Shifting the origine of time in isotropic oscillator

In summary, the conversation discusses how to shift the origin of time and find the appropriate value for time to in order to solve the equation of motion. The desired solution is X(t)=Ax Cos(wt) and Y(t)=Ay Cos(wt-Delta), and the conversation explores different methods for finding this solution. The speaker eventually figures out the solution and thanks the other person for their help.
  • #1
esradw
26
0
I am really lost here :(

The equation of motion X(t)=Ax Cos(wt-delta(x))
Y(t)=Ay Cos(wt-delta(y))
by shifting the origine of time ( t'=t+to where I need to figure out what is appropriate for time to ) and ( Delta=Delta(y)-Delta(x) )
I am suposed to find X(t)=Ax Cos(wt) and Y(t)=Ay Cos(wt-Delta)

I wish I could give some of my work but I can't even start it right now since I cannot think of the appropriate time (to) for X , I know that it can not be 0 because then I come to the same point again.
anyhelp appreciated
thanks
 
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  • #2
I think you mean for the argument of that last function you gave to be t'. What do you get when t'=0? Compare this to what you get with the original function at the same time as measured in t (ie, in terms of to).
 
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  • #3
Yes t to be t' but in the question itself says once you find the solution with t',convert it into t .
I thought I can give to= dx/w then my equation become for X=Ax Cos( wt'-(wto+Deltax)) and when I unpack it, X/Ax=Cos(wt')Cos(dx+Deltax)+Sinwt' Sin(dx+Deltax) that has to stay only X/Ax=Cos(wt') how to come to this conclution ? How to get red of Cos(dx+Deltax))+Sinwt' Sin(dx+Deltax) I don't know :((((((
any idea?
 
  • #4
I figured it out

thanks again
 

FAQ: Shifting the origine of time in isotropic oscillator

What is an isotropic oscillator?

An isotropic oscillator is a physical system that exhibits repetitive motion back and forth around a stable equilibrium point. This type of oscillator has the same properties in all directions, meaning it behaves the same way regardless of the direction in which it is observed.

How does time shifting affect an isotropic oscillator?

Time shifting in an isotropic oscillator refers to the manipulation of the system's time scale, such as speeding up or slowing down the oscillations. This can be achieved by changing the frequency of the oscillator, which is determined by its physical properties such as mass and stiffness.

Why would someone want to shift the origin of time in an isotropic oscillator?

Shifting the origin of time in an isotropic oscillator allows for greater control and flexibility in studying its behavior. By adjusting the time scale, scientists can observe the system at different speeds or frequencies, which can reveal new insights and patterns in its behavior.

What are some practical applications of shifting the origin of time in an isotropic oscillator?

One practical application of shifting the origin of time in an isotropic oscillator is in the development of precision timekeeping systems, such as atomic clocks. By precisely controlling the frequency of the oscillator, scientists can accurately measure time intervals and maintain highly accurate time standards.

Are there any challenges associated with shifting the origin of time in an isotropic oscillator?

One challenge is determining the optimal frequency or time scale for studying the oscillator. This can require careful calibration and experimentation to achieve the desired results. Additionally, any external factors that may affect the system, such as temperature or external forces, must be carefully considered and controlled for accurate results.

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