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Yüksek ve Düşük Dozlardaki Çinkonun, Hidroponik Olarak Yetiştirilen Domates Çeşitlerinde Bitki Yaş Ağırlığı, Klorofil İçeriği üe Kalsiyum, Fosfor ve Demir Beslenmesine Etkileri

The Effects of High and Low Zinc Doses On Plant Fresh Weight, Chlorophyll Content, and Calcium, Phosphorus and Iron Nutrition in Hydroponically Grown Tomato Cultivars

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Abstract (2. Language): 
A short-term experiment was conducted with two tomato cvs, 'Blizzard' and 'Liberto' in a Controlled Temperature (C.T.) room to test the effects of both low and high zinc concentrations on plant growth, chlorophyll and some water-soluble macro and micro nutrient contents of the plant. Zn was added into nutrient solution at 0.154, 7.70 and 77.0 |.imoi/l. Plant fresh weight, chlorophyll and macro and micro nutrient concentrations were within optimal range in 7.70 u.moi/1 Zn treatment. The plants grown at 0.154 \xmo\/\ Zn exhibited P toxicity and those at 77.0 mnoi/l showed Fe deficiency. There were some cultivar differences in response to both low and high zinc, but no consistent relationship between cultivars and nutrient concentration within the plant.
Abstract (Original Language): 
Düşük ve yüksek dozdaki çinkonun, bitki gelişmesi, klorofil içeriği ve bazı suda çözülebilir makro ve mikro besin elementlerine olan etkilerini test etmek için. Blizzard ve Liberto domates çeşitleriyle kontrollü ısıtmalı odalarda kısa-dönemü bir deneme yürütülmüştür. Çinko besin çözeltilerine 0.154, 7.70 ve 77.0 umoi/l olarak katılmıştır. Bitki yaş ağırlığı, klorofil İçeriği, makro ve mikro elementlerin konsantrasyonları 7.70 nmol/i Zn uygulanmasında optimum düzeyde tesbit edilmiştir, 0.154 u.mol/1 Zn* da gelişen bitkiler P toksisitesi göstermişlerdir ve 77.0 u.mol/1 Zn'da yetiştirilenler ise Fe noksanlığı göstermişlerdir. Hem düşük ve hem de yüksek çinkoya karşı çeşitler arasında farklılık bulunmuş fakat bu farklılıkla bitkideki besin konsantrasyonları arasında düzenli bir İlişki saptanmamiştır.
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REFERENCES

References: 

1. Ruano, A.; Arcelo, J. and Oschenrieder, C. H. Zinc toxicity- induced variation of mineral elements composition in hydroponically grown bush bean plants, j. Plant Nutr., 10(4): 373-384, 1987.
2. Ruano, A.; Arcelo, J. and Oschenrieder, C. H. Growth and biomass of zinc- toxic bush beans. J. Plant Nutr.. 11(5): 577-588, 1988.
3. Bowler, C; Vancamp, W.; Vanmontagu. M. and fnze. D. Superoxide-dismutase in plants, Crit. Rev. in Plant Sci. ,13(3): 199-218, 1994.
4. Reboredo, F. A. Interaction between calcium and zinc and their uptake by Halimione portulacoides. Bull. Envir. Contamin. and Toxico. 52 (4): 598-605, 1994.
5. Hu, H. and Sparks. D. Zinc-deficiency inhibits chlorophyll synthesis and gas-exchange in stuart pecan. Hortscience, 26(3): 267-268, 1991.
6. Çakmak, L; Torun, B.; Erenoğiu, B.; Kalaycı, M.: Yılmaz, A.; Ekiz, H. and Braun, H.J. Zinc deficiency in soils and plant mechanisms involved in zinc efficiency. Tr. Journal of Agriculture and Forestry. 20 (special issue): 13-23, 1996.
7. Luo, Y. and Rimmer. D.L. Zinc-copper interaction affecting plant growth on a metal-contaminated soil. Environ. Poliut., 88: 79-83, 1995.
8. Webb, M. J. and Loncragan, J.F. Zinc translocation to wheat roots and its implications for a phosphorus zinc interaction in wheat plant. J. Plant Nutr.. 13(12): Î499-1512, 1990.
9. Mehra, R. K. Effect of different levels of phosphorus and zinc on nitrogen content of wheat, Indian Agriculturist, 36(3): 191-195, 1992.
10..Çakmak, 1; Yılmaz, A.; Kalaycı, M.; Ekiz, H.; Torun, B.; Erenoğiu, B. and Braun, H.J. Zinc deficiency as a critical problem in wheat production in Central Anatolia. Plant Soil, 180: 165-172, 1996.
11. Strain, H.H. and Svec,: W.A, .Extraction, separation, estimation and isolation of chlorophylls. In: The C/orophylls, L.P. Vernon and G.R. Seely (eds). Academic Press: 21-66, 1.966,
12. Çakmak, İ. and Marschner, H. Mechanisms of phosphorus-induced zinc deficiency in cotton. 1 . zinc deficiency- enhanced uptake rate of phosphorus. Physiologia Plant., 68 (3): 483-490, 1986.
33. Parker, D. R.; Aguilera, J.J. and - Th o mason, D.N. Zinc-phosphorus interaction in two cultivars of tomato
., (Lycopersicon esculenturn L.) grown İn chelator-buffercd nutrient solutions. Plant Soil, 343: 363-177, 1992.
14. Chapman, H.D. and Pratt, P.F. Methods of plant analysis. In: Methods of Analysis for Soils, Plants and Water, Chapman pub., California. 60-193, 1982.
15. Winsor, G.W. and Adams, P. Diagnosis of mineral disorders in plants. In: Glasshouse Crops (Ed. J.B.D. Robinson) pp 168. London. HMSO,. 1987.
16. Roorda van Eysİnga, J.P.N.L. and Smilde. K.W, Nutritional disorders in glasshouse, tomatoes, Wageningen: Pudoc Centre for Agriculture Publishing. 1981.
17. Çakmak, İ. and Marschner, H. Decrease in nitrate uptake and increase in protein release in zinc-deficient cotton, sunflower and backwheat plants, Plant Soil, 129(2): 261-268, 1990.
18. Marschner, H.; Oberle, H,; Çakmak, 1. and Romheld, V., Growth enhancement by silicon in cucumber plants depends on imbalance in phosphorus and zinc supply. In Plant Nutrition- Physiology and Applications (Ed. L.van Beusichem ) pp. 241-249. Kluwer Academic publisher. 1990. ,
19. Zhang, G.C. and Wu., L. Relationship between light intensity and requirement for zinc in tomato plants. J. Plant Nutr., 12(5): 633-646, 1989.
20. Kaya, C, Higgs, D. and Burton, A. Foliar application of iron as a remedy for zinc toxic tomato plants. .1. Plant Nutr,, 22(12): 1829- 1837, 1999,
21. Kaya, C, Higgs, D. and Burton, A. Plant growth, phosphorus nutrition and acid phosphatase enzyme activity in three tomato cultivars grown hydroponically at different zinc concentrations. J. Plant Nutr., 23(5): 569-579,2000.
22. Adams, P, Mineral nutrition, In: The Tomato Crop (Eds., Atherton, J.G., Radich, j.),pp. 281-334. London, Chapman and Hall, 1986.
23. Loneragan, J.F.; Grunes, D.L.; Welch, R.M.; Aduayi. E.A.; Tengah, A.; Lazar, V.A. and Gary, E.E. Phosphorus accumulation and toxicity in leaves in relation to zinc supply, J. Amer. Soc, for Soil Sci.. 46: 345-352, 1982.
24. Norvel, W.A. and Welch, R.M. Growth and nutrient uptake by barley studies using a N-(2-Hydroxyethyl) buffered nutrient soiution technique. I. zinc requirement. Plant Physiology, 101 (2): 619-625, 1993.
25. Graham, R.D.; Welch, R.M.; Grunes, D.L.; Gary. E.E. and Norve!!, W.A. Effect of zinc deficiency on accumulation of boron and other mineral nutrients in barley. Soil Sci. Soc. Am. J.. 5i(3): 652-657. 1987.
26. Parker, D.R. Responses öf six crop species to solution zinc activities buffered with HEDTA. Soil Sci. Soc, Am. J., 61: 167- 176, 1997.
27. Marschner, H. Function of mineral nutrients: niicronutrients.. in: Mineral Nutrition of Higher Plants,
. 2Rd edition, Academic Press, London, 313-369, 1995.
28. Ambler, J.E., Brown, J.C. and Gauch, H.G. Effect of. zinc on translocation of Iron in soybean plants. Plant Physiol., 46:320-323, 1970.

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