightward at 3.00 m/s. The surface is frictionless, and a spring with a spring constant of 1120 N/m is fixed to block 2. When the blocks collide, the compression of the spring is maximum at the instant the blocks have the same velocity. (a) Find the maximum compression. (b) Find the final velocities of the two blocks.

  • Block B of mass 10.0 kg is placed in contact with an unstretched spring on a...

    Block B of mass 10.0 kg is placed in contact with an unstretched spring on a horizontal, frictionless surface. The other end of the spring is attached to a fixed support. Block A with a mass of 4.00 kg is moving with a speed of 20.0 m/s when it collides with and sticks to B. (a) What is the speed of the combined blocks after the collision? The blocks compress the spring 2.60 m before coming to rest momentarily. (b)...

  • Three blocks (1,2,3) of mass 3.00 kg, 2.00 kg, 1.00 kg sit linearly 10.0 cm apart...

    Three blocks (1,2,3) of mass 3.00 kg, 2.00 kg, 1.00 kg sit linearly 10.0 cm apart from each other on a frictionless surface. A 25 g bullet is shot at the first block, it travels through the first block, and embeds itself into the second block (without falling over) which then collides into the third block. a. Assuming the final collision is elastic, and the third block has a final velocity of 5.00 m/s, what is the velocity of block...

  • Block A of mass 2.00 kg and block B of mass 3.00 kg slide on a...

    Block A of mass 2.00 kg and block B of mass 3.00 kg slide on a frictionless surface toward one another and collide. Before the collision, block A moves east with a speed of 3.00 m/s, block B moves south with a speed of 1.50 m/s. After the collision, block A moves 12 degrees west of south with a speed of 0.500 m/s. The two blocks do NOT stick together after the collision. (a) What is the magnitude and direction...

ADVERTISEMENT
Free Homework Help App
Download From Google Play
Scan Your Homework
to Get Instant Free Answers
Need Online Homework Help?
Ask a Question
Get Answers For Free
Most questions answered within 3 hours.
ADVERTISEMENT
ADVERTISEMENT
ADVERTISEMENT