A suspension of oblate spheroidal (disk-like) particles in turbulent channel flow has been investigated with focus on the translational and rotational particle statistics. The effects of particle aspect ratio and inertia have been explored. The disk-like particles exhibited a significant preferential orientation in the plane of the mean shear. The influence of the particle shape on the orientation and rotation diminished as translational inertia increased from Stokes number 1 to 30. Isotropization of both orientation and rotation could be observed in the core region of the channel. Keywords: oblate spheroids, preferential orientation, shape effects, inertia effects
Motivated by applications in engineering as well as in other disciplines where the motion of particl...
How anisotropic particles rotate and orient in a flow depends on the hydrodynamic torque they experi...
Non-spherical particles transported by turbulent flow have a rich dynamics that combines their trans...
The dynamical behavior of inertial disk-like particles in turbulent vertical channel flow is investi...
We investigated the rotation of non-spherical particles (rod-like and disk-like) in turbulent channe...
The dynamical behavior of tiny elongated particles in a directly simulated turbulent flow field is i...
In the present PhD thesis, we investigate the dynamics of small non-spherical particles suspended in...
We study the angular dynamics of small non-spherical particles settling in a turbulent flow, such as...
International audienceHow non-spherical particles orient as they settle in a flow has important prac...
The presence of solid rigid particles alters the global transport and rheological properties of the ...
Axis-symmetric spheroids, such as rod-like and disk-like particles, have been found to orient prefer...
Particle dynamics in a channel flow are investigated using large eddy simulation and a Lagrangian pa...
Using disk, spherical and needle-like particles with equal equivalent volume diameters, the orientat...
We study the rotational dynamics of inertial disks and rods in three-dimensional, homogeneous, isotr...
Motivated by applications in technology as well as in other disciplines where the motion of particle...
Motivated by applications in engineering as well as in other disciplines where the motion of particl...
How anisotropic particles rotate and orient in a flow depends on the hydrodynamic torque they experi...
Non-spherical particles transported by turbulent flow have a rich dynamics that combines their trans...
The dynamical behavior of inertial disk-like particles in turbulent vertical channel flow is investi...
We investigated the rotation of non-spherical particles (rod-like and disk-like) in turbulent channe...
The dynamical behavior of tiny elongated particles in a directly simulated turbulent flow field is i...
In the present PhD thesis, we investigate the dynamics of small non-spherical particles suspended in...
We study the angular dynamics of small non-spherical particles settling in a turbulent flow, such as...
International audienceHow non-spherical particles orient as they settle in a flow has important prac...
The presence of solid rigid particles alters the global transport and rheological properties of the ...
Axis-symmetric spheroids, such as rod-like and disk-like particles, have been found to orient prefer...
Particle dynamics in a channel flow are investigated using large eddy simulation and a Lagrangian pa...
Using disk, spherical and needle-like particles with equal equivalent volume diameters, the orientat...
We study the rotational dynamics of inertial disks and rods in three-dimensional, homogeneous, isotr...
Motivated by applications in technology as well as in other disciplines where the motion of particle...
Motivated by applications in engineering as well as in other disciplines where the motion of particl...
How anisotropic particles rotate and orient in a flow depends on the hydrodynamic torque they experi...
Non-spherical particles transported by turbulent flow have a rich dynamics that combines their trans...