Growth and yield characteristics of upland rice cultivar NERICA-4 grown under paddy field condition

Paper Details

Research Paper 01/05/2017
Views (231) Download (9)
current_issue_feature_image
publication_file

Growth and yield characteristics of upland rice cultivar NERICA-4 grown under paddy field condition

Zubair Noori, Kifayatullah Kakar, Toshio Fujii, Biaojun Ji
Int. J. Agron. Agri. Res.10( 5), 59-68, May 2017.
Certificate: IJAAR 2017 [Generate Certificate]

Abstract

The productivity of crops depends on cultivation methods, soil fertility, biotic and abiotic factors affecting the crop yield. It is necessary to understand the growth, yield and quality characteristic of a crop in various cultivation methods for achieving better yield and quality. The objectives of this study were to evaluate growth, yield and grain quality performance of upland rice cultivar (NERICA-4) under paddy field conditions and to compare it with other lowland cultivars. Three lowland cultivars (IR-28, Koshihikari and Nipponbare) and one upland cultivar (NERICA-4) were used. Fertilizers as a basal (N, P2O5, K2O: 60, 100, 60 kg ha-1) and top dressing (20, 0, 30) were applied. Three seedlings were manually transplanted on 16 May 2012, in a randomized complete block design. Compared to other cultivars, NERICA-4 was found to become mature earlier and produced lower stem number per square meter, dry weight, leaf area index, chalky grain, and rough rice yield. However, it produced the highest number of spikelets per panicle and nitrogen contents, followed by IR-28. The yield of NERICA-4 was (5.7 ton/ha), slightly lower than other cultivars. The highest percentage of cracked grain was observed in IR-28 followed by NERICA-4. It was caused by the rainy condition and fluctuating temperature at maturity, leading to the expansion of cracks in individual grain. These results suggest that, upland condition is more suitable for NERICA-4 culturing and harvesting than the paddy field because, for the identical amount of yield, the upland condition needs less amount of water than the paddy field condition.

VIEWS 7

Bremner JM, Nitrogen-Total. 1996. Methods of soil analysis. (Part, 3), 1085-1123.

Datta D. 1981. Principles and practices of rice production. International Rice Research Institute 1-618.

Evans HJ, Sorger GJ. 1966. Role of mineral elements with emphasis on the univalent cations. Annual Review Plant Physiology 17, 47-76.

Fukushima A, Shiratsuchi H, Yamaguchi H, Fukuda A. 2011. Varietal differences in morphological traits, dry matter production and yield of high-yielding rice in the Tohoku region of Japan. Plant Production Science 14, 47-55.

Futakuchi K. 2008. Achievement and outlook in rice research in Africa with special reference to WARDA’s activities. Forefront of rice cultivation in Africa. Japan International Research Center for Agricultural Sciences. Tsukuba 121-35.

Guindo D, Wells BR, Norman RJ. 1994. Cultivar and nitrogen rate influence on nitrogen uptake and partitioning in rice. Soil Science Society of America Journal 58, 840-845.

Hishikawa K. 1989. The Growing Rice Plant. First Edition. Nobunkyo. Tokyo 1-310.

Ishizuka Y, Tanaka A.1952. Biochemical studies on the life history of rice plants. I. Absorption and translocation of inorganic elements. Journal of Science Soil and Manure, Japan 23, 23-8.

Jones MP, Dingkuhn M, Aluko GK, Semon M. 1997. Interspecific Oryza sativa L. x O. glaberrima Steud. progenies in upland rice improvement. Euphytica 94, 237-46.

Ju J, Yamamoto Y, Wang Y, Shan Y, Dong G, Yoshida T, Miyazak A. 2006. Genotypic differences in grain yield, and nitrogen absorption and utilization in recombinant inbred lines of rice under hydroponic culture. Soil Science and Plant Nutrition 52, 321-330.

Ke Zhang X, Zhang JH-C. 2014. Study on the nitrogen management strategies of late Japonica rice in double-cropping rice area. Journal of Plant Nutrition 20, 1063-1075.

Kuo S. Phosphorus. 1996. Methods of soil analysis: chemical methods. Part 3, 869-919.

Liu LJ, Xu W, Wu CF, Yang JC. 2007. Characteristics of growth, development and nutrient uptake in rice under site-specific nitrogen management. China. Journal of Rice Science 21,16-173.

Maclean JL. 2002. Rice almanac: Source book for the most important economic activity on earth. Int. Rice Research Institute.

Maruyama S, Kabaki N. Tajima K. 1988. Growth response to nitrogen in japonica and indica rice varieties. II. Differences in the rate of increase in culm length and leaf area due to nitrogen fertilization. Japan. Journal of Crop Science 57, 692-698.

Matsunami M, Kokubun M. 2011. Yield Response of Upland NERICAs under Rain-fed Upland Conditions with Different Levels of Nitrogen Application. Japan Agricultural Research Quarterly 45, 243-9.

Miah MNH, Yoshida T, Yamamoto Y, Nitta Y. 1996. Characteristics of dry matter production and partitioning of dry matter to panicles in high yielding semi dwarf indica and japonica indica hybrid rice varieties. Japanese Journal. Crop Science 65, 672-685.

Nitsos RE, Evans HJ. 1969. Effects of univalent cations on the activity of particulate starch synthetase. Plant Physiology 44,1260-1266.

Peng S, Cassman GS, Virmani SS, Sheehy J, Khush GS. 1999. Yield potential trends of tropical rice since the release of IR8 and challenges of increasing rice yield potential. Crop Science journal 39,1552-1559.

Peng SB, Huang JL, Zhong XH, Yang JC, Wang GH, Zou YB, Zhang FS, Zhu QS, Roland B, Christian W. 2002. Research strategy in improving fertilizer-nitrogen use efficiency of irrigated rice in China. Journal of Science and Agriculture 35, 1095-1103.

Pande HK, Van Tran D, Ton-that T. 1994. Improved upland rice farming systems. Food & Agriculture Organization.

Somado EA, Guei RG, Keya SO. 2008. NERICA: The new rice for Africa–a compendium. Africa Rice Center (WARDA) 10-14.

Sulaeman DD, Purwoko BS, Dewi IS, Syukur M, Wirnas D, Safitri H. 2013. Yield stability evaluation of upland rice lines obtained from anther culture. In improving food, energy and environment with better crops. 7th Asian Crop Science Association Conference, IPB International Convention Center, Bogor, Indonesia 80-84.

Sun P, Zhang W, Wang Y, He Q, Shu F, Liu H, Deng H. 2016. OsGRF4 controls grain shape, panicle length and seed shattering in rice. Journal of integrative plant biology 58, 836-847.

Tashiro T, Wardlaw IF. 1991. The effect of high temperature on the accumulation of dry matter, carbon and nitrogen in the kernel of rice. Australian journal of Plant Physiology 18, 259-265.

Tobita S. 2004. Rice breeding in West Africa: With special interest in the interspecific hybridization and NERICAs. In Gamma Field Symposia (Japan).

Wright RJ, Stuczynski T. 1996. Atomic absorption and flame emission spectrometry. Methods of Soil Analysis Part 3-Chemical Methods 65-90.

Yang SN, Yu OG, Ye J, Jiang N, Ma WJ, Wang Q, Wang JM, Sun WC, Fu JR. 2010. Effects of nitrogen fertilization on yield and nitrogen use efficiency of hybrid rice. Plant Nutrition and Fertilization Science 16, 1120-1125.

Yang W, Peng S, Laza RC, Visperas RM, Dionisio-Sese ML. 2007. Grain yield and yield attributes of new plant type and hybrid rice. Journal of Crop Science 47, 1393-1400.

Yao Y, Yamamoto Y, Wang Y, Yoshida T, Miyazaki A, Nitta Y, Cai J. 2000. Role of Nitrogen in Sink and Source Formation of High-Yielding Rice Cultivars. Soil Science and Plant Nutrition 46, 825-834.

Yoshida H, Horie T, Shiraiwa T. 2006. A modal explaining genotypic and environmental variation of rice spikelet number per unit area measured by cross locational experiments in Asia. Field Crops Research 97, 337-343.

Yoshida S, Cook JH, Parao FT. 1972. Physiological aspects of high yields. Annual Review of Plant Physiology 23, 437-464.

Yoshida S. 1981. Physiological analysis of rice yield. In: Yoshida Fundamentals of rice crop science. International Rice Research Institute, Los Banos, Philippines 231-251.

Yoshinaga S, Takai T, Arai-Sanoh Y, Ishimaru T, Kondo M. 2013. Varietal differences in sink production and grain-filling ability in recently developed high-yielding rice (Oryza sativa L.) varieties in Japan. Field Crops Research 150,74-82.