针对可压缩流的具有最小分散和自适应耗散特性的高效混合 WENO 方案

IF 2.5 3区 工程技术 Q3 COMPUTER SCIENCE, INTERDISCIPLINARY APPLICATIONS
Yin Zhang , Yujie Zhu , Zhensheng Sun , Siye Li , Yu Hu , Xuefeng Xia , Wei Zhang
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引用次数: 0

摘要

具有良好频谱特性的数值方案对于模拟具有不同长度尺度的可压缩流动以解析细小流动尺度非常重要。MDAD-HY 方案(Li 等人,2022 年)使用不连续性检测器和尺度传感器实现了最小离散和自适应耗散特性。然而,不连续性检测器是基于界面两侧的一阶导数和二阶导数之比设计的,会带来过高的数值成本。为解决这一问题,本研究提出了一种具有最小分散和自适应耗散特性的高效混合 WENO 方案。基于特征分解方法,本混合方案的数值通量是通过在线性 MDAD 方案和 MDAD-WENO 方案之间根据新的高效非维度不连续性检测器进行切换来实现的。线性通量采用分量法重建,以减少特征投影操作。为了进一步改善本方案的光谱特性,引入了一个自适应参数,根据不连续性指标控制最优线性方案的贡献。通过几个涉及宽带长度尺度和不连续性的基准测试案例,验证了本方案的效率和高分辨率能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An efficient hybrid WENO scheme with minimized dispersion and adaptive dissipation properties for compressible flows

A numerical scheme with good spectral properties is important for the simulation of compressible flows with various of length scales for fine flow scales resolving. The MDAD-HY scheme (Li et al., 2022) using a discontinuity detector and scale sensor achieves the minimized dispersion and adaptive dissipation property. However, the discontinuity detector is devised based on the ratio of the 1st-order and 2nd-order derivatives on two sides of the interface introducing excessive numerical cost. To address this issue, an efficient hybrid WENO scheme with minimized dispersion and adaptive dissipation properties is proposed in this work. Based on the characteristic-decomposition approach, the numerical flux of the present hybrid scheme is achieved by switching between the linear MDAD scheme and the MDAD-WENO scheme according to a new efficient non-dimensional discontinuity detector. The linear flux is reconstructed in a component-wise method to decrease the characteristic-projection operations. To further improve the spectral property of the present scheme, an adaptive parameter controlling the contribution of the optimal linear scheme according to the discontinuity indicator is introduced. Several benchmark test cases involving broadband of length scales and discontinuities are adopted to verify the efficiency and the high-resolution capability of the present scheme.

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来源期刊
Computers & Fluids
Computers & Fluids 物理-计算机:跨学科应用
CiteScore
5.30
自引率
7.10%
发文量
242
审稿时长
10.8 months
期刊介绍: Computers & Fluids is multidisciplinary. The term ''fluid'' is interpreted in the broadest sense. Hydro- and aerodynamics, high-speed and physical gas dynamics, turbulence and flow stability, multiphase flow, rheology, tribology and fluid-structure interaction are all of interest, provided that computer technique plays a significant role in the associated studies or design methodology.
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