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Development of Optimal Nutrient Solution of Tomato(Lycopercicon esculentum Mill.) in a Closed Soilless Culture System  

Yu, Sung-Oh (Division of Plant and Resource Science, Wonkwang Univ.)
Bae, Jong-Hyang (Division of Plant and Resource Science, Wonkwang Univ.)
Publication Information
Journal of Bio-Environment Control / v.14, no.3, 2005 , pp. 203-211 More about this Journal
Abstract
The experiment was conducted to investigate the nutrition absorption pattern in the growth stages and develope the optimal nutrient solution hydroponically grown the tomato in closed substrate culture system with the nutrient solution of National Horticultural Research Station in Japan into 1/2S, 1 S, and 2S. When plant was grown in 1/2 S, the growth and yield were high and the pH and EC in the rooting zone were stable. Suitable composition of nutrient solution for tomato was $NO_3-N$ 7.1, $PO_{4}$-P 2.1, K 4.0, Ca 3.1, Mg 1.2, and $SO_{4}-S\;1.2\;me{\cdot}L^{-1}$ in the early growth stage and $NO_3-N$ 6.5, $PO_4-P$ 2.3, K 3.4, Ca 3.1, Mg 1.1, and $SO_4-S\;1.1\;me{\cdot}L^{-1}$ in the late growth stage by calculating a rate of nutrient and water uptake. To estimate the suitability for the nutrient solution of tomato in a development of optimum nutrient solution of tomato developed by Wonkwang university in korea (WU), plant was grown in perlite substrate supplied with different solution and strengths(S) by research station for greenhouse vegetable and floricultuin in the Netherlands (Proefstation voor tuinbouw onder glas te Naaldwijk; PTG) of 1/2 S, 1 S and 2 S, respectively, The growth was good at the PTG and WU of 2 S in early growth stage, and at the WU 2S in late growth stage. The highest yield of tomato obtained in the WU of 2 S, although blossom-end rot was appeared in all treatments. pH and EC in root zone of WU of 2 S were stable during the early and late growth stage. Therefore when plant was grown in WU of 2 S, N and P content in the nutrient solution need to low, according N and P content of their leaves were high in WU of 2 S.
Keywords
Blossom end rot; growth stage; ratio of nutrient and water uptake; soluble solid;
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  • Reference
1 Bohme, M. 1995. Effects of closed systems in substrate culture for vegetable production in greenhouses. Acta Hort. 396:45-54
2 Choi, E.Y., Y.B. Lee, and J.Y. Kim. 1998. Development of optimal nutrient solution for tomato substrate culture in closed system. J. Bio. Fac. Env. 7(1):43-54
3 Jones, Jr., J. Benton, B. Wolf, and H. mills. 1991. The essential elements. Plant analysis handbook. p. 6-17. Micro-Macro pullishing. Onc., Georgia
4 板東一宏. 1991.トマトの循環式ロックウル栽培(1). 農業および園藝 66(6):731-735
5 Kim, Y.C. 1998. Development of Korean type nutrient solution, medium and automatic control system in horticultural crops. Rural Development Administration
6 Yamasaki, K. 1981. The problem and present state of hydroponic culture (I). Nutrient solution management of hydroponic culture-nutritive characteristic of each crop by nutrient/water. Agr. and Hort. 56(4):563-568
7 Roh, M.Y, Y.B. Lee, H.S. Kim, K.B. Lee, and J.H. Bae. 1997. Development of nutrient solution suitable for closed system in substrate culture of cucumber. J. Bio-Env. Con. 6(1):1-14
8 Bartosik, M.L., K. Salonene, R. Jokinen, and K.R. Hukknen. 1993. Comparison of open and closed growing methods on peat and rockwool and the leaching of nutrients. Acta Hort. 342:303-305
9 Kim, H.J. 2001. Modeling nustrient uptake of tomato (Lycopersicon esculentum Mill.) and cucumber (Cucumis sativus L.) for closed substrate culture system. PhD Diss., The Chungbuk National University
10 日本施設園藝協會. 1991.施設園藝における養液栽培の 手引. p.34-37.日本施設園藝協會
11 Sonneveld, C. 1993. Hydroponic growing in closed systems to safeguard the environment. Australia Hydroponic Conference Hydroponics and The Environment. Monash University Melbourne Australia 1719, February. p. 21-36
12 Adams, P. and L.C. Ho. 1995. Uptake and distribution of nutrients in relation to tomato fruit quality. Acta Hort. 412:374-387
13 Kim, Y.C. and G. Y. Kim. 2002. Fertigation techniques done by fertilizers for hydroponics and reuse of waste solution. Kor. Res. Soc. Protected Hort. 15:20-26
14 Choi, E.Y., Y.B. Lee, and J.Y. Kim. 2001. Nutrient uptake, growth and yield of cucumber cultivated with different growing substrates under a closed and an open system. Acta Hort. 548:543-549
15 Schwarz, M. 1995. Soilless culture management. p.98-102. In B.L. McNeal, F. Tardieu, H. Van Keulen, and D. Van Velck(ed.). 1st ed. Springer-Verlag, Berlin, Heidelberg, New York. Sonneveld, C. 1993. Hydroponic growing in closed systems to safeguard the environment. Australia Hydroponic Conference - Hydroponics and the Environment. Monash Univ. Melbourne Australia, p.21-36
16 Ohta, K. 1991. Influence of the concentrations of nutrient solution and salt supplement on quality and yield of cherry tomato grown hydroponically. J. Japan Soc. Hort. Sci. 60(1):89-95   DOI
17 Ikeda, A. 1986. Control of nutrient solution by nutrient absorption characteristic of Jensen, M.H. 1997. Hydroponics. HortScience 32(6): 1018-1021
18 Zekki, H., L. Gauthier, and A. Gosselin. 1996. Growth, productivity and mineral composition of hydroponically cultivated greenhouse tomatoes with or without nutrient solution recycling. J. Amer. Soc. Hort. Sci. 121 (6): 1082-1088
19 De Kreij, C. 1990. Norman Voor Gehalten Ann Voedingselenmenten Van Groenten En Bloemen Onder Glas(Guide values for nutrient element contents of vegetables and flower under glass). Voeding Soplossingen Glastuinbouw No. 15. p. 13. Crops. Agr. and Hort. 61 :205-210
20 Adams, P. and G.W. Winsor. 1973. The effects of nitrogen, potassium and sub-irrigation on the yield, quality and composition of single-truss tomatoes. J. Hort. Sci. 48:123-133
21 Gericke, W.E 1929. Aquaculturem a means of crop production. Amer. J. Bor. 16:826
22 Rural Development Administration. 2003. Statistical data of soilless culture area in Korea. RDA