Can Huygens Principle Be Applied to Waves on a String with Fixed Ends?

AI Thread Summary
Huygens Principle can be applied to waves on a string with fixed ends, particularly in relation to the Principle of Superposition, which explains how waves traveling in opposite directions interact to form nodes. The principle illustrates that at specific points, the amplitudes of the waves combine, demonstrating the wave behavior on the string. However, the second aspect of Huygens Principle, related to diffraction and secondary wavelets, is not applicable in this context. Therefore, while the first principle is relevant, the second does not pertain to fixed-end strings. The discussion highlights the nuanced application of Huygens Principle in different wave scenarios.
DaTario
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Hi All,

Is it correct to apply Huygens Principle to a situation in which a wave propagates in a string with fixed ends?
I know Huygens principle is related to regular propagation e superposition properties of waves, and all these can be found in the string context, but I am not sure this explanation is enough.

Thank you all,

Best wishes,

DaTario
 
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DaTario said:
Hi All,

Is it correct to apply Huygens Principle to a situation in which a wave propagates in a string with fixed ends?
I know Huygens principle is related to regular propagation e superposition properties of waves, and all these can be found in the string context, but I am not sure this explanation is enough.

Thank you all,

Best wishes,

DaTario
There are two principles of Huygens, as far as I am aware. The first one is the Principle of Superposition, which seems correct for the string. Waves are traveling in two directions on the string and at certain positions the amplitudes add together forming nodes. The second (which I notice Wikipedia now call the Huygens-Fresnel Principle) is used for diffraction problems; every point on a wave front may be considered as a source of secondary wavelets. This does not seem to apply to the string.
 
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