2010
Haddoun A, Benbouzid MEH, Diallo D, Abdessemed R, Ghouili J, Srairi K.
Design and implementation of an electric differential for traction application. 2010 IEEE Vehicle Power and Propulsion Conference. 2010 :1-6.
Redha MENANIM.
Détermination des sites de recharge artificielle de l’aquifère alluvial de la plaine d’El Madher (Région de Batna, Nord-Est algérien). Bulletin du Service Géologique National de l’ANGCMBulletin du Service Géologique National de l’ANGCM. 2010;Vol. 21 :pp. 329-347.
MESMOUDI K, SOUDANI A, BOURNET PE.
The determination of the inside air temperature of a greenhouse with tomato crop, under hot and arid climates. 2010;Vol. 5 :pp 114-127.
Abstract Up to now, few studies were devoted to the description of the energy balance components of a greenhouse located in the semi arid region of the southern Mediterranean basin, and no attention was paid to the prediction of the inside air temperature. In this study, experiments were undertaken to investigate the response of a greenhouse to the outside climate conditions considering a naturally ventilated Venlo glasshouse with a tomato crop. The measurements show that the difference between inside and outside air temperature is strongly linked to the incoming solar radiation as well as to the wind speed. From these results a simplified model was established to predict the greenhouse air temperature, knowing the greenhouse characteristics and the outside climate variables. The model is based on the energy balance of the greenhouse. Using a parameter identification technique, the model was calibrated against the experimental results. A sensivity analysis was conducted to assess the impact of several physical parameters such as solar radiation, wind speed and cover transmission on the evolution of the inside air temperature. This model appears to be suitable for predicting the greenhouse air temperature satisfactorily, at least during night
MESMOUDI K, SOUDANI A, BOURNET PE.
The determination of the inside air temperature of a greenhouse with tomato crop, under hot and arid climates. 2010;Vol. 5 :pp 114-127.
Abstract Up to now, few studies were devoted to the description of the energy balance components of a greenhouse located in the semi arid region of the southern Mediterranean basin, and no attention was paid to the prediction of the inside air temperature. In this study, experiments were undertaken to investigate the response of a greenhouse to the outside climate conditions considering a naturally ventilated Venlo glasshouse with a tomato crop. The measurements show that the difference between inside and outside air temperature is strongly linked to the incoming solar radiation as well as to the wind speed. From these results a simplified model was established to predict the greenhouse air temperature, knowing the greenhouse characteristics and the outside climate variables. The model is based on the energy balance of the greenhouse. Using a parameter identification technique, the model was calibrated against the experimental results. A sensivity analysis was conducted to assess the impact of several physical parameters such as solar radiation, wind speed and cover transmission on the evolution of the inside air temperature. This model appears to be suitable for predicting the greenhouse air temperature satisfactorily, at least during night
MESMOUDI K, SOUDANI A, BOURNET PE.
The determination of the inside air temperature of a greenhouse with tomato crop, under hot and arid climates. 2010;Vol. 5 :pp 114-127.
Abstract Up to now, few studies were devoted to the description of the energy balance components of a greenhouse located in the semi arid region of the southern Mediterranean basin, and no attention was paid to the prediction of the inside air temperature. In this study, experiments were undertaken to investigate the response of a greenhouse to the outside climate conditions considering a naturally ventilated Venlo glasshouse with a tomato crop. The measurements show that the difference between inside and outside air temperature is strongly linked to the incoming solar radiation as well as to the wind speed. From these results a simplified model was established to predict the greenhouse air temperature, knowing the greenhouse characteristics and the outside climate variables. The model is based on the energy balance of the greenhouse. Using a parameter identification technique, the model was calibrated against the experimental results. A sensivity analysis was conducted to assess the impact of several physical parameters such as solar radiation, wind speed and cover transmission on the evolution of the inside air temperature. This model appears to be suitable for predicting the greenhouse air temperature satisfactorily, at least during night
Ueki S-ichiro, Prażmowska M, Zhong S, Diagana T, Podara CP, Mortici C, Balaj M, Stancu-Dumitru D, Fernós T, Daniel P.
Diameter preserving linear bijections and ${\cal C} _0 (L) $ spaces. Bull. Belg. Math. Soc. Simon StevinBull. Belg. Math. Soc. Simon Stevin. 2010;17.
Ueki S-ichiro, Prażmowska M, Zhong S, Diagana T, Podara CP, Mortici C, Balaj M, Stancu-Dumitru D, Fernós T, Daniel P.
Diameter preserving linear bijections and ${\cal C} _0 (L) $ spaces. Bull. Belg. Math. Soc. Simon StevinBull. Belg. Math. Soc. Simon Stevin. 2010;17.
Ueki S-ichiro, Prażmowska M, Zhong S, Diagana T, Podara CP, Mortici C, Balaj M, Stancu-Dumitru D, Fernós T, Daniel P.
Diameter preserving linear bijections and ${\cal C} _0 (L) $ spaces. Bull. Belg. Math. Soc. Simon StevinBull. Belg. Math. Soc. Simon Stevin. 2010;17.
Ueki S-ichiro, Prażmowska M, Zhong S, Diagana T, Podara CP, Mortici C, Balaj M, Stancu-Dumitru D, Fernós T, Daniel P.
Diameter preserving linear bijections and ${\cal C} _0 (L) $ spaces. Bull. Belg. Math. Soc. Simon StevinBull. Belg. Math. Soc. Simon Stevin. 2010;17.
Ueki S-ichiro, Prażmowska M, Zhong S, Diagana T, Podara CP, Mortici C, Balaj M, Stancu-Dumitru D, Fernós T, Daniel P.
Diameter preserving linear bijections and ${\cal C} _0 (L) $ spaces. Bull. Belg. Math. Soc. Simon StevinBull. Belg. Math. Soc. Simon Stevin. 2010;17.
Ueki S-ichiro, Prażmowska M, Zhong S, Diagana T, Podara CP, Mortici C, Balaj M, Stancu-Dumitru D, Fernós T, Daniel P.
Diameter preserving linear bijections and ${\cal C} _0 (L) $ spaces. Bull. Belg. Math. Soc. Simon StevinBull. Belg. Math. Soc. Simon Stevin. 2010;17.
Ueki S-ichiro, Prażmowska M, Zhong S, Diagana T, Podara CP, Mortici C, Balaj M, Stancu-Dumitru D, Fernós T, Daniel P.
Diameter preserving linear bijections and ${\cal C} _0 (L) $ spaces. Bull. Belg. Math. Soc. Simon StevinBull. Belg. Math. Soc. Simon Stevin. 2010;17.
Ueki S-ichiro, Prażmowska M, Zhong S, Diagana T, Podara CP, Mortici C, Balaj M, Stancu-Dumitru D, Fernós T, Daniel P.
Diameter preserving linear bijections and ${\cal C} _0 (L) $ spaces. Bull. Belg. Math. Soc. Simon StevinBull. Belg. Math. Soc. Simon Stevin. 2010;17.
Ueki S-ichiro, Prażmowska M, Zhong S, Diagana T, Podara CP, Mortici C, Balaj M, Stancu-Dumitru D, Fernós T, Daniel P.
Diameter preserving linear bijections and ${\cal C} _0 (L) $ spaces. Bull. Belg. Math. Soc. Simon StevinBull. Belg. Math. Soc. Simon Stevin. 2010;17.
Ueki S-ichiro, Prażmowska M, Zhong S, Diagana T, Podara CP, Mortici C, Balaj M, Stancu-Dumitru D, Fernós T, Daniel P.
Diameter preserving linear bijections and ${\cal C} _0 (L) $ spaces. Bull. Belg. Math. Soc. Simon StevinBull. Belg. Math. Soc. Simon Stevin. 2010;17.
CHEIKH R, Said D, Menacer A.
The doubly fed induction generator powers flow control in variable speed. structure (turbine, stator, rotor and grid)structure (turbine, stator, rotor and grid). 2010;1 :7.
CHEIKH R, Said D, Menacer A.
The doubly fed induction generator powers flow control in variable speed. structure (turbine, stator, rotor and grid)structure (turbine, stator, rotor and grid). 2010;1 :7.
CHEIKH R, Said D, Menacer A.
The doubly fed induction generator powers flow control in variable speed. structure (turbine, stator, rotor and grid)structure (turbine, stator, rotor and grid). 2010;1 :7.