Authors: Rona Geffen, Amira K. F. Val Baker, Daniela Gentile, Paul Oomen.

Abstract: Nonlinear standing waves known as Faraday waves are formed in vibrating liquids enclosed by a container. To further our understanding of the relation between frequency and wave propagation within spatial boundaries, we investigated Faraday wave phenomena utilizing the CymaScope instrument, which works by transposing sonic periodicities to water wavelet periodicities. This paper presents the resulting observations and suggests a unified language for describing sound-induced resonant wave phenomena.

Disciplines: Fluid Dynamics, Physics, Physical Sciences and Mathematics, Statistical, Nonlinear, and Soft Matter Physics

Keywords: aluminum, Faraday waves, pattern morphology, resonant phenomena, cymatics, vibrational modes, cymascope, taxonomy

Citations:

APA: Geffen, R., Val Baker, A., Gentile, D., & Oomen, P. (2025). Resonant Phenomena of Faraday Waves: A Classification According to New and Existing Terms. Water, 14, 99-163 doi:10.14294/WATER.2025.3

AMA: Geffen, R, Val Baker AKF, Gentile D, Oomen P. Resonant Phenomena of Faraday Waves: A Classification According to New and Existing Terms. Water. 2025; 14: 99-163 doi:10.14294/WATER.2025.3

Chicago: Geffen, Rona, Amira Val Baker, Daniela Gentile, and Paul Oomen. 2025. “Resonant Phenomena of Faraday Waves: A Classification According to New and Existing Terms.” Water 14: 99-163 doi:10.14294/WATER.2025.3

IEEE: [1] R. Geffen, A. Val Baker, D. Gentile and P. Oomen, “Resonant Phenomena of Faraday Waves: A Classification According to New and Existing Terms.”, Water 14: 99-163, 2025. doi:10.14294/WATER.2025.3

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