Galilean transformation / calculating frequency problem

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SUMMARY

The discussion centers on calculating the frequency of oscillation for a mass on a cart with constant acceleration, using the potential function V=A4x^{4}. The key concepts include Galilean transformation, Taylor series expansion, and the differential equation F=-dV/dx. The user is attempting to derive an equation of motion to find the frequency but is uncertain about the application of transformations and the correct point for the Taylor series expansion.

PREREQUISITES
  • Understanding of Galilean transformation
  • Familiarity with Taylor series expansion
  • Knowledge of differential equations
  • Concept of force derived from potential energy (F=-dV/dx)
NEXT STEPS
  • Study the application of Galilean transformation in oscillatory systems
  • Learn how to perform Taylor series expansion for potential functions
  • Explore the derivation of equations of motion in non-inertial reference frames
  • Investigate the relationship between acceleration and frequency in harmonic oscillators
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Students in physics, particularly those studying classical mechanics, and anyone interested in the dynamics of oscillatory systems under acceleration.

Lindsayyyy
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Hi everyone,

Homework Statement



I have a mass like in the drawing and a moving cart with constant acceleration. The potential (also in the drawing) is given as [tex]V=A4x^{4}[/tex]

I want to calculate the frequency of the oscillation of the mass as a function of the acceleration when the cart is moving.





Homework Equations



Galilean transformation
Taylor series(?)
differential equation
F=-grad V (here F=-dV/dx)


The Attempt at a Solution



Well, I'm stuck. I have a moving frame of referenca and a stagnant one. My problem is I have to find a equation of motion in order to find the frequency. I think I need to develop a harmonic potential via Taylor series. But I'm so unsure when it comes to transformations as I'm new into this. I don't know if I even have to transform the x in the potential equation or not and around which point I should make the Taylor series etc etc.

My attempt was to use the transformation:

[tex]x'=x+ \frac 1 2 a t^{2}[/tex]

Is this even right? Do I have to put the x' in the equation for the potential? Then the potential depends on time aswell? Can someone help me out with this problem and give me any hints?

Thanks for your help
 
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sorry, I forgot the drawing
 

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