Gauge-theoretic Study of Kundt Tube Experiment and Spontaneous Symmetry Transitions
Abstract
In the Kundt's experiment of acoustic resonance in closed tubes, two characteristic lengths were observed: one is the wave-length of the sound waves in resonance and the other the scale of dust striation. The latter has remained unresolved for its formation mechanism. Based on the Fluid Gauge Theory proposed recently by the author, formation mechanism of the dust striation is studied. When the sound is weak enough, the striation is unobserved. Once the wave intensity exceeds a threshold value, dust striations are formed. Formation of the dust striation is understood as a spontaneous transition of symmetry in the acoustics. According to the Theory, there is a transition of stress field within the fluid flow. Whereas the stress field is isotropic before transition, it becomes anisotropic after the transition. This is analogous to the spontaneous symmetry breaking known in the field theory. Lagrangian structures of both systems are verified to be analogous either.
Downloads
How to Cite
References
August Kundt (1866) Ueber eine neue Art akustischer Staubfiguren und über die Anwendung derselben zur Bestimmung der Schallgeschwindigkeit in festen Körpern und Gasen. 127, 497-523.
Dvorak (1874) Unknown Title. 153, 102-115.
V Dvorak (1876) Unknown Title. 157, 42-73.
J Rayleigh (1896) The Theory of Sound. Two.
E Da, C Andrade (1931) Phenomena in a sounding tube. 438.
E Da, C Andrade (1931) On the circulations caused by the vibration of air in a tube. 134, 445-470.
E Da, C Andrade (1932) On the groupings and general behaviour of solid particles under the influence of air vibrations in tubes. 230, 413-445.
Robert Carman (1955) Kundt Tube Dust Striations. 23(8), 505-507.
G Batchelor (1953) The Theory of Homogeneous Turbulence.
G Batchelor (1967) An Introduction to Fluid Dynamics.
James Lighthill (1978) Waves in fluids.
L Landau, E Lifshitz (1987) RELATIVISTIC FLUID DYNAMICS. 505-514.
Tsutomu Kambe (2021) Fluid Gauge Theory. 21(4), 113-147.
Tsutomu Kambe (2021) Gauge Symmetries in Physical Fields (Review). 21(4), 1-44.
Ryoyu Utiyama (1956) Invariant Theoretical Interpretation of Interaction. 101(5), 1597-1607.
R Utiyama (1987) Introduction to the Theory of General Gauge Fields. 64(6), 2207-2221.
Tsutomu Kambe (2013) A new representation of rotational flow fields satisfying Euler's equation of an ideal compressible fluid. 45(1), 015505.
D Scofield, Pablo Huq (2014) Fluid dynamical Lorentz force law and Poynting theoremderivation and implications. 46, 55514-55522.
Tsutomu Kambe (2017) New scenario of turbulence theory and wall-bounded turbulence: theoretical significance. 111(6), 448-507.
Published
2022-11-17
Issue
Section
License
Copyright (c) 2022 Authors and Global Journals Private Limited

This work is licensed under a Creative Commons Attribution 4.0 International License.