Tension and frequency relationship on a violin

AI Thread Summary
The tension in a violin string is directly related to the frequency of the sound it produces, as described by the equation T = v^2 (μ), where μ represents mass per unit length. An increase in string tension results in a higher frequency, since the wave velocity (v) increases with frequency (f) and wavelength (λ). This relationship is fundamental to tuning the strings of a violin, as adjusting tension alters the pitch. Thus, increasing tension leads to a corresponding increase in frequency. Understanding this relationship is essential for proper string instrument tuning.
CAF123
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There is an equation relating the tension in a string fixed between two nodes and the velocity of the traveling waves which form the allowed standing waves. It is T = v^2 (μ) where μ is the mass per unit length.

Am I correct in saying that if the tension in the string increases then frequency also increases? I say ths because v= fλ and if f increases then so does v and subsequently, by the above formula, T.

Thanks.
 
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You are correct. This is how you tune the strings: by adjusting their tension.
 
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