Computational Fluid Dynamics for the 21st Century

1 Contributions of Prof. Satofuka to Computational Fluid Dynamics.- Cartesian Grid Approach with Virtual Boundary Method and Its Applications.- Isotropic and Anisotropic Adaptive Meshes: Models and Convergence Properties.- Gridless Type Solver — Generalized Finite Difference Method —.- Residual-Based Compactness versus Directionality for High-Order Compressible Flow Calculations.- Progress in the Development of a Class of Efficient Low Dissipative High Order Shock-Capturing Methods.- A Second-Order-Accurate Fluctuation Splitting Scheme for Unsteady Hyperbolic Problems.- Lattice-Boltzmann Methods — A New Tool in CFD —.- Perspectives on Simulation Based Aerodynamics Design.- Multi-Objective Aerodynamic and Aeroelastic Optimization.- Genetic Algorithms and Game Theory for High Lift Multi-Airfoil Design Problems in Aerodynamics.- Parallel Computation of Flow Problems Using Explicit Schemes.- Parallel Computation of Compressible Flows for Implicit Schemes Without Sub-Iteration and Modification of the Implicit Solver.- Some Influences of Geometry, Shear and Walls on 3D Flows at Intermediate Reynolds Numbers.- Least-Squares Method for Laminar Flow Problems.- On the Incompressible Limit of Compressible Fluid Flow.- Effects of Wave Breaking Action on Flows in Tidal-Flats.- Computational Methods for Parachute Aerodynamics.- Dissipative Mechanism in Godunov Method.- Numerical Simulation of Shock Interactions.- Numerical Simulations of the Coupling Process of Compressible Vortices.- Numerical Simulation of Sound Emission from Supersonic Jet.- Numerical Computation in Magnetofluid Dynamics.- Numerical Investigation of Magnetohydrodynamic Effects in Real Gas Flows.- Real-Time Computation and Visualization on Mobile PC’s.