An automobile suspension system is critically damped, and its period of free oscillation with no damping is 1 s. If the system is initially displaced by an amount and released with zero initial velocity (at t = 0; x(0) =x, and v(0) = 0) a- Determine the value of the angular frequency of free oscillation with no damping. (wo = ??) b- Deduce the value of friction factor (g =??) Write the expression of position as a function of time of the system, if the system is critically c- damped. (x(1) = ??) d- Deduce the expression of the velocity of the system. (v(t) = ??)

An automobile suspension system is critically damped, and its period of free oscillation with no damping is 1 s. If the system is initially displaced by an amount and released with zero initial velocity (at t = 0; x(0) =x, and v(0) = 0) a- Determine the value of the angular frequency of free oscillation with no damping. (wo = ??) b- Deduce the value of friction factor (g =??) Write the expression of position as a function of time of the system, if the system is critically c- damped. (x(1) = ??) d- Deduce the expression of the velocity of the system. (v(t) = ??)

Name: An automobile suspension system is critically damped, and its period
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Description: An automobile suspension system is critically damped, and its period of free oscillation with nodamping is 1 s. If the system is initially displaced by an amount and released with zero initialvelocity (at t = 0; x(0) =x, and v(0) = 0)%3Da- Determine

Principles of Physics: A Calculus-Based Text

5th Edition

ISBN:9781133104261

Author:Raymond A. Serway, John W. Jewett

Publisher:Raymond A. Serway, John W. Jewett

Chapter12: Oscillatory Motion

Section: Chapter Questions

Problem 2CQ: The equations listed in Table 2.2 give position as a function of time, velocity as a function of...

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