An implementation of the Cartesian cut cell method for modelling incompressible laminar flow is investigated. Solid bodies or boundaries in the flow domain are cut out of a background Cartesian grid. As a result, some cut cells at solid boundary surfaces are generated. With the boundary cut cells, special treatment is needed while integrating the governing equations. A novel hybrid technique involving surface cell trimming and interpolation is applied. To test the accuracy of this approach, it is applied to three benchmark cases: (i) flow in a plane channel skewed to the computational grid lines, (ii) wall-driven flow in an inclined box and (iii) flow past a cylinder. Agreement is found with analytical, numerical benchmark and experimental ...
The extension of a three-dimensional, strictly conservative Cartesian cut-cell based method to stimu...
The Cartesian cut-cell method can be used to represent irregular and complex computational domains w...
International audienceFor accurate simulations of rarefied gas flows around moving obstacles, we pro...
This paper describes the Cartesian cut cell method, which provides a flexible and efficient alternat...
This paper describes the extension of the Cartesian cut cell method to applications involving unstea...
A versatile conservative three-dimensional Cartesian cut-cell method for simulation of incompressibl...
A Cartesian grid method is presented to simulate two- and three-dimensional viscous, compressible fl...
A cut-cell method for Cartesian meshes to simulate viscous compressible flows with moving boundaries...
We present a novel dimensionally split Cartesian cut cell method to compute inviscid, viscous and tu...
This work presents a new viscous wall boundary condition technique for embedded Cartesian grid schem...
The treatment of complex geometries in Computational Fluid Dynamics applications is a challenging en...
We introduce a mimetic Cartesian cut-cell method for incompressible viscous flow that conserves mass...
35 pagesWe present a new second-order method, based on the MAC scheme on cartesian grids, for the nu...
A Cartesian grid method has been developed for simulating two-dimensional unsteady, viscous, incompr...
The application of the Cartesian cut cell approach in the numerical simulation of two-dimensional vi...
The extension of a three-dimensional, strictly conservative Cartesian cut-cell based method to stimu...
The Cartesian cut-cell method can be used to represent irregular and complex computational domains w...
International audienceFor accurate simulations of rarefied gas flows around moving obstacles, we pro...
This paper describes the Cartesian cut cell method, which provides a flexible and efficient alternat...
This paper describes the extension of the Cartesian cut cell method to applications involving unstea...
A versatile conservative three-dimensional Cartesian cut-cell method for simulation of incompressibl...
A Cartesian grid method is presented to simulate two- and three-dimensional viscous, compressible fl...
A cut-cell method for Cartesian meshes to simulate viscous compressible flows with moving boundaries...
We present a novel dimensionally split Cartesian cut cell method to compute inviscid, viscous and tu...
This work presents a new viscous wall boundary condition technique for embedded Cartesian grid schem...
The treatment of complex geometries in Computational Fluid Dynamics applications is a challenging en...
We introduce a mimetic Cartesian cut-cell method for incompressible viscous flow that conserves mass...
35 pagesWe present a new second-order method, based on the MAC scheme on cartesian grids, for the nu...
A Cartesian grid method has been developed for simulating two-dimensional unsteady, viscous, incompr...
The application of the Cartesian cut cell approach in the numerical simulation of two-dimensional vi...
The extension of a three-dimensional, strictly conservative Cartesian cut-cell based method to stimu...
The Cartesian cut-cell method can be used to represent irregular and complex computational domains w...
International audienceFor accurate simulations of rarefied gas flows around moving obstacles, we pro...