The direct numerical simulation of the flow over a sphere is performed. The computations are carried out in the sub-critical regime at Re = 3700 and Re = 10000 (based on the free-stream velocity and the sphere diameter). A parallel unstructured symmetry-preserving formulation is used for simulating the flow. Particular attention is devoted to investigate the shear-layer instabilities and its influence in the vortical structures in the wake of the sphere. Main features of the flow including power spectra of a set of selected monitoring probes at different positions are described and discussed in detail. Detailed information about turbulent statistics are also provided
Flow-structure interaction of separated shear flow from the sphere and a flat plate was investigated...
This paper presents the experimental results for the flow around a sphere: a smooth sphere in flow w...
Flow characteristics around a sphere located over a smooth flat plate were experimentally investigat...
The direct numerical simulation of the flow over a sphere is performed. The computations are carried...
The flow around bluff bodies is of great interest for a large number of engineering applications su...
The flow over a smooth sphere is examined in the Reynolds number range of 5.0 × 10^4 < Re < 5.0 × 10...
Direct numerical simulation and large-eddy simulation have been performed for a heated sphere at R...
Wakes of bluff bodies in a stratified environment are common in oceanic and atmospheric flows. Some ...
The flow past a streamwise-rotating sphere is investigated numerically for Reynolds numbers (based o...
The structure of sphere wakes in a turbulent environment was measured over the following test range:...
A highly accurate Fourier-Chebyshev spectral collocation method has been used to simulate flow in th...
The current work performed experimental and numerical studies of flow over cylinders and spheres. Th...
Experiment shows that the steady axisymmetric flow past a sphere becomes unstable in the range 120 <...
In this work, the effect of the free-stream turbu-lence on the heat transfer and the near wake behin...
Abstract. Direct numerical simulations have been used to investigate the response of the wake of a s...
Flow-structure interaction of separated shear flow from the sphere and a flat plate was investigated...
This paper presents the experimental results for the flow around a sphere: a smooth sphere in flow w...
Flow characteristics around a sphere located over a smooth flat plate were experimentally investigat...
The direct numerical simulation of the flow over a sphere is performed. The computations are carried...
The flow around bluff bodies is of great interest for a large number of engineering applications su...
The flow over a smooth sphere is examined in the Reynolds number range of 5.0 × 10^4 < Re < 5.0 × 10...
Direct numerical simulation and large-eddy simulation have been performed for a heated sphere at R...
Wakes of bluff bodies in a stratified environment are common in oceanic and atmospheric flows. Some ...
The flow past a streamwise-rotating sphere is investigated numerically for Reynolds numbers (based o...
The structure of sphere wakes in a turbulent environment was measured over the following test range:...
A highly accurate Fourier-Chebyshev spectral collocation method has been used to simulate flow in th...
The current work performed experimental and numerical studies of flow over cylinders and spheres. Th...
Experiment shows that the steady axisymmetric flow past a sphere becomes unstable in the range 120 <...
In this work, the effect of the free-stream turbu-lence on the heat transfer and the near wake behin...
Abstract. Direct numerical simulations have been used to investigate the response of the wake of a s...
Flow-structure interaction of separated shear flow from the sphere and a flat plate was investigated...
This paper presents the experimental results for the flow around a sphere: a smooth sphere in flow w...
Flow characteristics around a sphere located over a smooth flat plate were experimentally investigat...