A study of the band structure in two-dimensional phononic crystals based on plane-wave algorithm | Zendy

Qi Gong-Jin | Zendy; Yang Shengliang | Zendy; Shuxin Bai | Zendy; Xun Zhao | Zendy

AI Assistant Blog Pricing

Home ZAIA Blog

Open Access

A study of the band structure in two-dimensional phononic crystals based on plane-wave algorithm

Author(s) -

Qi Gong-Jin,

Yang Shengliang,

Shuxin Bai,

Xun Zhao

Publication year - 2003

Publication title -

acta physica sinica

Language(s) - English

Resource type - Journals

SCImago Journal Rank - 0.199

H-Index - 47

ISSN - 1000-3290

DOI - 10.7498/aps.52.668

Subject(s) - band gap , plane wave expansion method , mercury (programming language) , condensed matter physics , binary number , lattice (music) , plane wave , materials science , lattice constant , physics , optics , diffraction , mathematics , acoustics , computer science , arithmetic , programming language

In this paper, the calculating course of the plane-wave algorithm is introducedto solve the sound wave equation and the band structure of phononic crystals. The phononic crystals of two-dimensional binary liquid systems are studied. In conclusion, the CCl4/mercury system is easier to obtain the band-gap than the mercury/CCl4 system. With the increase of the filling fraction(f), the width of the band-gap becomes wider and then narrower. The widest band-gap of CCl4/mercury system appears at f=0229,where ΔΩmax=0549.While the width of the band-gap in mercury/CCl4 system increases consistently with the filling fraction, when f=0.554,ΔΩmax=0515.Under the same filling fraction, the variation of the cylinder diameter and lattice constant does not affect the band-gap width ΔΩ.

The content you want is available to Zendy users.

Already have an account? Click here to sign in.

Having issues? You can contact us here

Accelerating Research