Water saving in rice-wheat systems

文献类型: 外文期刊

第一作者: Meisner, C

作者: Meisner, C;Gupta, R;Timsina, J;Beecher, HG;Lu, TY;Yadvinder-Singh;Gill, MA;Masih, I;Guo, ZJ;Thompson, JA

作者机构:

关键词: evaporation;deep drainage;irrigation;percolation;water use efficiency

期刊名称:PLANT PRODUCTION SCIENCE ( 影响因子:2.222; 五年影响因子:2.175 )

ISSN: 1343-943X

年卷期: 2005 年 8 卷 3 期

页码:

收录情况: SCI

摘要: Water shortage is a major constraint to sustaining and increasing the productivity of rice-wheat systems. Saving water can be elusive in that reducing seepage, percolation and runoff losses from fields does not necessarily save water if it can be recaptured at some other temporal or spatial scale, for example by groundwater pumping. Many technologies appear to save substantial amounts of water through reducing irrigation water requirement, but whether these are true water savings is uncertain as components of the water balance have not been quantified. Such technologies include laser levelling, direct drilling, raised beds, non-ponded rice culture and irrigation scheduling. It is questionable whether puddling saves water. Reducing non-beneficial evaporation losses is a true water saving, and optimal planting time of rice to avoid the period of highest evaporative demand and changing to non-ponded rice culture can save significant amounts of water. However, moving away from puddled, ponded to more aerobic rice culture sometimes brings new production problems. Furthermore, farmers faced with unreliable water supplies need to store water on their fields as insurance, and puddling assists retention of water during the rice crop. Rehabilitation and improvement of canal and power systems in Asia, funded by charging according to use, are required to facilitate adoption of many water saving technologies. Australian farmers pay fixed plus volumetric charges for water to cover the cost of infrastructure and operation of irrigation systems, which are continuously being improved to provide water on demand and minimise losses. They are able to plan their plantings based on knowledge of the likely amount of irrigation water available each season and crop water use requirement, and thus avoid wasting water and financial loss by overplanting and crop failure. Such approaches have the potential to increase production and water productivity in Asia, however the challenge would be to apply them in an equitable way that benefits many millions of subsistence farmers.

分类号:

  • 相关文献

[1]Assessing the effects of water table depth on water use, soil salinity and wheat yield: Searching for a target depth for irrigated areas in the upper Yellow River basin. Xu, Xu,Huang, Guanhua,Huang, Quanzhong,Hao, Yuanyuan,Xu, Xu,Huang, Guanhua,Huang, Quanzhong,Hao, Yuanyuan,Sun, Chen,Pereira, Luis S.,Ramos, Tiago B.. 2013

[2]Production of concentrated kiwifruit juice by integrated membrane process. Cassano, A,Jiao, B,Drioli, E.

[3]Effects of irrigation on the performance of cotton bollworm, Helicoverpa armigera (Hubner) during different pupal stages. Yu, Fu Lan,Zhai, Bao Ping,Chen, Fa Jun,Yu, Fu Lan,Wu, Gang. 2008

[4]EFFECTS OF DOUBLE-RECTANGULAR-SLOT DESIGN ON IMPACT SPRINKLER NOZZLE PERFORMANCE. LI, J,LI, Y,KAWANO, H,YODER, RE. 1995

[5]Influences of Rainfall Intensity and Leaf Area on Corn Stemflow: Development of a Model. Ma, Bo,Li, Chao Dong,Li, Zhan Bin,Li, Chao Dong,Wu, Fa Qi,Ma, Fan. 2016

[6]Spring wheat performance and water use efficiency on permanent raised beds in arid northwest China. He, Jin,Li, Hongwen,Wang, Qingjie,Zhang, Xuemin,Zhang, Xirui,Mchugh, A. D.,Ma, Zhongmin,Cao, Xinhui. 2008

[7]An improved water use efficiency of cereals under temporal and spatial deficit irrigation in north China. Du, Taisheng,Kang, Shaozhong,Sun, Jingsheng,Zhang, Xiying,Zhang, Jianhua.

[8]Effects of different amendments for the reclamation of coastal saline soil on soil nutrient dynamics and electrical conductivity responses. Zhang, Tao,Wang, Ting,Liu, K. S.,Wang, Lixue,Wang, Kun,Zhou, Yan.

[9]Effect of optimal irrigation, Different fertilization, And reduced tillage on soil organic carbon storage and crop yields in the North China Plain. Zhao, Xiaoning,Stahr, Karl,Hu, Kelin,Ma, Yongliang,Li, Kejiang,Wang, Pu.

[10]Irrigation and weed control alter soil microbiology and nutrient availability in North Carolina Sandhill peach orchards. Zhang, Yi,Hu, Shuijin,Wang, Liangju,Zhang, Yi,Wang, Liangju,Tu, Cong,Ritchie, David,Hu, Shuijin,Fisk, Connie,Yuan, Yongge,Xu, Jing,Chen, Xin,Zhang, Weijian. 2018

[11]Experiment on Capability of Agriculture Irrigation Water Computation Water meter. Fan, Yongshen,Wang, Quanjiu,Fan, Yongshen,Duan, Fuyi,Guo, Zhixin,Han, Qibiao,Duan, Fuyi,Guo, Zhixin,Han, Qibiao. 2013

[12]Band tillage with fertilizer application for unpuddled transplanting rice in northeast of China. Sarker, Khokan Kumer,Xu Chunlin,Sarker, Khokan Kumer,Wang Xiaoyan,Sarker, Khokan Kumer,Li Minjin,Li Lianhao,Liu Guiming. 2016

[13]Co-benefits and trade-offs in the water-energy nexus of irrigation modernization in China. Cremades, Roger,Cremades, Roger,Cremades, Roger,Rothausen, Sabrina G. S. A.,Conway, Declan,Zou, Xiaoxia,Wang, Jinxia,Li, Yu'e. 2016

[14]Greenhouse tomato-cucumber yield and soil N leaching as affected by reducing N rate and adding manure: a case study in the Yellow River Irrigation Region China. Luo, Jiang-Hang,Chen, Xiao-Qun,Zhang, Xue-Jun,Zhao, Ying,Zhang, Wei-Li.

[15]Reducing greenhouse gas emissions from a wheat-maize rotation system while still maintaining productivity. Li, Jianzheng,Wang, Yingchun,Wang, Daolong,Wang, Ligang,Gao, Chunyu,Li, Jianzheng,Wang, Enli,Xing, Hongtao.

[16]Modeling crop yield as affected by uniformity of sprinkler irrigation system. Li, JS. 1998

[17]Temperature and Precipitation Suitability Evaluation for the Winter Wheat and Summer Maize Cropping System in the Huang-Huai-Hai Plain of China. Qiu Jian-jun,Li Hu,Nguyen Thanh Tuan,Verdoodt, Ann,Van Ranst, Eric. 2011

[18]Fate of labeled urea-N-15 as basal and topdressing applications in an irrigated wheat-maize rotation system in North China Plain: I winter wheat. Jia, Shulong,Wang, Xiaobin,Dai, Kuai,Zhao, Quansheng,Zhang, Xiaoming,Zhang, Dingchen,Feng, Zonghui,Wu, Xueping,Cai, Dianxiong,Jia, Shulong,Wang, Xiaobin,Dai, Kuai,Zhao, Quansheng,Zhang, Xiaoming,Zhang, Dingchen,Feng, Zonghui,Wu, Xueping,Cai, Dianxiong,Jia, Shulong,Yang, Yunma,Meng, Chunxiang,Sun, Yanming,Grant, Cynthia.

[19]Nitrous oxide and nitric oxide emissions from an irrigated cotton field in Northern China. Liu, Chunyan,Zheng, Xunhua,Zhou, Zaixing,Han, Shenghui,Wang, Yinghong,Wang, Kai,Liang, Wangguo,Li, Ming,Chen, Deli,Yang, Zhiping.

[20]China's water-energy nexus: greenhouse-gas emissions from groundwater use for agriculture. Wang, Jinxia,Zhang, Lijuan,Li, Yumin,Rothausen, Sabrina G. S. A.,Conway, Declan,Rothausen, Sabrina G. S. A.,Conway, Declan,Xiong, Wei,Holman, Ian P.. 2012

作者其他论文 更多>>