2013
Mebarki G, RAHAL S, Hamza A.
Numerical Heat Transfer Enhancement by Flow Control in a Rectangular Horizontal Channel. International Journal of Materials, Mechanics and ManufacturingInternational Journal of Materials, Mechanics and Manufacturing. 2013;Vol.1 :pp. 171-176.
Mebarki G, RAHAL S, Hamza A.
Numerical Heat Transfer Enhancement by Flow Control in a Rectangular Horizontal Channel. International Journal of Materials, Mechanics and ManufacturingInternational Journal of Materials, Mechanics and Manufacturing. 2013;Vol.1 :pp. 171-176.
BERGOUG N, KADID FZ, Abdessemed R.
Numerical modelling of the coupling electromagnetic-hydrodynamic equations of an annular MHD pump. Scientific Bulletin, Series CScientific Bulletin, Series C. 2013;75.
BERGOUG N, KADID FZ, Abdessemed R.
Numerical modelling of the coupling electromagnetic-hydrodynamic equations of an annular MHD pump. Scientific Bulletin, Series CScientific Bulletin, Series C. 2013;75.
BERGOUG N, KADID FZ, Abdessemed R.
Numerical modelling of the coupling electromagnetic-hydrodynamic equations of an annular MHD pump. Scientific Bulletin, Series CScientific Bulletin, Series C. 2013;75.
Mebarki G, RAHAL S.
Numerical simulation and control of two-phase flow with evaporation in a vertical tube submitted to a conjugate heat transfer. Journal of Energy and Power Engineering. In pressJournal of Energy and Power Engineering. In press. 2013.
Mebarki G, RAHAL S.
Numerical simulation and control of two-phase flow with evaporation in a vertical tube submitted to a conjugate heat transfer. Journal of Energy and Power Engineering. In pressJournal of Energy and Power Engineering. In press. 2013.
Kherraf A, Zidani K, Mazouz H, Chelghoum L, Rezoug L.
Numerical Simulation of Hot Isostatic Pressing Process for the Manufacture of Parts Used in Biomechanics. Extracted by" 4th ICOME 2013-Virtual Forum. 2013 :1194.
Kherraf A, Zidani K, Mazouz H, Chelghoum L, Rezoug L.
Numerical Simulation of Hot Isostatic Pressing Process for the Manufacture of Parts Used in Biomechanics. Extracted by" 4th ICOME 2013-Virtual Forum. 2013 :1194.
Kherraf A, Zidani K, Mazouz H, Chelghoum L, Rezoug L.
Numerical Simulation of Hot Isostatic Pressing Process for the Manufacture of Parts Used in Biomechanics. Extracted by" 4th ICOME 2013-Virtual Forum. 2013 :1194.
Kherraf A, Zidani K, Mazouz H, Chelghoum L, Rezoug L.
Numerical Simulation of Hot Isostatic Pressing Process for the Manufacture of Parts Used in Biomechanics. Extracted by" 4th ICOME 2013-Virtual Forum. 2013 :1194.
Kherraf A, Zidani K, Mazouz H, Chelghoum L, Rezoug L.
Numerical Simulation of Hot Isostatic Pressing Process for the Manufacture of Parts Used in Biomechanics. Extracted by" 4th ICOME 2013-Virtual Forum. 2013 :1194.
MESMOUDI K, ZITOUNI B, OUTTAS T, BOURNET PE.
Numerical Simulation of The Airflow and Temperature Distribution in a Closed Empty Venlo Glasshouse Under Hot and Arid Climate. Acta HorticActa Hortic. 2013;1008 :pp 235-240.
AbstractThe thermal behavior of the inside air of a closed Venlo glasshouse without plants was analysed under semi-arid climate conditions. The aim of the study was to investigate to what extent the characteristics of the greenhouse design and outside climatic conditions influence airflow and temperature patterns inside the greenhouse. For the purpose of the present work, a CFD modeling approach was combined with field surveys. The study focuses on the effects of (i) the thermal inertia of the soil, (ii) the movement of the interior air, and (iii) the distribution of the temperature inside the greenhouse. Two contrasted days were considered: a windy overcast day and clear day. From the results, it is concluded that when the greenhouse is fully closed with bare soil, the heat absorbed and stored by the ground during daytime represents a significant heat source which enhances buoyancy forces, the main driving forces of the movement of the air, especially during the night. The temperature of the roof was relatively low and the air temperature distribution inside the greenhouse disclosed a vertical gradient from the roof towards the ground surface due to the movement of the air above the surface of the ground absorbing thermal energy (solar energy). Maximum air velocities inside the greenhouse were observed near the ground surface, while they reached their minimum values in the middle of the greenhouse. Similar results were obtained for the windy overcast day and for the clear day.
MESMOUDI K, ZITOUNI B, OUTTAS T, BOURNET PE.
Numerical Simulation of The Airflow and Temperature Distribution in a Closed Empty Venlo Glasshouse Under Hot and Arid Climate. Acta HorticActa Hortic. 2013;1008 :pp 235-240.
AbstractThe thermal behavior of the inside air of a closed Venlo glasshouse without plants was analysed under semi-arid climate conditions. The aim of the study was to investigate to what extent the characteristics of the greenhouse design and outside climatic conditions influence airflow and temperature patterns inside the greenhouse. For the purpose of the present work, a CFD modeling approach was combined with field surveys. The study focuses on the effects of (i) the thermal inertia of the soil, (ii) the movement of the interior air, and (iii) the distribution of the temperature inside the greenhouse. Two contrasted days were considered: a windy overcast day and clear day. From the results, it is concluded that when the greenhouse is fully closed with bare soil, the heat absorbed and stored by the ground during daytime represents a significant heat source which enhances buoyancy forces, the main driving forces of the movement of the air, especially during the night. The temperature of the roof was relatively low and the air temperature distribution inside the greenhouse disclosed a vertical gradient from the roof towards the ground surface due to the movement of the air above the surface of the ground absorbing thermal energy (solar energy). Maximum air velocities inside the greenhouse were observed near the ground surface, while they reached their minimum values in the middle of the greenhouse. Similar results were obtained for the windy overcast day and for the clear day.
MESMOUDI K, ZITOUNI B, OUTTAS T, BOURNET PE.
Numerical Simulation of The Airflow and Temperature Distribution in a Closed Empty Venlo Glasshouse Under Hot and Arid Climate. Acta HorticActa Hortic. 2013;1008 :pp 235-240.
AbstractThe thermal behavior of the inside air of a closed Venlo glasshouse without plants was analysed under semi-arid climate conditions. The aim of the study was to investigate to what extent the characteristics of the greenhouse design and outside climatic conditions influence airflow and temperature patterns inside the greenhouse. For the purpose of the present work, a CFD modeling approach was combined with field surveys. The study focuses on the effects of (i) the thermal inertia of the soil, (ii) the movement of the interior air, and (iii) the distribution of the temperature inside the greenhouse. Two contrasted days were considered: a windy overcast day and clear day. From the results, it is concluded that when the greenhouse is fully closed with bare soil, the heat absorbed and stored by the ground during daytime represents a significant heat source which enhances buoyancy forces, the main driving forces of the movement of the air, especially during the night. The temperature of the roof was relatively low and the air temperature distribution inside the greenhouse disclosed a vertical gradient from the roof towards the ground surface due to the movement of the air above the surface of the ground absorbing thermal energy (solar energy). Maximum air velocities inside the greenhouse were observed near the ground surface, while they reached their minimum values in the middle of the greenhouse. Similar results were obtained for the windy overcast day and for the clear day.
MESMOUDI K, ZITOUNI B, OUTTAS T, BOURNET PE.
Numerical Simulation of The Airflow and Temperature Distribution in a Closed Empty Venlo Glasshouse Under Hot and Arid Climate. Acta HorticActa Hortic. 2013;1008 :pp 235-240.
AbstractThe thermal behavior of the inside air of a closed Venlo glasshouse without plants was analysed under semi-arid climate conditions. The aim of the study was to investigate to what extent the characteristics of the greenhouse design and outside climatic conditions influence airflow and temperature patterns inside the greenhouse. For the purpose of the present work, a CFD modeling approach was combined with field surveys. The study focuses on the effects of (i) the thermal inertia of the soil, (ii) the movement of the interior air, and (iii) the distribution of the temperature inside the greenhouse. Two contrasted days were considered: a windy overcast day and clear day. From the results, it is concluded that when the greenhouse is fully closed with bare soil, the heat absorbed and stored by the ground during daytime represents a significant heat source which enhances buoyancy forces, the main driving forces of the movement of the air, especially during the night. The temperature of the roof was relatively low and the air temperature distribution inside the greenhouse disclosed a vertical gradient from the roof towards the ground surface due to the movement of the air above the surface of the ground absorbing thermal energy (solar energy). Maximum air velocities inside the greenhouse were observed near the ground surface, while they reached their minimum values in the middle of the greenhouse. Similar results were obtained for the windy overcast day and for the clear day.