Efficient high-order Gradient-based Reconstruction for compressible flows
arXiv:2305.00762 · doi:10.1016/j.jcp.2023.112119
Abstract
This paper extends the gradient-based reconstruction approach of Chamarthi \cite{chamarthi2023gradient} to genuine high-order accuracy for inviscid test cases involving smooth flows. A seventh-order accurate scheme is derived using the same stencil as of the explicit fourth-order scheme proposed in Ref. \cite{chamarthi2023gradient}, which also has low dissipation properties. The proposed method is seventh-order accurate under the assumption that the variables at the \textit{cell centres are point values}. A problem-independent discontinuity detector is used to obtain high-order accuracy. Accordingly, primitive or conservative variable reconstruction is performed around regions of discontinuities, whereas smooth solution regions apply flux reconstruction. The proposed approach can still share the derivatives between the inviscid and viscous fluxes, which is the main idea behind the gradient-based reconstruction. Several standard benchmark test cases are presented. The proposed method is more efficient than the seventh-order weighted compact nonlinear scheme (WCNS) for the test cases considered in this paper.
References in corpus (8)
- High-Order Localized Dissipation Weighted Compact Nonlinear Scheme for Shock- and Interface-Capturing in Compressible Flows
- Very-high-order TENO schemes with adaptive accuracy order and adaptive dissipation control
- An efficient targeted ENO scheme with local adaptive dissipation for compressible flow simulation
- High-Order Central-Upwind shock capturing scheme using a Boundary Variation Diminishing (BVD) Algorithm
- Gradient Based Reconstruction: Inviscid and viscous flux discretizations, shock capturing, and its application to single and multicomponent flows
- A low-dissipation shock-capturing framework with flexible nonlinear dissipation control
- First order hyperbolic approach for Anisotropic Diffusion equation
- High-order upwind and non-oscillatory approach for steady state diffusion, advection-diffusion and application to magnetized electrons
Cited by in corpus (3)
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- Consistent Interface Capturing Adaptive Reconstruction Approach for Viscous Compressible Multicomponent Flows
- Wave-appropriate reconstruction of compressible flows: physics-constrained acoustic dissipation and rank-1 entropy wave correction