Estimation of absolute sound pressure in a small-sized sonochemical reactor

► We have proposed a small-sized sonochemical reactor. ► The reactor consists of a BLT and a rectangular cell smaller than the wavelength. ► An one-dimensional standing-wave-field of 3/4-wavelength was generated in the reactor. ► The absolute amplitude of the sound pressure can be predicted from the...

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Veröffentlicht in:Ultrasonics sonochemistry 2013-01, Vol.20 (1), p.468-471
Hauptverfasser: Sato, Shinji, Wada, Yuji, Koyama, Daisuke, Nakamura, Kentaro
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container_end_page 471
container_issue 1
container_start_page 468
container_title Ultrasonics sonochemistry
container_volume 20
creator Sato, Shinji
Wada, Yuji
Koyama, Daisuke
Nakamura, Kentaro
description ► We have proposed a small-sized sonochemical reactor. ► The reactor consists of a BLT and a rectangular cell smaller than the wavelength. ► An one-dimensional standing-wave-field of 3/4-wavelength was generated in the reactor. ► The absolute amplitude of the sound pressure can be predicted from the input current. ► The predicted value agreed well with the measurements using an interferometer. A small-sized sonochemical reactor in which the absolute value of the sound pressure amplitude can be estimated from the vibration velocity of the transducer was investigated. The sound pressure distribution in the reactor and the relationship between the vibration velocity and the sound pressure amplitude were derived through Helmholtz wave equation. The reactor consists of a bolt-clamped Langevin transducer and a rectangular cell with a tungsten reflector. A 3λ/4-standing-wave-field was generated in the reactor to simplify the sound pressure distribution. The sound pressure distribution was measured from the optical refractive index change of water using a laser interferometer. The experimental and theoretical results showed a good agreement in the absolute value of the sound pressure amplitude, and it was confirmed that the sound pressure in the sonochemical reactor can be estimated from the input current of the vibrator.
doi_str_mv 10.1016/j.ultsonch.2012.06.016
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A small-sized sonochemical reactor in which the absolute value of the sound pressure amplitude can be estimated from the vibration velocity of the transducer was investigated. The sound pressure distribution in the reactor and the relationship between the vibration velocity and the sound pressure amplitude were derived through Helmholtz wave equation. The reactor consists of a bolt-clamped Langevin transducer and a rectangular cell with a tungsten reflector. A 3λ/4-standing-wave-field was generated in the reactor to simplify the sound pressure distribution. The sound pressure distribution was measured from the optical refractive index change of water using a laser interferometer. 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A small-sized sonochemical reactor in which the absolute value of the sound pressure amplitude can be estimated from the vibration velocity of the transducer was investigated. The sound pressure distribution in the reactor and the relationship between the vibration velocity and the sound pressure amplitude were derived through Helmholtz wave equation. The reactor consists of a bolt-clamped Langevin transducer and a rectangular cell with a tungsten reflector. A 3λ/4-standing-wave-field was generated in the reactor to simplify the sound pressure distribution. The sound pressure distribution was measured from the optical refractive index change of water using a laser interferometer. 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source Elsevier ScienceDirect Journals
subjects Chemistry
Exact sciences and technology
General and physical chemistry
Physical chemistry of induced reactions (with radiations, particles and ultrasonics)
Refractive index
Sonochemical reactor
Sonochemistry
Sonoreactor
Sound pressure
Ultrasonic chemistry
title Estimation of absolute sound pressure in a small-sized sonochemical reactor
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