Airflow resistance measurement for a layer of granular material based on the Helmholtz resonance phenomenon

A Helmholtz resonance technique was employed to predict the airflow resistance of layers of granular materials, namely glass beads, brown rice, soybean, adzuki beans, and corn kernels. Each granular sample was placed on the tube mouth of an open-type Helmholtz resonator. The resonant frequency was d...

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Veröffentlicht in:Bioscience, biotechnology, and biochemistry biotechnology, and biochemistry, 2017-04, Vol.81 (4), p.823-830
Hauptverfasser: Nishizu, Takahisa, Tomatsu, Eiji, Katsuno, Nakako
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Tomatsu, Eiji
Katsuno, Nakako
description A Helmholtz resonance technique was employed to predict the airflow resistance of layers of granular materials, namely glass beads, brown rice, soybean, adzuki beans, and corn kernels. Each granular sample was placed on the tube mouth of an open-type Helmholtz resonator. The resonant frequency was determined by measuring the electric impedance of a loudspeaker that was installed in the resonator and driven by a chirp signal linearly sweeping from 90 to 220 Hz for 6.0 s. For a changing sample layer thickness, the resonant frequency was measured, and the specific airflow resistance was calculated by measuring the static pressure drop required for N 2 gas to flow through the layer at a constant velocity of 0.042 m/s. When the thickness of the layer was fixed, the Helmholtz resonant frequency decreased as the specific airflow resistance increased, regardless of the kind of granular material. A method of measuring the airflow resistance of a grain layer using an open-type Helmholtz resonator was proposed. The Helmholtz resonant frequency decreased as the specific airflow resistance increased, regardless of the kind of granular material.
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source Oxford University Press Journals All Titles (1996-Current); MEDLINE; Freely Accessible Japanese Titles; EZB-FREE-00999 freely available EZB journals
subjects dissipation of acoustic energy
Food Analysis
Glycine max - chemistry
Helmholtz resonance
layer of granular material
Oryza - chemistry
Pressure
specific airflow resistance
Vigna - chemistry
Zea mays - chemistry
title Airflow resistance measurement for a layer of granular material based on the Helmholtz resonance phenomenon
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