The impact of treated straw on CH4 emission from yellow cattle in China

文献类型： 外文期刊

第一作者： Dong, HM

作者： Dong, HM;Lin, E;He, Q;Li, Y;Tao, XP

作者机构：

关键词： methane;enteric fermentation;cattle;treated straw

期刊名称：NON-C02 GREENHOUSE GASES: SCIENTIFIC UNDERSTANDING, CONTROL OPTIONS AND POLICY ASPECTS

ISSN：

年卷期： 2002 年

页码：

收录情况： SCI

摘要： China has been extending the ammoniated straw and silage technology all over the country to improve the cattle productivity since 1978. By 1998, treated straw as feed had grown to about 154.98 million tons. This paper analyzed the effect of treated straw on methane emissions from yellow cattle based on treated crop residues. Field experiments show that silage and ammonia treatment technology could increase the straw digestibility 10% to 20%. The estimation based on IPCC good practice showed that methane emission factors were lower 26% and 30% for the mature female and adult steers of yellow cattle eating ammoniated or silage treated versus non-treated residues due to the increased digestibility. It is estimated that extension of treated straw project may result in 1253.5 Gg/year or 21% of CH4 emission reduction from yellow cattle in 1998. Further field experiments on CH4 emission of yellow cattle are needed to approve this analysis results.

分类号：

  • 相关文献

[1]COMPARISON OF ENTERIC METHANE EMISSIONS IN CHINA FOR DIFFERENT IPCC ESTIMATION METHODS AND PRODUCTION SCHEMES. Dong, H,Tao, X,Xin, H,He, Q.

[2]Equations to predict methane emissions from cows fed at maintenance energy level in pasture-based systems. Stergiadis, Sokratis,Zou, Caixia,Chen, Xianjiang,Wills, David,Yan, Tianhai,Stergiadis, Sokratis,Zou, Caixia,Chen, Xianjiang,Allen, Michelle.

[3]The effect of cysteamine hydrochloride and nitrate supplementation on in-vitro and in-vivo methane production and productivity of cattle. Sun, Y. K.,Yan, X. G.,Ban, Z. B.,Yang, H. M.,Zhao, Y. M.,Sun, Y. K.,Hegarty, R. S.. 2017

[4]Effects of Forage Type and Dietary Concentrate to Forage Ratio on Methane Emissions and Rumen Fermentation Characteristics of Dairy Cows in China. Na, R.,Na, R.,Dong, H.,Zhu, Z.,Chen, Y.,Xin, H..

[5]Effects of Substituting Beer Lees and Cassava Residues Respectively for Buffalo Dietary Soybean Meal and Grassiness on Rumen Fermentation In Vitro. Xia, Zhongsheng,Huang, Yali,Zou, Caixia,Chen, Zhihui,Liang, Xianwei,Wei, Shengju,Liang, Xin,Li, Shulu,Huang, Yali. 2013

[6]Changes in methane emission, rumen fermentation, and methanogenic community in response to silage and dry cornstalk diets. Liu Chong,Zhu Zhuping,Dong Hongmin,Guo Tongjun,Luo Yongming.

[7]Differences in rice yield and CH4 and N2O emissions among mechanical planting methods with straw incorporation in Jianghuai area, China. Hang, Xiaoning,Jiang, Yu,He, Ruiyin,Zhang, Weijian,Song, Chunlian,Zhang, Xin,Deng, Aixing,Lu, Ming,Zhang, Weijian.

[8]Estimation of nitrous oxide and methane emission from livestock of urban agriculture in Beijing. Liang, Long,Wu, Wenliang,Meng, Fanqiao,Liang, Long,Lal, Rattan,Du, Zhangliu.

[9]A Novel Mesophilic Anaerobic Digestion System for Biogas Production and In Situ Methane Enrichment from Coconut Shell Pyroligneous. Cheng, Jing-Rong,Liu, Xue-Ming,Chen, Zhi-Yi,Zhang, You-Sheng,Zhang, Ye-Hui,Cheng, Jing-Rong.

[10]Differences in the Methanogen Population Exist in Sika Deer (Cervus nippon) Fed Different Diets in China. Li, Zhi Peng,Liu, Han Lu,Jin, Chun Ai,Cui, Xue Zhe,Jing, Yi,Yang, Fu He,Li, Guang Yu,Wright, Andre-Denis G..

[11]Greenhouse gas emissions from swine barns of various production stages in suburban Beijing, China. Dong, H.,Zhu, Z.,Shang, B.,Kang, G.,Zhu, H.,Xin, H..

[12]The effect of increased atmospheric carbon dioxide concentration on emissions of nitrous oxide, carbon dioxide and methane from a wheat field in a semi-arid environment in northern China. Lam, Shu Kee,Norton, Rob,Chen, Deli,Lin, Erda,Norton, Rob.

[13]Effects of mineral salt supplement on enteric methane emissions, ruminal fermentation and methanogen community of lactating cows. Li, Xiaohua,Shi, Rongguang,Li, Xiaohua,Liu, Chong,Chen, Yongxing,Dong, Hongmin,Cheng, Zhenhua.

[14]Supplementation of increasing amounts of linoleic acid to Leymus chinensis decreases methane production and improves fatty acid composition in vitro. Wu, Duanqin,Tang, Shaoxun,He, Zhixiong,Tan, Zhiliang,Han, Xuefeng,Zhou, Chuanshe,Kang, Jinhe,Wang, Min,Wu, Duanqin,Tang, Shaoxun,He, Zhixiong,Tan, Zhiliang,Han, Xuefeng,Zhou, Chuanshe,Kang, Jinhe,Wang, Min,Wu, Duanqin,Tang, Shaoxun,He, Zhixiong,Tan, Zhiliang,Han, Xuefeng,Zhou, Chuanshe,Kang, Jinhe,Wang, Min,Wu, Duanqin.

[15]Nitrous oxide and methane emissions from a Chinese wheat-rice cropping system under different tillage practices during the wheat-growing season. Zhang, Yuefang,Sheng, Jing,Wang, Zichen,Chen, Liugen,Zheng, Jianchu.

[16]Sugarcane bagasse biochars impact respiration and greenhouse gas emissions from a latosol. Deng, Wangang,Deng, Wangang,Wang, Hailong,Van Zwieten, Lukas,Lin, Zhaomu,Liu, Xingyuan,Wang, Hailong,Sarmah, Ajit K.,Wang, Hailong.

[17]CH4, NH3, N2O and NO emissions from stored biogas digester effluent of pig manure at different temperatures. Wang, Yue,Dong, Hongmin,Zhu, Zhiping,Li, Lulu,Zhou, Tanlong,Jiang, Bo,Wang, Yue,Dong, Hongmin,Zhu, Zhiping,Xin, Hongwei.

[18]Using Contaminated Plants Involved in Phytoremediation for Anaerobic Digestion. Cao, Zewei,Wang, Shengxiao,Shen, Zhenguo,Chen, Yahua,wang, Ting,Chang, Zhizhou,Shen, Zhenguo,Chen, Yahua,Shen, Zhenguo,Chen, Yahua.

[19]Greenhouse gas intensity and net annual global warming potential of cotton cropping systems in an extremely arid region. Lv, Jinling,Liu, Xuejun,Li, Kaihui,Tian, Changyan,Lv, Jinling,Lv, Jinling,Liu, Xuejun,Christie, Peter,Liu, Hua,Wang, Xihe,Christie, Peter.

[20]Sewage irrigation increased methane and nitrous oxide emissions from rice paddies in southeast China. Zou, Jianwen,Liu, Shuwei,Qin, Yanmei,Pan, Genxing,Zhu, Dawei.

作者其他论文 更多>>

微信小程序