Side Branch Interaction with Main Line Standing Waves and Related Signal Handling Approaches | Zendy

Arthur E. Ruggles | Zendy; Eric M. Moore | Zendy; Michael Shehane | Zendy

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Side Branch Interaction with Main Line Standing Waves and Related Signal Handling Approaches

Author(s) -

Arthur E. Ruggles,

Eric M. Moore,

Michael Shehane

Publication year - 2013

Publication title -

advances in acoustics and vibration

Language(s) - English

Resource type - Journals

SCImago Journal Rank - 0.237

H-Index - 14

eISSN - 1687-627X

pISSN - 1687-6261

DOI - 10.1155/2013/487141

Subject(s) - amplitude , strouhal number , acoustics , resonance (particle physics) , line (geometry) , position (finance) , signal (programming language) , spectral density , physics , mathematics , optics , engineering , telecommunications , mechanics , computer science , geometry , atomic physics , turbulence , finance , reynolds number , economics , programming language

Data from a low pressure air test facility are used to quantify the influence of the acoustic field in the main line on side branch resonance behavior. The main line of diameter = 7.6 cm may accumulate acoustic energy broadcast from a resonating branch of diameter = 1.9 cm ( = 0.25). The side branch resonance amplitude is a strong function of branch position along the main line with the normalized pressure rising to 1.2 in the most favorable branch positions with Strouhal number near 0.3. Large time variation of the side branch and main line resonance amplitude is apparent for most branch positions. A moving window is used on the time history to collect an array of power spectral densities (PSDs). Peak amplitude values from the PSD array are represented in a probability density function (PDF) that provides a repeatable characterization of data from the system

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