Add to ORKGIn this paper, we document the capabilities of a novel numerical approach — the immersed boundary lattice Green’s function (IBLGF) method — to simulate external incompressible flows over complex geometries. This new approach is built upon the immersed boundary method and lattice Green’s functions to solve the incompressible Navier-Stokes equations. We show that the combination of these two concepts allows the construction of an efficient and robust numerical framework for the direct numerical and large-eddy simulation of external aerodynamic problems at moderate to high-Reynolds numbers
Most realistic fluid flow problems are characterised by high Reynolds numbers and complex boundarie...
A non-boundary-conforming formulation for simulating transitional and turbulent flows with complex g...
The paper presents a novel implementation of the embedded boundary algorithm in a Large Eddy Simulat...
In this paper, we document the capabilities of a novel numerical approach — the immersed boundary la...
This work expands the state-of-the-art computational fluid dynamics (CFD) methods for simulating thr...
A new parallel, computationally efficient immersed boundary method for solving three-dimensional, vi...
In this thesis, a collection of novel numerical techniques culminating in a fast, parallel method fo...
Immersed boundary methods are an attractive alternative to body-fitted grids for complex geometries ...
International audienceIn this work three branches of Immersed Boundary Methods (IBM) are described a...
In this paper we show how the Immersed Boundary (IB) method can be used with the Large-Eddy-Simulati...
We propose a multi-resolution strategy that is compatible with the lattice Green's function (LGF) te...
The numerical simulation of flows past flapping foils at moderate Reynolds numbers presents two chal...
In recent years, the industry has been looking for methods to simulate external aerodynamics at low ...
The application of the Immersed Boundary ͑IB͒ method to simulate incompressible, turbulent flows aro...
Immersed boundary (IB) methods are attractive due to their ability to simulate flow over complex ge...
Most realistic fluid flow problems are characterised by high Reynolds numbers and complex boundarie...
A non-boundary-conforming formulation for simulating transitional and turbulent flows with complex g...
The paper presents a novel implementation of the embedded boundary algorithm in a Large Eddy Simulat...
In this paper, we document the capabilities of a novel numerical approach — the immersed boundary la...
This work expands the state-of-the-art computational fluid dynamics (CFD) methods for simulating thr...
A new parallel, computationally efficient immersed boundary method for solving three-dimensional, vi...
In this thesis, a collection of novel numerical techniques culminating in a fast, parallel method fo...
Immersed boundary methods are an attractive alternative to body-fitted grids for complex geometries ...
International audienceIn this work three branches of Immersed Boundary Methods (IBM) are described a...
In this paper we show how the Immersed Boundary (IB) method can be used with the Large-Eddy-Simulati...
We propose a multi-resolution strategy that is compatible with the lattice Green's function (LGF) te...
The numerical simulation of flows past flapping foils at moderate Reynolds numbers presents two chal...
In recent years, the industry has been looking for methods to simulate external aerodynamics at low ...
The application of the Immersed Boundary ͑IB͒ method to simulate incompressible, turbulent flows aro...
Immersed boundary (IB) methods are attractive due to their ability to simulate flow over complex ge...
Most realistic fluid flow problems are characterised by high Reynolds numbers and complex boundarie...
A non-boundary-conforming formulation for simulating transitional and turbulent flows with complex g...
The paper presents a novel implementation of the embedded boundary algorithm in a Large Eddy Simulat...