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Optimization design of acoustic black hole structures by embedding disordered hyperuniform phononic crystals

Published: 01 January 2025 Publication History

Highlights

Band gaps of the periodic phononic crystal and the disordered hyperuniform phononic crystal (DHPC) are compared.
Band gaps of the DHPC are opened in pre-described frequency ranges by inversely designing its geometrical parameters.
The energy concentrating capacity of the designed structure is experimentally accessed.

Abstract

Incorporating the unique energy concentration features of acoustic black hole (ABH) and frequency band gaps of phononic crystals, this paper presents an optimization approach for the acoustic black hole structure by embedding disordered hyperuniform phononic crystal (ABH-DHPC). The operating frequency of the design ABH-DHPC is achieved by manipulating the band-gaps of the DHPC. Specifically, the current work establishes an optimization design method for DHPC band gaps by using an equivalent unit cell instead of the supercell of DHPC to calculate the band gap. The ABH-DHPCs, ranging from 1 mm to 100 m, are meticulously crafted to operate within the frequency range of 0.1–100 kHz. Lastly, samples of centimeter size, manufactured using this method, exhibited a remarkable 40-fold enhancement in vibration response during experiments conducted at 1–2 kHz.

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            Published In

            cover image Advances in Engineering Software
            Advances in Engineering Software  Volume 199, Issue C
            Jan 2025
            270 pages

            Publisher

            Elsevier Science Ltd.

            United Kingdom

            Publication History

            Published: 01 January 2025

            Author Tags

            1. Acoustic black hole
            2. Phononic crystal
            3. Disordered hyperuniform
            4. Vibration response amplification
            5. Optimization design

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