Feng Xiao

Professor

Tokyo Institute of Technology

Japan

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Feng Xiao is a Professor at the Tokyo Institute of Technology, Japan. His research areas include numerical methods for fluid dynamics, particularly in the development of high-fidelity schemes for compressible and incompressible flows, magnetohydrodynamics, and multiphase systems. He has authored several recent articles focusing on low-dissipation methods and advanced algorithms for interface capturing and simulation of complex flows.

Feng Xiao

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Articles (20)

A low-dissipation numerical method based on boundary variation diminishing principle for compressible gas–liquid two-phase flows with phase change on unstructured grid

A high-fidelity finite volume scheme for ideal magnetohydrodynamics equations using boundary variation diminishing algorithm

High-resolution boundary variation diminishing scheme for two-phase compressible flow with cavitation and evaporation

A coupled level-set and tangent of hyperbola interface capturing (THINC) scheme with a single-step time integration for incompressible flows

A new high-fidelity Total Variation Diminishing scheme based on the Boundary Variation Diminishing principle for compressible flows

A new separation method of hydrogen isotope by dynamically created nonequilibrium state

A nonhydrostatic atmospheric dynamical core on cubed sphere using multi-moment finite-volume method

An accurate and efficient multiphase solver based on THINC scheme and mesh refinement

High-Order Low-Dissipation Shock-Resolving TENO-THINC Schemes for Hyperbolic Conservation Laws

A high-fidelity solver based on hybrid numerical methods on unstructured grids for incompressible multiphase flows

A hybrid volume of fluid and level set interface capturing scheme with quartic surface representation for unstructured meshes

A new 3D OpenFoam solver with improved resolution for hyperbolic systems on hybrid unstructured grids

A new paradigm of dissipation-adjustable, multi-scale resolving schemes for compressible flows

A novel high-order low-dissipation TENO-THINC scheme for hyperbolic conservation laws

An Adaptive Nonhydrostatic Atmospheric Dynamical Core Using a Multi-Moment Constrained Finite Volume Method

Compact multi-stage reconstruction method on polyhedral unstructured grids: Extension to higher-order finite volume scheme

Deep generative model for probabilistic wind speed and wind power estimation at a wind farm

Revisit to the THINC/QQ scheme: Recent progress to improve accuracy and robustness

Self-adjusting steepness-based schemes that preserve discontinuous structures in compressible flows

A fifth-order low-dissipation discontinuity-resolving TENO scheme for compressible flow simulation

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