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dperkovic
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The problem is:
Two damped harmonic oscillator are coupled. Both oscillators has same natural frequency [tex]\omega_0[/tex] and damping constant [tex]\beta[/tex].
1st oscillator is damped by 2nd oscillator. Damping force is proportional to velocity of 2nd oscillator. And, vice versa, 2nd oscillator is damped by 1st oscillator, by a force proportional to velocity of 1st oscillator.
Find the positions (of both oscillator) as a function of time.
I started with this:
[tex]\ddot{x_1} + \frac{\beta}{m}\dot{x_2} + \omega_0^2(x_1-x_2) = 0[/tex] ! EDITED !
[tex]\ddot{x_2} + \frac{\beta}{m}\dot{x_1} + \omega_0^2(x_2- x_1) = 0[/tex]
Is that O.K. ? If answer is yes ... what is the next step ? I would really appreciate it if somebody could give me just a hint !
Two damped harmonic oscillator are coupled. Both oscillators has same natural frequency [tex]\omega_0[/tex] and damping constant [tex]\beta[/tex].
1st oscillator is damped by 2nd oscillator. Damping force is proportional to velocity of 2nd oscillator. And, vice versa, 2nd oscillator is damped by 1st oscillator, by a force proportional to velocity of 1st oscillator.
Find the positions (of both oscillator) as a function of time.
I started with this:
[tex]\ddot{x_1} + \frac{\beta}{m}\dot{x_2} + \omega_0^2(x_1-x_2) = 0[/tex] ! EDITED !
[tex]\ddot{x_2} + \frac{\beta}{m}\dot{x_1} + \omega_0^2(x_2- x_1) = 0[/tex]
Is that O.K. ? If answer is yes ... what is the next step ? I would really appreciate it if somebody could give me just a hint !
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