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k = 50 N/m ell ele 0.5 kg X = -0.5 m X = 0.0 m X = 0.5 m A block of mass 0.5 kg on a horizontal surface is attached to a horizontal spring of negligible mass and spring constant 50 N/m. The other end of the spring is attached to a wall, and there is negligible friction between the block and the horizontal surface. When the spring is unstretched, the block is located at æ = 0 m. The block is then pulled to x = 0.5 m and released from rest so that the block-spring system oscillates between x = -0.5 m and x = 0.5 m, as shown in the figure. Which of the following claims is correct about the block's period of oscillation? A The period would increase if the block were released from rest at x = 0.8 m. The period would increase if the block had a mass of 1.2 kg. The period would increase if the spring had a spring constant of 75 N/m. The period would increase if the block-spring system was oriented vertically so that the block- spring system oscillates between y = -0.5 m and y = 0.5 m, the mass of the block is 0.5 kg, and the spring constant is 50 N/m.

k = 50 N/m ell ele 0.5 kg X = -0.5 m X = 0.0 m X = 0.5 m A block of mass 0.5 kg on a horizontal surface is attached to a horizontal spring of negligible mass and spring constant 50 N/m. The other end of the spring is attached to a wall, and there is negligible friction between the block and the horizontal surface. When the spring is unstretched, the block is located at æ = 0 m. The block is then pulled to x = 0.5 m and released from rest so that the block-spring system oscillates between x = -0.5 m and x = 0.5 m, as shown in the figure. Which of the following claims is correct about the block's period of oscillation? A The period would increase if the block were released from rest at x = 0.8 m. The period would increase if the block had a mass of 1.2 kg. The period would increase if the spring had a spring constant of 75 N/m. The period would increase if the block-spring system was oriented vertically so that the block- spring system oscillates between y = -0.5 m and y = 0.5 m, the mass of the block is 0.5 kg, and the spring constant is 50 N/m.

Physics for Scientists and Engineers with Modern Physics
Physics for Scientists and Engineers with Modern Physics
10th Edition
ISBN:9781337553292
Author:Raymond A. Serway, John W. Jewett
Publisher:Raymond A. Serway, John W. Jewett
Chapter8: Conservation Of Energy
Section: Chapter Questions
Problem 35AP: A horizontal spring attached to a wall has a force constant of k = 850 N/m. A block of mass m = 1.00...
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Mutiple Choice Question 25&26

k = 50 N/m 0000000 0.5 kg X = -0.5 m X = 0.0 m X = 0.5 m A block of mass 0.5 kg on a horizontal surface is attached to a horizontal spring of negligible mass and spring constant 50 N/m. The other end of the spring is attached to a wall, and there is negligible friction between the 0 m. The block is block and the horizontal surface. When the spring is unstretched, the block is located at x = 0.5 m and released from rest so that the block-spring system oscillates between 0.5 m, as shown in the figure. Which of the following claims is correct about the block's then pulled to x = x = -0.5 m and x = period of oscillation? The period would increase if the block were released from rest at x = 0.8 m. The period would increase if the block had a mass of 1.2 kg. The period would increase if the spring had a spring constant of 75 N/m. The period would increase if the block-spring system was oriented vertically so that the block- -0.5 m and Y spring system oscillates between y 0.5 kg, and the spring constant is 50 N/m. 0.5 m, the mass of the block is
Transcribed Image Text:k = 50 N/m 0000000 0.5 kg X = -0.5 m X = 0.0 m X = 0.5 m A block of mass 0.5 kg on a horizontal surface is attached to a horizontal spring of negligible mass and spring constant 50 N/m. The other end of the spring is attached to a wall, and there is negligible friction between the 0 m. The block is block and the horizontal surface. When the spring is unstretched, the block is located at x = 0.5 m and released from rest so that the block-spring system oscillates between 0.5 m, as shown in the figure. Which of the following claims is correct about the block's then pulled to x = x = -0.5 m and x = period of oscillation? The period would increase if the block were released from rest at x = 0.8 m. The period would increase if the block had a mass of 1.2 kg. The period would increase if the spring had a spring constant of 75 N/m. The period would increase if the block-spring system was oriented vertically so that the block- -0.5 m and Y spring system oscillates between y 0.5 kg, and the spring constant is 50 N/m. 0.5 m, the mass of the block is
A student attaches a block to a vertical spring so that the block-spring system will oscillate if the block-spring system is released from rest at a vertical position that is not the system's equilibrium position. The system ocillates near Earth's surface. The system is then taken to the Moon's surface, where the gravitational field strength is nearly - that of the gravitational field strength near Earth's surface. Which of the following claims is correct about the period of oscillation for the system? A The system has a longer period on Earth than on the Moon. The system has a shorter period on Earth than on the Moon. The system has the same period on Earth as the Moon. The period of oscillation cannot be determined without knowledge of the spring constant, the mass of the block, and the exact gravitational field strength near Earth's surface and the Moon's surface.
Transcribed Image Text:A student attaches a block to a vertical spring so that the block-spring system will oscillate if the block-spring system is released from rest at a vertical position that is not the system's equilibrium position. The system ocillates near Earth's surface. The system is then taken to the Moon's surface, where the gravitational field strength is nearly - that of the gravitational field strength near Earth's surface. Which of the following claims is correct about the period of oscillation for the system? A The system has a longer period on Earth than on the Moon. The system has a shorter period on Earth than on the Moon. The system has the same period on Earth as the Moon. The period of oscillation cannot be determined without knowledge of the spring constant, the mass of the block, and the exact gravitational field strength near Earth's surface and the Moon's surface.
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