Derivation of equations of motion for waves in a( mass-loaded) spring

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SUMMARY

The discussion focuses on the derivation of equations of motion for waves in a mass-loaded spring system, represented by the equation dE*dE/(dt*dt) - dE*dE(k*L*L/m)/(dx*dx) = 0. Key variables include mass (m) and distance (L) between mass points. The equation illustrates the relationship between energy changes over time and spatial displacement in the context of wave motion. The conversation also raises questions about the clarity and purpose of the derivation.

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Saje
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dE*dE/(dt*dt) -dE*dE(k*L*L/m)/(dx*dx)=0
m-mass
L-distance beetween mass point
 
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Saje said:
dE*dE/(dt*dt) -dE*dE(k*L*L/m)/(dx*dx)=0
m-mass
L-distance beetween mass point
Is there a question here?

AM
 

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