Jurnal TANAH TROPIKA (Journal of Tropical Soils), Vol 19, No 2

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Application of Lime and Adaptable Variety to Increase Tomato Productivity at Potential Acid Sulphate Soil

. Koesrini, Eddy William, Dedi Nursyamsi

Abstract


High soil acidity is the most important problem that causes low tomato (Lycopersicum esculentum) productivityat potential acid sulphate soil. Soil quality improvement by using ameliorant, such as lime, and introducing adaptable variety are options to increase tomato productivity in the soils. Field experiment was conducted to evaluate the effect of lime and varieties of tomatoes to increase its productivity in a potential acid sulphate soil of Belandean, Barito Kuala District, South Kalimantan during dry season of 2011. The research was arranged in a split-plot design with three replicates. The main plots were two tomatoes varieties, i.e. Permata and Ratna, while sub plots were five levels of lime, i.e: 0, 0.5, 1.0, 1.5, and 2.0  t ha-1. The results showed that liming improved soil quality and tomato yield. It significantly increased soil pH and reduced soil Al-saturation, and increased soil exchangeable-Ca and Mg. It was assumed that due to pyrite oxidation, however, soil pH decreased and Al-saturation increased, while soil exchangeable- Ca  and  Mg  decreased  significantly  at  nine  weeks  after  planting.  Liming  also  increased  plant  growth  and  yield variables (plant height, size, number and weight of fruit, and fruit yield) for both varieties. The better variables of Permata variety at control treatment than those of Ratna variety indicated that the first variety was more adaptive than the other variety in potential acid sulphate soil.

Keywords: Adaptable variety, lime, potential acid sulphate soil, tomato.

[How to Cite: Koesrini, E William and D Nursyamsi. 2014. Application of Lime and Adaptable Variety to Increase Tomato Productivity at Potential Acid Sulphate Soil. J Trop Soils 19(2): 69-76. Doi: 10.5400/jts.2014.19.2.69]

 

[Permalink/DOI: www.dx.doi.org/10.5400/jts.2014.19.2.69]

 

 


References


REFERENCES

Alihamsyah T and I Noor. 2003. Tidal Swampland: food security and agribussines growth. Indonesian Swampland Agricultural Research Institute. 53p. (in Indonesian).
Caires EF, S Churka, FJ Garbuio, RA Ferrari and MA Morgafio. 2006. Soybean yield and quality as a function of lime and gypsum applications. Sci Agrie 63: 370-379.
Dierolf T, T Fairhurst and E Mutert. 2001. A toolkit for acid, upland soil fertility management in Southeast Asia. Handbook Series. PPIC-Canada. 150p.
Hanson EJ, and SR Berkheimer. 2004. Effect of soil calcium applications on blueberry yield and quality. Small Fruits Rev 3: 133-139.
Illera V, R Garrido, C Vizcayno and MT Garcia-Gonzales. 2004. Field application of industrial by-product as Al-toxicity amendment: chemical and mineralogical implication. Eur J Soil Sci 55: 681-692.
Indrayati L, A Supriyo and S Umar. 2011. Integrated technology of water management, ameliorant and fertilizer on rice cultivation on South Kalimantan acid sulphate soil. J Soil Climate, Swampland Special Edition: 47-54 (in Indonesian).
Kochian, LV, MA Pineros and OA Hoekenga. 2005. The physiology, genetics and molecular biology of plant aluminum resistance and toxicity. Plant Soil 274: 175-195.
Koesrini and E Pangaribuan. 2009. The effect of ameliorant application on plant growth and yield of three tomatoes varieties on actual acid sulphate soil. In: A Supriyo, M Noor, I Ar-Riza and K Anwar (eds). National Proceed Meeting, Banjarbaru, 5 August 2008. BBSDLP, pp.170-177 (in Indonesian).
Koesrini and E William. 2009. The effect of ameliorant application on plant growth and yield of three snap bean varieties on actual acid sulphate soil. J Agron Indon 37: 34-39 (in Indonesian).
Koesrini, Nurita and K Anwar. 2011. Land quality improvement to increase soybean productivity on potential acid sulphate soil. J Soil Climate, Swampland Special Edition: 55-62 (in Indonesia).
Konsten CJM, NV Breemen, S Suping, IB Aribawa and JE Groenenberg. 1994. Effect of flooding on pH of rice-producing acid sulphate soil in Indonesia. Soil Sci Soc Am J 58: 871-883.
Merifio CG, M Alberdi, AG Ivanov and M Reyesdiaz. 2010. Al3+, Ca2+ interaction in plants growing in acid soils:Al-Phytotoxicity response to calcareous amendments.  J Soil Sci Plant Nutr 10: 217-243.
Mora ML, P Cartes, R Demanent and IS Cornforth. 2002. Effect of lime and gypsum on pasture growth and composition on an acid Andisol in Chile, South America. Comm Soil Sci Plant Anal 33: 2069-2081.
Mora ML, MA Alfaro, SC Jarvis, R Demanent and P Cartes. 2006. Soil aluminum availability in Andisol of Southern Chile and its effect on forage production and animal metabolism. Soil use Manage 22: 95-101.
Peixoto HP, FM da Matta and JC da Matta. 2002. Responses of the photosynthetic apparatus to aluminum stress in two sorghum cultivars. J Plant Nutr 25: 821-832.
Poschenrieder C, B Gunse, I Corrales and J Barcelo. 2008. A glance into aluminum toxicity and resistance in plant. Sci Total Environ 400: 356-368.
Rahman M, ATM Farid, M Shadidullah and W Sultana. 1996. Improved seed yield and quality of tomatoes through integrated nutrient management and liming. Seed Res. (New Delhi) 24: 34-37.
Raihana Y, Nurita and K Anwar. 2011. The response of maize to Al saturation level in tidal swamp potential acid sulphate soils. J Soil Climate, Swampland Special Edition: 63-69 (in Indonesian).
Rengel Z And WH Zhang. 2003. Role of dynamics of intracellular calcium in aluminum-toxicity syndrome. New Phytol 159: 295-314.
Ryan PR and E Delhaize. 2010. The convergent evolution of aluminum resistance in plant exploits a convenient currency. Func plant Biol 37: 275-284.
Soepardi G. 1983. Sifat dan Ciri Tanah. IPB-Bogor. 591 p. (in Indonesian).
Soil Center Research. 1983. Criteria value of chemical soil characteristics. Soil Center Research. Bogor (in Indonesian).
Tuna AL, C Kaya, M Ashraf, H Altuniu, I Yokas and B Yagmur. 2007. The effect of calcium sulphate on growth, membrane stability and nutrient uptake of tomato plants grown under salt stress. Environ Exp Bot 59: 173-178.
Wang HF, M Takematsu and S Ambe. 2000. Effect of soil acidity on the uptake of trace elements in soybean and tomato plant. Appl Radiat Isotopes 52: 803-811.
Wang JP, R Harsh, Z Guo-Ping, M Neville and MX Zhou. 2006. Aluminum tolerance in barley (Hordeum vulgare L.): physiological mechanisms, genetics and screening methods. J Zhejiang Univ Sci B 7: 769-787.
White P and MR Broadley . 2003. Calcium in plants. Ann Bot-London 92: 487-511
Widjaja-Adhi IPG, K Nugrogo, D Ardi and AS Karama. 1992. Swampy land source: potency, constraints and optimalization. In: Partohardjono S and  M Syam (eds). National Annual Meeting to develop swampland at Cisarua, 3-4 March, Bogor, pp. 19-38 (in Indonesian).

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