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LATEST PROGRESS IN ACOUSTIC LEVITATION

Xie Wen

Open publisher page 7 citations

Abstract

A parametric model incorporating the boundary element method is presented for optimizing the design of single\|axis acoustic levitation,which can produce stable levitation of materials as heavy as tungsten (density 18\^9g/cm\+3). The containerless processing of non\|metallic materials and low melting\|temperature metals is investigated.

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What this paper is about

A parametric model incorporating the boundary element method is presented for optimizing the design of single\|axis acoustic levitation,which can produce stable levitation of materials as heavy as tungsten (density 18\^9g/cm\+3). The containerless processing of non\|metallic materials and low melting\|temperature metals is investigated.

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OpenAlex reports 7 citations for this work. Citation counts describe recorded attention and do not establish research quality.

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Available abstract

A parametric model incorporating the boundary element method is presented for optimizing the design of single\|axis acoustic levitation,which can produce stable levitation of materials as heavy as tungsten (density 18\^9g/cm\+3). The containerless processing of non\|metallic materials and low melting\|temperature metals is investigated.

Key concepts: Levitation, Acoustic levitation, Materials science, Tungsten, Parametric statistics, Mechanical engineering, Metallurgy, Magnet

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