This work consists to study the storage system effect on thermal performance of an agricultural greenhouse in semi-arid climate case Ghardaia. The data climate is used for predict the energy needs as comparison with another without storage system. The obtained results indicate that the outside needs are less than the not heated with 3 to 5°C during winter night. Were the product rate being 2kg/day. The thermal behavior of the greenhouse was study numerically and the results are corroborating with the literature.
greenhouse, storage system, thermal performances, semi-arid climate, numerical study, data measurement
 Boulard T, Wang S. (2000). Greenhouse crop transpiration simulation from external climate conditions. Agricultural and Forest Meteorology 100: 25-34.
 Bakos GC, Fidanidis D, Sagas NFT. (1999). Greenhouse heating using geothermal energy. Geothermics 28: 759-765.
 Cuce E, Harjunowibowo D, Cuce PM. (2016). Renewable and sustainable energy saving strategies for greenhouse systems: A comprehensive review. Renewable and Sustainable Energy Reviews 64: 34-59.
 Lalmi D, Hadef R, Babbou A, Bensaha H, Bezari S, Zarit R. (2016). Numerical study of air behavior in a greenhouse Equipped with a thermal storage system. The 4th International Seminar on New and Renewable Energies, Ghardaïa – Algeria.
 Babbou A, Ziari YK, Lalmi D, Bezari S, Zarit R, Bensaha H. (2016). Effect of operational parameters on the performance of heat storage in a rock bed used in a tunnel greenhouse. The 4th International Seminar on New and Renewable Energies, Ghardaïa – Algeria.
 Bezari S, Lalmi D, Babbou A. (2016). Heating of greenhouse with storage system: study and investigation. 4th International Conference on Renewable Energies (CIER_2016) Proceedings of Engineering and Technology 14: 23-28.
 Chen CL, Cheng CH. (2002). Buoyancy-induced flow and convective heat transfer in an inclined arc-shape enclosure. International Journal of Heat and Fluid Flow 23: 823–830.
 Bartzanas T, Boulard T, Kittas C. (2002). Numerical simulation of the airflow and temperature distribution in a tunnel greenhouse equipped with insect-proof screen in the openings. Computers and Electronics in Agriculture 34: 207–221.
 Jain D, Tiwari GN. (2004). Effect of greenhouse on crop drying under natural and forced convection (valuation of convective mass transfer coefficient). Energy Conversion and Management 45: 765–783.
 Impron, Hemmingb S, Botb GPA. (2007). Simple greenhouse climate model as a design tool for greenhouses in tropical lowland. Biosystems Engineering 98: 79-89.
 Huang Y, Chen LJ, Li MJ, Zhang B, Chen XL, Zhang LN. (2017). Influence of radiating tube type on heat dissipation of assembled radiators. International Journal of Heat and Technology 35(2): 249-254. https://doi.org/10.18280/ijht.350203
 Triveni MK, Panua R (2017). Numerical analysis of natural convection in a triangular cavity with different configurations of hot wall. International Journal of Heat and Technology 35(1): 11-18. https://doi.org/10.18280/ijht.350102