Thus, removal of the optimum level of efficiency in activities the hydroponics and minimize of the labor force and cost will be spent in the process of plant growth is aimed.
📌 3 Key Takeaways
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Objective & Hypothesis:In this study, the hydroponics subject is briefly discussed and developed an expert system on the subject.
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Key Findings & Data:Expert system, the process of upbringing of plants produced in the hydroponics systems has controlled.
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Conclusion & Impact:Thus, removal of the optimum level of efficiency in activities the hydroponics and minimize of the labor force and cost will be spent in the process of plant growth is aimed.
🔬Design:Research Article
📍Scope:Comprehensive Sample
⚙️Variables:Expert System · Hydroponics · Greenhouse
Abstract
In this study, the hydroponics subject is briefly discussed and developed an expert system on the subject. Expert system, the process of upbringing of plants produced in the hydroponics systems has controlled. The system is able to determine to the values of input parameters by using output parameters entered by user. The input parameters preparing the optimum growing environment for plants by controlling the process of plant breeding. Thus, removal of the optimum level of efficiency in activities the hydroponics and minimize of the labor force and cost will be spent in the process of plant growth is aimed.
ŞAHİN, İ., CALP, M., ÖZKAN, A. (2014). An Expert System Design and Application for Hydroponics Greenhouse Systems. Gazi University Journal of Science, Cilt: 27 - Sayı: 2, 809–822. https://ajindex.com/articles/254837
Sheikh, B.A. (2006). Hydroponics: key to sustain agriculture in water stressed and urban environment. Pak. J. Agric., Agril. Eng., Vet. Sci. 22, 53–57.
Benton, J. J. (2004). Hydroponics. A practical guide for the soilless grower. 2nd Edition, CRC Press. pp. 35-150.
Marschner, H. (1995). Mineral nutrition of higher plants. Academic Press.
London, Abstract: Soil Sci., 168(1): 29-38.
Morgan, L, Peckenpaugh, D. (2004).
Hydroponic Solutions, Voll: Hydroponic Growing Tips, New Moon Publishing, Co., Covallis, OR. Winsor, G., Schwarz, M. (1990). Soiless culture for horticultural crop production. Rome, P.188 p.101. Eltez, R.Z., Tüzel, Y., Tüzel, I.H., Gül, A., Demirelli, A. (2002). Effect of Continuous and Intermittent Solution Circulation on Yield, Fruit Quality and Water Consumption of Tomato Plants Grown in Nutrient Film Technique (NFT). Ege University, Faculty of Agriculture-Electronic Journal. 39(1):17- 24. Sevgican, A. (2003). Greenhouse Vegetable Cultivation. Vol II (Hydroponics). Ege University, Agriculture Faculty Publications. N:526. Bornova- Izmir. p.168. Arteca, R. N and J. M. Arteca. (2000). A novel method for growing Arabidopsis thaliana plants hydroponically. Physiol. Plant, 108: 188–193.
Grewal, H.S., Maheshwari, B. and Parks, S.E. (2011). Water and nutrient use efficiency of a low- cost hydroponic greenhouse for a cucumber crop: An Australian case study, Agricultural Water Management 98, 841–846.
Parks, S.E., Worrall, R.J., Low, C.T., Jarvis, J.A. (2009). Initial efforts to improve the managementof substrates in greenhouse vegetable production in Australia. Acta Hort. 819, 331–336.
Jones, Jr., J. B. (1983). A Guide For The Hydroponics and Soilless Culture Grower. ISBN: 0- 917304-49-7.
Timber Pres. Oregon. Van Os, E.A., T.H. Gieling and M.N.A. Ruıjs. (2001). Equipment for hydroponic installations. In: Savvas, D. and H.C. Passam (eds): Hydroponic production of vegetables and ornamentals. Embryo Publications, Athens, Greece, 103–141.
Ghehsareh, A. M., Khosravan, S. and Shahabi, A. A. (2011). The effect of different nutrient solutions on some growth indices of greenhouse cucumber in soilless culture”, Journal of Plant Breeding and Crop Science Vol. 3(12), pp. 321-326, 30 October. Sonneveld, C., Wim, V. (2009). Plant Nutrition of Greenhouse Crops. Springer. p. 431. Sonneveld, C., de Kreij, C., van der Wees, A. voor (1991). glastuinbouw, No. 11, fifth ed., p. 23. waterqualiteit in de Schwarz, D., R. Grosch, W. Gross and S. Hoffmann- Hergartenc. (2005).