Recent experiments in a turbulent boundary layer by Gerashchenko et al. (J. Fluid Mech., vol. 617, 2008, pp. 255–281) showed that the variance of inertial particle accelerations in the near-wall region increased with increasing particle inertia, contrary to the trend found in homogeneous and isotropic turbulence. This behaviour was attributed to the non-trivial interaction of the inertial particles with both the mean shear and gravity. To investigate this issue, we perform direct numerical simulations of channel flow with suspended inertial particles that are tracked in the Lagrangian frame of reference. Three simulations have been carried out considering (i) fluid particles, (ii) inertial particles with gravity and (iii) inertial particles...
This investigation considers the effect of the Stokes number on the near-wall particle dynamics of t...
In the present PhD thesis, we investigate the dynamics of small non-spherical particles suspended in...
International audienceThe settling velocity of inertial particles falling in homogeneous turbulence ...
Recent experiments in a turbulent boundary layer by Gerashchenko et al. (J. Fluid Mech., vol. 617, 2...
Particle acceleration in turbulent flows can be considered a key issue for many environmental and in...
Within the context of heavy particles suspended in a turbulent airflow, we study the effects of grav...
Numerical studies [1, 2] show that the influence of gravity and turbulence on the motion of small an...
We investigate the settling speeds and root mean square (r.m.s.) velocities of inertial particles in...
A theoretical model is presented for the effect of particle inertia and gravity on the turbulence in...
Particle transfer in the wall region of turbulent boundary layers is dominated by coherent structure...
Turbulent gas flows laden with small, dense particles are encountered in a wide number of important ...
The dynamical behavior of inertial disk-like particles in turbulent vertical channel flow is investi...
We investigate the behaviour of microscopic heavy particles settling in homogeneous air turbulence. ...
The distribution of inertial particles in turbulent flows is highly non-uniform and is driven by the...
The settling of (inertial) particles is studied in homogeneous shear turbulence. A drift velocity pe...
This investigation considers the effect of the Stokes number on the near-wall particle dynamics of t...
In the present PhD thesis, we investigate the dynamics of small non-spherical particles suspended in...
International audienceThe settling velocity of inertial particles falling in homogeneous turbulence ...
Recent experiments in a turbulent boundary layer by Gerashchenko et al. (J. Fluid Mech., vol. 617, 2...
Particle acceleration in turbulent flows can be considered a key issue for many environmental and in...
Within the context of heavy particles suspended in a turbulent airflow, we study the effects of grav...
Numerical studies [1, 2] show that the influence of gravity and turbulence on the motion of small an...
We investigate the settling speeds and root mean square (r.m.s.) velocities of inertial particles in...
A theoretical model is presented for the effect of particle inertia and gravity on the turbulence in...
Particle transfer in the wall region of turbulent boundary layers is dominated by coherent structure...
Turbulent gas flows laden with small, dense particles are encountered in a wide number of important ...
The dynamical behavior of inertial disk-like particles in turbulent vertical channel flow is investi...
We investigate the behaviour of microscopic heavy particles settling in homogeneous air turbulence. ...
The distribution of inertial particles in turbulent flows is highly non-uniform and is driven by the...
The settling of (inertial) particles is studied in homogeneous shear turbulence. A drift velocity pe...
This investigation considers the effect of the Stokes number on the near-wall particle dynamics of t...
In the present PhD thesis, we investigate the dynamics of small non-spherical particles suspended in...
International audienceThe settling velocity of inertial particles falling in homogeneous turbulence ...