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A massless spring of spring constant k = 1202 N/m is connected to a mass m = 59 kg at rest on a horizontal, frictionless surface. Part (a) The mass is displaced from equilibrium by A = 0.69 m along the spring's axis. How much potential energy, in joules, is stored in the spring as a result? Part (b) When the mass is released from rest at the displacement A= 0.69 m, how much time, in seconds, is required for it to reach its maximum kinetic energy for the first time? Part (c) The typical amount of energy released when burning one barrel of crude oil is called the barrel of oil equivalent (BOE) and is equal to 1 BOE = 6.1178362 GJ. Calculate the number, N, of springs with spring constant k = 1202 N/m displaced to A = 0.69 m you would need to store 1 BOE of potential energy. Part (d) Imagine that the N springs from part (c) are released from rest simultaneously. If the potential energy stored in the springs is fully converted to kinetic energy and thereby "released" when the attached masses pass through equilibrium, what would be the average rate at which the energy is released? That is, what would be the average power, in watts, released by the Nspring system? Part (e) Though not a practical system for energy storage, how many buildings, B, each using 105 W, could the spring system temporarily power?

A massless spring of spring constant k = 1202 N/m is connected to a mass m = 59 kg at rest on a horizontal, frictionless surface. Part (a) The mass is displaced from equilibrium by A = 0.69 m along the spring's axis. How much potential energy, in joules, is stored in the spring as a result? Part (b) When the mass is released from rest at the displacement A= 0.69 m, how much time, in seconds, is required for it to reach its maximum kinetic energy for the first time? Part (c) The typical amount of energy released when burning one barrel of crude oil is called the barrel of oil equivalent (BOE) and is equal to 1 BOE = 6.1178362 GJ. Calculate the number, N, of springs with spring constant k = 1202 N/m displaced to A = 0.69 m you would need to store 1 BOE of potential energy. Part (d) Imagine that the N springs from part (c) are released from rest simultaneously. If the potential energy stored in the springs is fully converted to kinetic energy and thereby "released" when the attached masses pass through equilibrium, what would be the average rate at which the energy is released? That is, what would be the average power, in watts, released by the Nspring system? Part (e) Though not a practical system for energy storage, how many buildings, B, each using 105 W, could the spring system temporarily power?

College Physics
College Physics
11th Edition
ISBN:9781305952300
Author:Raymond A. Serway, Chris Vuille
Publisher:Raymond A. Serway, Chris Vuille
Chapter1: Units, Trigonometry. And Vectors
Section: Chapter Questions
Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...
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 A massless spring of spring constant k = 1202 N/m is connected to a mass m = 59 kg at rest on a horizontal, frictionless surface.

A massless spring of spring constant k = 1202 N/m is connected to a mass m = 59 kg at rest on a horizontal, frictionless surface. Part (a) The mass is displaced from equilibrium by A = 0.69 m along the spring's axis. How much potential energy, in joules, is stored in the spring as a result? Part (b) When the mass is released from rest at the displacement A= 0.69 m, how much time, in seconds, is required for it to reach its maximum kinetic energy for the first time? Part (c) The typical amount of energy released when burning one barrel of crude oil is called the barrel of oil equivalent (BOE) and is equal to 1 BOE = 6.1178362 GJ. Calculate the number, N, of springs with spring constant k = 1202 N/m displaced to A = 0.69 m you would need to store 1 BOE of potential energy. Part (d) Imagine that the N springs from part (c) are released from rest simultaneously. If the potential energy stored in the springs is fully converted to kinetic energy and thereby "released" when the attached masses pass through equilibrium, what would be the average rate at which the energy is released? That is, what would be the average power, in watts, released by the Nspring system? Part (e) Though not a practical system for energy storage, how many buildings, B, each using 105 W, could the spring system temporarily power?
Transcribed Image Text:A massless spring of spring constant k = 1202 N/m is connected to a mass m = 59 kg at rest on a horizontal, frictionless surface. Part (a) The mass is displaced from equilibrium by A = 0.69 m along the spring's axis. How much potential energy, in joules, is stored in the spring as a result? Part (b) When the mass is released from rest at the displacement A= 0.69 m, how much time, in seconds, is required for it to reach its maximum kinetic energy for the first time? Part (c) The typical amount of energy released when burning one barrel of crude oil is called the barrel of oil equivalent (BOE) and is equal to 1 BOE = 6.1178362 GJ. Calculate the number, N, of springs with spring constant k = 1202 N/m displaced to A = 0.69 m you would need to store 1 BOE of potential energy. Part (d) Imagine that the N springs from part (c) are released from rest simultaneously. If the potential energy stored in the springs is fully converted to kinetic energy and thereby "released" when the attached masses pass through equilibrium, what would be the average rate at which the energy is released? That is, what would be the average power, in watts, released by the Nspring system? Part (e) Though not a practical system for energy storage, how many buildings, B, each using 105 W, could the spring system temporarily power?
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