Chapter 6 Preview Multiple Choice Short Response Extended Response

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Chapter 6 Preview Multiple Choice Short Response Extended Response Standardized Test Prep Chapter 6 Preview Multiple Choice Short Response Extended Response

Chapter 6 Multiple Choice Standardized Test Prep Multiple Choice 1. If a particle’s kinetic energy is zero, what is its momentum? A. zero B. 1 kg • m/s C. 15 kg • m/s D. negative

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued 1. If a particle’s kinetic energy is zero, what is its momentum? A. zero B. 1 kg • m/s C. 15 kg • m/s D. negative

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued 2. The vector below represents the momentum of a car traveling along a road. The car strikes another car, which is at rest, and the result is an inelastic collision.Which of the following vectors represents the momentum of the first car after the collision? F. G. H. J.

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued 2. The vector below represents the momentum of a car traveling along a road. The car strikes another car, which is at rest, and the result is an inelastic collision.Which of the following vectors represents the momentum of the first car after the collision? F. G. H. J.

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued 3. What is the momentum of a 0.148 kg baseball thrown with a velocity of 35 m/s toward home plate? A. 5.1 kg • m/s toward home plate B. 5.1 kg • m/s away from home plate C. 5.2 kg • m/s toward home plate D. 5.2 kg • m/s away from home plate

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued 3. What is the momentum of a 0.148 kg baseball thrown with a velocity of 35 m/s toward home plate? A. 5.1 kg • m/s toward home plate B. 5.1 kg • m/s away from home plate C. 5.2 kg • m/s toward home plate D. 5.2 kg • m/s away from home plate

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued Use the passage below to answer questions 4–5. After being struck by a bowling ball, a 1.5 kg bowling pin slides to the right at 3.0 m/s and collides head-on with another 1.5 kg bowling pin initially at rest. 4. What is the final velocity of the second pin if the first pin moves to the right at 0.5 m/s after the collision? F. 2.5 m/s to the left G. 2.5 m/s to the right H. 3.0 m/s to the left J. 3.0 m/s to the right

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued Use the passage below to answer questions 4–5. After being struck by a bowling ball, a 1.5 kg bowling pin slides to the right at 3.0 m/s and collides head-on with another 1.5 kg bowling pin initially at rest. 4. What is the final velocity of the second pin if the first pin moves to the right at 0.5 m/s after the collision? F. 2.5 m/s to the left G. 2.5 m/s to the right H. 3.0 m/s to the left J. 3.0 m/s to the right

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued Use the passage below to answer questions 4–5. After being struck by a bowling ball, a 1.5 kg bowling pin slides to the right at 3.0 m/s and collides head-on with another 1.5 kg bowling pin initially at rest. 5. What is the final velocity of the second pin if the first pin stops moving when it hits the second pin? A. 2.5 m/s to the left B. 2.5 m/s to the right C. 3.0 m/s to the left D. 3.0 m/s to the right

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued Use the passage below to answer questions 4–5. After being struck by a bowling ball, a 1.5 kg bowling pin slides to the right at 3.0 m/s and collides head-on with another 1.5 kg bowling pin initially at rest. 5. What is the final velocity of the second pin if the first pin stops moving when it hits the second pin? A. 2.5 m/s to the left B. 2.5 m/s to the right C. 3.0 m/s to the left D. 3.0 m/s to the right

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued 6. For a given change in momentum, if the net force that is applied to an object increases, what happens to the time interval over which the force is applied? F. The time interval increases. G. The time interval decreases. H. The time interval stays the same. J. It is impossible to determine the answer from the given information.

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued 6. For a given change in momentum, if the net force that is applied to an object increases, what happens to the time interval over which the force is applied? F. The time interval increases. G. The time interval decreases. H. The time interval stays the same. J. It is impossible to determine the answer from the given information.

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued 7. Which equation expresses the law of conservation of momentum? A. p = mv B. m1v1,i + m2v2,i = m1v1,f + m2v2,f C. (1/2)m1v1,i2 + m2v2,i2 = (1/2)(m1 + m2)vf2 D. KE = p

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued 7. Which equation expresses the law of conservation of momentum? A. p = mv B. m1v1,i + m2v2,i = m1v1,f + m2v2,f C. (1/2)m1v1,i2 + m2v2,i2 = (1/2)(m1 + m2)vf2 D. KE = p

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued 8. Two shuffleboard disks of equal mass, one of which is orange and one of which is yellow, are involved in an elastic collision. The yellow disk is initially at rest and is struck by the orange disk, which is moving initially to the right at 5.00 m/s. After the collision, the orange disk is at rest.What is the velocity of the yellow disk after the collision? F. zero G. 5.00 m/s to the left H. 2.50 m/s to the right J. 5.00 m/s to the right

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued 8. Two shuffleboard disks of equal mass, one of which is orange and one of which is yellow, are involved in an elastic collision. The yellow disk is initially at rest and is struck by the orange disk, which is moving initially to the right at 5.00 m/s. After the collision, the orange disk is at rest.What is the velocity of the yellow disk after the collision? F. zero G. 5.00 m/s to the left H. 2.50 m/s to the right J. 5.00 m/s to the right

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued Use the information below to answer questions 9–10. A 0.400 kg bead slides on a straight frictionless wire and moves with a velocity of 3.50 cm/s to the right, as shown below. The bead collides elastically with a larger 0.600 kg bead that is initially at rest. After the collision, the smaller bead moves to the left with a velocity of 0.70 cm/s. 9. What is the large bead’s velocity after the collision? A. 1.68 cm/s to the right B. 1.87 cm/s to the right C. 2.80 cm/s to the right D. 3.97 cm/s to the right

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued Use the information below to answer questions 9–10. A 0.400 kg bead slides on a straight frictionless wire and moves with a velocity of 3.50 cm/s to the right, as shown below. The bead collides elastically with a larger 0.600 kg bead that is initially at rest. After the collision, the smaller bead moves to the left with a velocity of 0.70 cm/s. 9. What is the large bead’s velocity after the collision? A. 1.68 cm/s to the right B. 1.87 cm/s to the right C. 2.80 cm/s to the right D. 3.97 cm/s to the right

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued Use the information below to answer questions 9–10. A 0.400 kg bead slides on a straight frictionless wire and moves with a velocity of 3.50 cm/s to the right, as shown below. The bead collides elastically with a larger 0.600 kg bead that is initially at rest. After the collision, the smaller bead moves to the left with a velocity of 0.70 cm/s. 10. What is the total kinetic energy of the system after the collision? F. 1.40  10–4 J G. 2.45  10–4 J H. 4.70  10 –4 J J. 4.90  10 –4 J

Multiple Choice, continued Chapter 6 Standardized Test Prep Multiple Choice, continued Use the information below to answer questions 9–10. A 0.400 kg bead slides on a straight frictionless wire and moves with a velocity of 3.50 cm/s to the right, as shown below. The bead collides elastically with a larger 0.600 kg bead that is initially at rest. After the collision, the smaller bead moves to the left with a velocity of 0.70 cm/s. 10. What is the total kinetic energy of the system after the collision? F. 1.40  10–4 J G. 2.45  10–4 J H. 4.70  10 –4 J J. 4.90  10 –4 J

Chapter 6 Short Response Standardized Test Prep Short Response 11. Is momentum conserved when two objects with zero initial momentum push away from each other?

Short Response, continued Chapter 6 Standardized Test Prep Short Response, continued 11. Is momentum conserved when two objects with zero initial momentum push away from each other? Answer: yes

Short Response, continued Chapter 6 Standardized Test Prep Short Response, continued 12. In which type of collision is kinetic energy conserved? What is an example of this type of collision?

Short Response, continued Chapter 6 Standardized Test Prep Short Response, continued 12. In which type of collision is kinetic energy conserved? Answer: elastic collision What is an example of this type of collision? Answer: Two billiard balls collide and then move separately after the collision.

Short Response, continued Chapter 6 Standardized Test Prep Short Response, continued Base your answers to questions 13–14 on the information below. An 8.0 g bullet is fired into a 2.5 kg pendulum bob, which is initially at rest and becomes embedded in the bob. The pendulum then rises a vertical distance of 6.0 cm. 13. What was the initial speed of the bullet? Show your work.

Short Response, continued Chapter 6 Standardized Test Prep Short Response, continued Base your answers to questions 13–14 on the information below. An 8.0 g bullet is fired into a 2.5 kg pendulum bob, which is initially at rest and becomes embedded in the bob. The pendulum then rises a vertical distance of 6.0 cm. 13. What was the initial speed of the bullet? Show your work. Answer: 340 m/s

Short Response, continued Chapter 6 Standardized Test Prep Short Response, continued Base your answers to questions 13–14 on the information below. An 8.0 g bullet is fired into a 2.5 kg pendulum bob, which is initially at rest and becomes embedded in the bob. The pendulum then rises a vertical distance of 6.0 cm. 14. What will be the kinetic energy of the pendulum when the pendulum swings back to its lowest point? Show your work.

Short Response, continued Chapter 6 Standardized Test Prep Short Response, continued Base your answers to questions 13–14 on the information below. An 8.0 g bullet is fired into a 2.5 kg pendulum bob, which is initially at rest and becomes embedded in the bob. The pendulum then rises a vertical distance of 6.0 cm. 14. What will be the kinetic energy of the pendulum when the pendulum swings back to its lowest point? Show your work. Answer: 1.5 J

Chapter 6 Extended Response Standardized Test Prep Extended Response 15. An engineer working on a space mission claims that if momentum concerns are taken into account, a spaceship will need far less fuel for the return trip than for the first half of the mission.Write a paragraph to explain and support this hypothesis.

Extended Response, continued Chapter 6 Standardized Test Prep Extended Response, continued 15. An engineer working on a space mission claims that if momentum concerns are taken into account, a spaceship will need far less fuel for the return trip than for the first half of the mission.Write a paragraph to explain and support this hypothesis. Hint: Recognize that the ship will have used some of the fuel and thus will have less mass on the return trip.