Response of rice genotypes under different zinc fertilization strategy
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Authors
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VP Ramani
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Dileep Kumar
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AK Shukla
-
RA Patel
Abstract
Soil zinc (Zn) deficiency limits crop growth and yield besides its low concentration in grain and straw. Growing of Zn efficient cultivars with high crop yield at low Zn supply would represent a sustainable approach to crop
production. Therefore, to evaluate Zn efficiency of rice genotypes, twenty eight different rice genotypes were evaluated under various treatments like three levels of Zn viz. low (without Zn), medium (10 kg Zn ha-1 soil) and
high (20 kg Zn ha-1 soil + three foliar sprays of 0.5% Zn). Zinc efficiency index of all genotypes ranged from 65.5Â to 102.6 % and Zn uptake efficiency ranged from 53.8 to 107 % with a mean value of 87.1 and 76.5 %. Cultivar
GR-101 was having the highest Zn efficiency index as well as Zn efficiency compared to other genotype. Based on grain yield and Zn efficiency, the genotypes Ashoka-20, Narmad, GR-12, GR-3, GR-1 and GR-2 were classified
as efficient and responsive, genotypes GR- 11, SLR -51214. GAUR-10 and GR-13 as efficient and non responsive, whereas, genotypes GR-101, GR-104, GR-102 and Lalkad as inefficient and responsive. The Gurjari, AAUDR-1, K-Kamod, GR-9, GR-5, P-2003 SK-20 and GR-7 genotype were classified as inefficient and non responsive. The efficient and responsive genotypes are most desirable as they would produce higher yield under low Zn concentration in soil and responded well under external application of Zn sources.
References
Anandan A, Rajiv G, Eswaran R and Prakash M (2011).
Genotypic variation and relationships between
quality traits and trace elements in traditional and
improved rice (Oryza sativa L.) genotypes. J. Food
Science 76(4): H122-H130
Boonchua P, Cakmak I, Rekasem B and Prom-u-thai C (2013).
Effect of foliar application at different growth
stages on seed zinc concentration and its impact
on seedling vigor in rice. Soil Science & Plant
Nutrition 59: 180-188
Dotaniya ML and Meena VD (2013). Rhizosphere effect on
nutrient availability in soil and its uptake by plants
-A review. Proceedings of the National Academy of
Sciences, India Section B: Biological Sciences.
(1): 1-12 doi 10.1007/s40011-013-0297-0
Graham RD, Welch RM and Bouis HE (2000). Addressing
micronutrient nutrition through enhancing the
nutritional quality of staple foods. Advances in
Agronomy 70: 77-161
Graham RD (1984). Breeding for nutritional characteristics in
cereals. Advances in plant nutrition. In: Tinker PB,
Lauchli A (eds) Praeger Publishers, New York pp.
-102
Hafeez B, Khanif YM, Samsuri AW, Radziah O, Zakaria W
and Saleem M (2013). Direct and residual effect of
zinc on zinc efficient and inefficient rice genotypes
grown under less zinc content submerged acidic
condition. Comm. Soil Sci. Plant Analysis pp. 1-59
Imran M, Kanwal S, Hussain S, Aziz T and Maqsood MA
(2015). Efficacy of zinc application methods for
concentration and estimated bioavailability of zinc
in grains of rice grown on a calcareous soil. Pakistan
Journal of Agricultural Sciences 52: 169-175
Jiang WZ (2006). Mn use efficiency in different wheat
cultivars. Environ. Exp. Bot. 57: 41-50
Joshi OP, Hillore SD and Ramesh A (2001). Integrated
micronutrient management in soybean. J. Oilseeds
Res. 17(2): 370-372
Khan P, Memon MY, Imtiaz M, Depar N, Aslam M, Memon
MS and Shah JA (2012). Determining the zinc
requirements of rice genotype Sarshar evolved at
Nia, Tandojam. Sarhad J. Agric. 28(1): 1-7
Kumar D, Singh AP and Kumar A (2017a). Nutrient uptake
and yield of rice (Oryza sativa L.) as influenced by
coal derived potassium humate and chemical
fertilizers. Oryza 54(2): 200-207
Kumar D, Singh AP and Meena VS (2017b). Improvement of
soil fertility and rice productivity with use of coal
derived humic acid and mineral fertilization under
inceptisol of Varanasi, India. International Journal
of Bio-resource and Stress Management 8(5): 692-
Nawaz M, Iqbal N, Saleem MU and Ashraf MM (2015). Effect
Fig. 4. Classification of early rice genotypes for Zn efficiency.
ER: Efficient and responsive; IER: Inefficient and responsive;
ENR: Efficient and nonresponsive; IENR: Inefficient and
nonresponsive.
Oryza Vol. 56 No. 3, 2019 (318-324)
ï² 324 ï²
of ZnSO4 mixed with different fertilizers on paddy yield of
fine grain rice. Appl. Sci. Bus. Econ. 2(1): 8-12
Nene YL (1966). Symptoms, cause and control of Khaira
disease of paddy. Bull. Indian Phytopathol Soc. 3:
-191
Neue HU and Lantin RS (1994). Micronutrient toxicities and
deficiencies in rice. In AR Yeo, TJ Flowers, eds, Soil
Mineral Stresses: Approaches to Crop
Improvement. Springer-Verlag, Berlin pp. 175-200
Mousavi SR, Galavi M and Rezaei M (2013). Zinc (Zn)
importance for crop production - A Review.
International Journal of Agronomy and Plant
Production 4(1): 64-68
Painkra B, Srivastava LK and Chandel G (2015). Effect of Zn
application on different rice genotypes in yield, Zn
content and Zn uptake. The Ecoscan 7: 251-258
PedaBabu P, Shanti M, Rajendra PB and Minhas PS (2007).
Effect of zinc on rice in rice - black gram cropping
system in saline soils. Andhra Agric. J. 54(1&2): 47-
Shukla AK and Behera SK (2011). Zinc management in Indian
Agriculture-Past, present and future. Indian Journal
of Fertilizers 7(10): 14-33
Shukla AK and Behera SK (2012). Micronutrient fertilizers
and higher productivity. Indian Journal of Fertilizers
(4): 100-117
Shukla AK, Behera SK, Shivay YS, Singh P and Singh AK
(2012). Indian J. Agron. 57: 124-131
Singh MV (2009). Micronutrient nutritional problems in soils
of India and improvement for human and animal
health. Indian J. Fert. 5: 11- 26
Suvarna PK, Reddy NS, SivaSankar A and Reddy SY (2015).
Effect of zinc nutrition on dry matter production,
yield and uptake of zinc by aromatic rice. The
Ecoscan 9(1&2): 583-586
Welch RM and Graham RD (1999). A new paradigm for world
agriculture: meeting human needs - Productive,
sustainable, nutritious. Field Crop. Res. pp. 60: 1-
Yoshida S and Tanaka A (1969). Zinc deficiency of the rice
plant in calcareous soils. Soil Sci. Plant Nutr. 15: 75-
Zhang X, Zhang F and Mao D (1998) Effect of iron plaque
outside roots on nutrient uptake by rice (Oryza
sativa L.). Zinc uptake by Fe-deficient rice. Plant
Soil 202: 33-39