Suitable gibberellic acid treatment for double-purpose rice (Oryza sativa L.) varieties at different harvest times

文献类型: 外文期刊

第一作者: Dong, Chenfei

作者: Dong, Chenfei;Xu, Nengxiang;Ding, Chenglong;Gu, Hongru;Zhang, Wenjie;Li, Xianglin;Dong, Chenfei;Xu, Nengxiang;Ding, Chenglong;Gu, Hongru;Zhang, Wenjie;Li, Xianglin

作者机构:

关键词: Double-purpose rice;Gibberellic acid;Feed quality;Grain production;Harvest time

期刊名称:FIELD CROPS RESEARCH ( 影响因子:5.224; 五年影响因子:6.19 )

ISSN:

年卷期:

页码:

收录情况: SCI

摘要: The purpose of this study was to investigate suitable gibberellic acid (GA) treatments for different rice (Oryza sativa L) varieties when harvested at different times, and to supply instructions for improving double-purpose rice production. Four rice varieties (Wuyujing 3, Nanjing 44, Nanjing 46 and Liangyoupeijiu) were used in the experiment, with one GA spraying time in 2013 (the 15th day after anthesis) and three GA spraying times in 2014 (the 7th, 15th and 21st day after anthesis) being set, and the rice was harvested on two occasions in 2013 and 2014 (harvest time 1 when the grains of the control group plants had reached 80% maturity, and harvest time 2 occurring 6 days after harvest time 1). GA concentration was 45 ghm(-2) in both years. The results indicated that at normal harvest time (harvest time 1), the optimum GA treatment for Liangyoupeijiu was an application on the 7th day after anthesis, but for Nanjing 44 and Nanjing 46, the optimum GA treatment was an application on the 21st day after anthesis. However, when harvest time was delayed (harvest time 2), GA applied on the 21st day after anthesis for Liangyoupeijiu, Wuyujing 3 and Nanjing 44 was the optimum GA treatment for both grain production and straw feed quality; while for Nanjing 46, GA applied on the 21st day after anthesis was the best GA treatment for grain yield, and GA applied on the 15th day after anthesis was the best treatment for straw feed quality. In conclusion, the optimum GA treatment for double-purpose rice changed when harvesting took place at different times, and it also changed for different rice varieties. Moreover, the GA effects on grain production and straw feed quality were sometimes different. (C) 2016 Elsevier B.V. All rights reserved.

分类号: S

  • 相关文献

[1]Suitable Temperature and O-2/CO2 Composition for Fresh Fruit Storage of Ziziphus jujuba 'Dongzao'. Sun, H. Y.,Wang, Y. Z.,Yang, L.,Li, S. Y.. 2009

[2]Distinguish and Quality Estimation of the Leaves of Alstonia scholaris (L.) R. Br. from Different Harvest Time Based on the UV-Vis . FP and HPLC . FP. Yang Ni-na,Zhao Ying-hong,Yang Ni-na,Zhang Ji,Zhao Yan-li,Wang Yuan-zhong. 2016

[3]Effect of Harvest-Time and Postharvest Treatment on the Quality of Open-Grown Flowering Peach Branches. Li, Shuying,He, Wenhua,Zhou, Liandi,Dong, Li. 2009

[4]A geographically weighted model of the regression between grain production and typical factors for the Yellow River Delta. Tong, Xueqin.

[5]Assessing the fluctuation characteristics of grain output in China. Liu, Yu,Gao, Bingbo,Pan, Yuchun,Liu, Yu,Gao, Bingbo,Pan, Yuchun.

[6]Extreme meteorological disaster effects on grain production in Jilin Province, China. Xu Lei,Zhang Qiao,Zhang Jing,Zhao Liang,Sun Wei,Jin Yun-xiang. 2017

[7]Cropping system innovation for coping with climatic warming in China. Deng, Aixing,Zhang, Weijian,Chen, Changqing,Feng, Jinfei,Chen, Jin. 2017

[8]Modelling impact of agro-drought on grain production in China. Qin, Zhihao,Tang, Huajun,Li, Wenjuan,Qin, Zhihao,Zhao, Shuhe,Zhang, Hao,Wang, Qiang. 2014

[9]Large-scale farming operations are win-win for grain production, soil carbon storage and mitigation of greenhouse gases. Zhu, Yongchang,Waqas, Muhammad Ahmed,Li, Yu'e,Wilkes, Andreas,Qin, Xiaobo,Gao, Qingzhu,Wan, Yunfan,Hasbagan, Ganjurjav,Zou, Xiaoxia,Jiang, Defeng. 2018

[10]Spatial-Temporal Changes in Grain Production, Consumption and Driving Mechanism in China. Xu Shi-wei,Wu Jian-zhai,Li Zhi-qiang,Li Zhe-min,Kong Fan-tao,Song Wei. 2013

[11]Integrative impacts of soil tillage on crop yield, N use efficiency and greenhouse gas emission in wheat-corn cropping system. Latifmanesh, H.,Zheng, C. Y.,Song, Z. W.,Deng, A. X.,Zhang, B. M.,Zhang, W. J.,Huang, J. L.,Li, L.,Chen, Z. J.,Zheng, Y. T.. 2016

[12]Ecosystem Services and Ecological Restoration in the Northern Shaanxi Loess Plateau, China, in Relation to Climate Fluctuation and Investments in Natural Capital. Wei, Hejie,Fan, Weiguo,Wang, Xuechao,Lu, Nachuan,Dong, Xiaobin,Wei, Hejie,Fan, Weiguo,Wang, Xuechao,Lu, Nachuan,Dong, Xiaobin,Ding, Zhenyu,Weng, Boqi,Xing, Kaixiong,Ulgiati, Sergio,Dong, Xiaobin. 2017

[13]Risk Assessment of Typhoon Catastrophe for Grain Production in the South-eastern Coastal Areas of China. Xu, Lei. 2014

[14]Spatial explorations of land use change and grain production in China. Verburg, PH,Chen, YQ,Veldkamp, TA.

[15]Degradation pattern of gibberellic acid during the whole process of tea production. Chen, Hongping,Liu, Xin,Yang, Dan,Yin, Peng,Chen, Hongping,Liu, Xin.

[16]Gibberellin-responding and non-responding dwarf mutants in foxtail millet. Chen, JG,Zhou, X,Zhang, YZ.

[17]Rapid and Effective Methods for Breaking Seed Dormancy in Buffalobur (Solanum rostratum). Wei, Shouhui,Zhang, Chaoxian,Li, Xiangju,Sui, Biaofeng,Huang, Hongjuan,Cui, Hailan,Liu, Yan,Zhang, Meng,Guo, Feng,Chen, Xuezheng.

[18]Transgenic Arabidopsis plants over-expressing cotton DELLA or DELLA domain deletion: insights into DELLA gene function. Liao, W. B.,Peng, M.,Xu, N. F..

[19]Effects of gibberellic acid application after anthesis on the feeding value of double-purpose rice (Oryza sativa L.) straw at harvest. Liu, NanQing,Qu, Hui,Shen, Yi Xin,Dong, Chen Fei,Gu, Hong Ru,Ding, Cheng Long,Xu, Neng Xiang.

[20]Regulation of endogenous hormones on post-harvest senescence in transgenic broccoli carrying an antisense or a sense BO-ACO 2 gene. Qin, Feifei,Wang, Cheng-rong,Wang, Ran,Ma, Gang,Qin, Feifei,Qin, Feifei,Xu, Hui-lian. 2009

作者其他论文 更多>>