Argument for relationship between scale length and frequency

AI Thread Summary
A connection exists between scale length and frequency, where an increase in scale length leads to a longer wavelength. This relationship is supported by the equation f = v/(λ), indicating that longer wavelengths correspond to lower frequencies. The wave equation further illustrates this concept, showing that wave speed (v) is influenced by the string's tension and linear density. A deeper physical interpretation suggests that as scale length increases, the system's ability to oscillate at higher frequencies diminishes. Understanding this relationship is crucial for analyzing wave behavior in various physical contexts.
Eric_meyers
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Homework Statement


Give an argument for there being a connection between scale length and frequency

Homework Equations



scale length = (wave length) / (Length)

The Attempt at a Solution



So from only my physical intuition I'm coming up with the longer the scale length the longer the wave length and thus by f = v/(lambda) the smaller the frequency. But is there a more physical interpretation of this?
 
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It comes from the wave eq. (in one dimension, for instance):

\partial2y/\partialx2=1/v2·\partial2y/\partialt2

as v is derivated from the tension on the string and its linear density.
 
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