Crossref Citations
This article has been cited by the following publications. This list is generated based on data provided by
Crossref.
Zhang, Y.-T.
and
Shu, C.-W.
2016.
Handbook of Numerical Methods for Hyperbolic Problems - Basic and Fundamental Issues.
Vol. 17,
Issue. ,
p.
103.
Zhao, H.
2016.
Handbook of Numerical Methods for Hyperbolic Problems - Basic and Fundamental Issues.
Vol. 17,
Issue. ,
p.
585.
Zhu, Jun
and
Shu, Chi-Wang
2017.
Numerical study on the convergence to steady state solutions of a new class of high order WENO schemes.
Journal of Computational Physics,
Vol. 349,
Issue. ,
p.
80.
Jiang, Yan-Qun
Zhou, Shu-Guang
and
Chen, Bokui
2018.
Fixed-point fast sweeping weighted essentially non-oscillatory method for multi-commodity continuum traffic equilibrium assignment problem.
Applied Mathematical Modelling,
Vol. 62,
Issue. ,
p.
404.
Meng, Xucheng
and
Hu, Guanghui
2018.
A NURBS-enhanced finite volume solver for steady Euler equations.
Journal of Computational Physics,
Vol. 359,
Issue. ,
p.
77.
Zhang, Shuhai
Zhu, Jun
and
Shu, Chi-Wang
2019.
A brief review on the convergence to steady state solutions of Euler equations with high-order WENO schemes.
Advances in Aerodynamics,
Vol. 1,
Issue. 1,
Zhu, Jun
and
Shu, Chi-Wang
2020.
Convergence to Steady-State Solutions of the New Type of High-Order Multi-resolution WENO Schemes: a Numerical Study.
Communications on Applied Mathematics and Computation,
Vol. 2,
Issue. 3,
p.
429.
Zhu, Xiaozhi
and
Zhang, Yong-Tao
2021.
Fast Sparse Grid Simulations of Fifth Order WENO Scheme for High Dimensional Hyperbolic PDEs.
Journal of Scientific Computing,
Vol. 87,
Issue. 2,
Zhu, Jun
Shu, Chi-Wang
and
Qiu, Jianxian
2021.
High-order Runge-Kutta discontinuous Galerkin methods with multi-resolution WENO limiters for solving steady-state problems.
Applied Numerical Mathematics,
Vol. 165,
Issue. ,
p.
482.
Chen, Shanqin
2021.
Krylov SSP Integrating Factor Runge–Kutta WENO Methods.
Mathematics,
Vol. 9,
Issue. 13,
p.
1483.
Lozano, Eduardo
and
Aslam, Tariq D.
2021.
Implicit fast sweeping method for hyperbolic systems of conservation laws.
Journal of Computational Physics,
Vol. 430,
Issue. ,
p.
110039.
Li, Liang
Zhu, Jun
and
Zhang, Yong-Tao
2021.
Absolutely convergent fixed-point fast sweeping WENO methods for steady state of hyperbolic conservation laws.
Journal of Computational Physics,
Vol. 443,
Issue. ,
p.
110516.
Ren, Yupeng
Xing, Yulong
Wang, Dean
and
Qiu, Jianxian
2022.
High Order Asymptotic Preserving Hermite WENO Fast Sweeping Method for the Steady-State $$S_{N}$$ Transport Equations.
Journal of Scientific Computing,
Vol. 93,
Issue. 1,
Wan, Yifei
and
Xia, Yinhua
2022.
A hybrid WENO scheme for steady-state simulations of Euler equations.
Journal of Computational Physics,
Vol. 463,
Issue. ,
p.
111292.
Singh, Deepak
Friis, Helmer André
Jettestuen, Espen
and
Helland, Johan Olav
2023.
Adaptive mesh refinement in locally conservative level set methods for multiphase fluid displacements in porous media.
Computational Geosciences,
Vol. 27,
Issue. 5,
p.
707.
Li, Liang
Zhu, Jun
Shu, Chi-Wang
and
Zhang, Yong-Tao
2023.
A Fixed-Point Fast Sweeping WENO Method with Inverse Lax-Wendroff Boundary Treatment for Steady State of Hyperbolic Conservation Laws.
Communications on Applied Mathematics and Computation,
Vol. 5,
Issue. 1,
p.
403.
Li, Liang
Zhu, Jun
and
Zhang, Yong-Tao
2024.
An absolutely convergent fixed-point fast sweeping WENO method on triangular meshes for steady state of hyperbolic conservation laws.
Journal of Computational Physics,
Vol. 514,
Issue. ,
p.
113215.
Liang, Tian
and
Fu, Lin
2024.
A novel finite-difference converged ENO scheme for steady-state simulations of Euler equations.
Journal of Computational Physics,
Vol. 519,
Issue. ,
p.
113386.
Zhu, Jun
Shu, Chi-Wang
and
Qiu, Jianxian
2024.
RKDG Methods with Multi-resolution WENO Limiters for Solving Steady-State Problems on Triangular Meshes.
Communications on Applied Mathematics and Computation,
Vol. 6,
Issue. 3,
p.
1575.
Xu, Ziyao
and
Shu, Chi-Wang
2024.
A High-Order Well-Balanced Discontinuous Galerkin Method for Hyperbolic Balance Laws Based on the Gauss-Lobatto Quadrature Rules.
Journal of Scientific Computing,
Vol. 101,
Issue. 2,