We estimate snow velocity and snow drift density on hilly terrain under the assumption that the drifting snow mass can be represented using a micro-continuum approach (i.e. using a nonclassical mechanics approach assuming a class of fluids for which basic equations of mass, momentum and energy have been derived). In our model, the theory of coupled stress fluids proposed by Stokes [1] has been employed for the computation of flow parameters. Analyses of bulk drift velocity, drift density, drift transport and mass transport of snow particles have been carried out and computations made, considering various parametric effects. Results are compared with those of classical mechanics (logarithmic wind profile). The results indicate that particle ...
Sublimation of drifting and blowing snow has been recognized as an important component of the surfac...
The NEMO numerical model of drifting snow, whose general outlines are presented in this paper, is ba...
Pomeroy, J.W. and Male, D.H., 1992. Steady-state suspension of snow. J. Hydrol., 136: 275-301. A pro...
We compute the resistance matrices of realistic 3-D snow particle shapes obtained from microcomputed...
The some analysis on the suspension flow with solid particles cannot use the Boussinewq approximatio...
\u3cp\u3eIn the past, computational fluid dynamics (CFD) simulations have been successfully applied ...
ABSTRACT: Several CFD snow drift models were proposed in the literature. These models include variou...
In the past, computational fluid dynamics (CFD) simulations have been successfully applied for the p...
This paper presents a method for two-dimensional numeri-cal simulations of snow drift. The numerical...
Abstract. Vertical profiles of wind speed, temperature and humidity were used to estimate the roughn...
The snow-drift observations were performed as regards snow-drift by noting the surface drift which c...
ABSTRACT:. A study combining field observations and wind tunnel measurements of drifting snow is pre...
In mountainous regions, snow transport due to wind significantly influences snow distribution and, a...
Physically-based models describing the flow of blowing snow are developed and presented. The models ...
Observations of drifting snow on small scales have shown that, in spite of nearly steady winds, the ...
Sublimation of drifting and blowing snow has been recognized as an important component of the surfac...
The NEMO numerical model of drifting snow, whose general outlines are presented in this paper, is ba...
Pomeroy, J.W. and Male, D.H., 1992. Steady-state suspension of snow. J. Hydrol., 136: 275-301. A pro...
We compute the resistance matrices of realistic 3-D snow particle shapes obtained from microcomputed...
The some analysis on the suspension flow with solid particles cannot use the Boussinewq approximatio...
\u3cp\u3eIn the past, computational fluid dynamics (CFD) simulations have been successfully applied ...
ABSTRACT: Several CFD snow drift models were proposed in the literature. These models include variou...
In the past, computational fluid dynamics (CFD) simulations have been successfully applied for the p...
This paper presents a method for two-dimensional numeri-cal simulations of snow drift. The numerical...
Abstract. Vertical profiles of wind speed, temperature and humidity were used to estimate the roughn...
The snow-drift observations were performed as regards snow-drift by noting the surface drift which c...
ABSTRACT:. A study combining field observations and wind tunnel measurements of drifting snow is pre...
In mountainous regions, snow transport due to wind significantly influences snow distribution and, a...
Physically-based models describing the flow of blowing snow are developed and presented. The models ...
Observations of drifting snow on small scales have shown that, in spite of nearly steady winds, the ...
Sublimation of drifting and blowing snow has been recognized as an important component of the surfac...
The NEMO numerical model of drifting snow, whose general outlines are presented in this paper, is ba...
Pomeroy, J.W. and Male, D.H., 1992. Steady-state suspension of snow. J. Hydrol., 136: 275-301. A pro...