Ammonia and Greenhouse Gases Concentrations and Emissions of a Naturally Ventilated Laying Hen House in Northeast China

文献类型： 外文期刊

第一作者： Dong, H.

作者： Dong, H.;Xin, H.;Xin, H.

作者机构：

关键词： Ammonia;Greenhouse gases (GHG);Laying hens;Emission rate

期刊名称：TRANSACTIONS OF THE ASABE （ 影响因子：1.188； 五年影响因子：1.695 ）

ISSN：

年卷期：

页码：

收录情况： SCI

摘要： This study quantifies concentrations and emission rates (ER) of ammonia (NH_3) and greenhouse gases (GHG) including carbon dioxide (CO_2), methane (CH_4), and nitrous oxide (N_2O) from a naturally ventilated cage layer (Hy-Line brown strain) house with daily manure removal, located in northeast China during four seasons of one year, with each monitoring episode lasting five consecutive days. Gaseous concentrations of background and exhaust air were measured using an infrared photoacoustic multi-gas monitor with a multi-channel sampler. Building ventilation rate (VR) was determined by CO_2 mass balance using literature metabolic rate data for modern laying hens. Both gas concentrations and ER showed considerable diurnal and seasonal variations. Annual mean (±SD) ER of NH3, CO_2, CH4, and N_2O for the monitored layer house were, in mg d~(-1) bird~(-1),129 ±40.3, 78,250 ±15,384, 112 ±56.5, and 9.4 ±2.5, respectively, or in g d~(-1) AU~(-1)1 (AU = 500 kg live body weight), 33.4 ±11.4, 19,975 ±3,071, 29.2 ±15.2, and 2.5 ±0.7, respectively. Ammonia ER from the current study was within the ranges of values reported for high-rise houses with annual manure removal and manure-belt houses with daily manure removal. Results of the study contribute toimproving ammonia and GHG emissions inventory for animal feeding operations in China and worldwide.

分类号： S

  • 相关文献

[1]AMMONIA AND GREENHOUSE GAS EMISSIONS FROM A DAIRY CATTLE BARN WITH A DAILY MANURE COLLECTION SYSTEM. Dong, H.. 2012

[2]Effects of massive ovulation on oxidation state and function of the ovaries in laying hens. Chang, Yu,Feng, Jinghai,Zhang, Minhong,Jiang, Liwen,Zhai, Lili,Yang, Xiaolan. 2017

[3]Estimation of L-arginine requirement for Xinyang Black laying hens from 33 to 45 weeks of age. Yuan, C.,Li, J. M.,Ding, Y.,He, Q.,Lu, J. J.,Zou, X. T.,Yan, H. X..

[4]Effects of long-term Bacillus subtilis CGMCC 1.921 supplementation on performance, egg quality, and fecal and cecal microbiota of laying hens. Guo, J. R.,Dong, X. F.,Liu, S.,Tong, J. M..

[5]Dietary betaine activates hepatic VTGII expression in laying hens associated with hypomethylation of GR gene promoter and enhanced GR expression. Omer, Nagmeldin A.,Hu, Yun,Idriss, Abdulrahman A.,Abobaker, Halima,Hou, Zhen,Dong, Haibo,Zhao, Ruqian,Omer, Nagmeldin A.,Hu, Yun,Idriss, Abdulrahman A.,Abobaker, Halima,Hou, Zhen,Dong, Haibo,Zhao, Ruqian,Zhao, Ruqian,Hu, Yan. 2018

[6]Safety evaluation of daidzein in laying hens: Part II. Effects on calcium-related metabolism. Gu, H.,Shi, S. R.,Chang, L. L.,Tong, H. B.,Zou, J. M.,Gu, H.,Wang, Z. Y.. 2013

[7]Influence of dietary taurine and housing density on oviduct function in laying hens. Dai, Bin,Zhang, Yuan-shu,Zheng, Liu-hai,Li, Shuang-jie,Miao, Jin-feng,Ma, Zi-li,Dou, Xin-hong,Gong, Jian-sen. 2015

[8]Effects of Arginine Supplementation on Organ Development, Egg Quality, Serum Biochemical parameters, and Immune Status of Laying Hens. Yang, H.,Ju, X.,Wang, Z.,Yang, Z.,Wang, W.,Lu, J.. 2016

[9]Transcriptome profile of liver at different physiological stages reveals potential mode for lipid metabolism in laying hens. Li, Hong,Wang, Taian,Xu, Chunlin,Wang, Dandan,Ren, Junxiao,Li, Yanmin,Tian, Yadong,Wang, Yanbin,Jiao, Yuping,Kang, Xiangtao,Liu, Xiaojun,Tian, Yadong,Wang, Yanbin,Kang, Xiangtao,Liu, Xiaojun,Kang, Xiangtao,Liu, Xiaojun,Jiao, Yuping. 2015

[10]Safety evaluation of daidzein in laying hens: Part I. Effects on laying performance, clinical blood parameters, and organs development. Shi, S. R.,Gu, H.,Chang, L. L.,Tong, H. B.,Zou, J. M.,Gu, H.,Wang, Z. Y.. 2013

[11]Dietary L-arginine levels affect the liver protein turnover and alter the expression of genes related to protein synthesis and proteolysis of laying hens. Yuan, C.,Bu, X. C.,Lu, J. J.,Zou, X. T.,Yan, H. X..

[12]Lead biosorption of probiotic bacteria: effects of the intestinal content from laying hens. Xing, Sicheng,Liao, Xindi,Wang, Jie,Liang, Juan Boo,Jahromi, Mohammad Faseleh,Shokryazdan, Parisa,Jahromi, Mohammad Faseleh,Shokryazdan, Parisa,Zhu, Cui,Laudadio, Vito,Tufarelli, Vincenzo.

[13]Effects of novel nitrification and urease inhibitors (DCD/TZ and 2-NPT) on N2O emissions from surface applied urea: An incubation study. Ni, Kang,Ni, Kang,Kage, Henning,Pacholski, Andreas,Pacholski, Andreas. 2018

[14]High concentrations of atmospheric ammonia induce alterations of gene expression in the breast muscle of broilers (Gallus gallus) based on RNA-Seq. Yi, Bao,Chen, Liang,Sa, Renna,Zhong, Ruqing,Xing, Huan,Zhang, Hongfu. 2016

[15]A pilot field-scale study on biotrickling filter treatment of NH3-containing odorous gases from organic waste composting plants. Xue, Nian-tao,Wang, Qun-hui,Wu, Chuan-fu,Sun, Xiao-hong,Xie, Wei-min. 2010

[16]A novel role of ammonia in appressorium formation of Alternaria alternata (Fries) Keissler, a tobacco pathogenic fungus. Duan, W. J.,Zhang, X. Q.,Yang, T. Z.,Dou, X. W.,Yin, Q. Y.,Duan, W. J.,Chen, T. G.,Li, S. J.,Jiang, S. J.,Huang, Y. J.. 2010

[17]Effect of Thiobacillus thioparus 1904 and sulphur addition on odour emission during aerobic composting. Lu, Yusheng,Li, Xia,Xu, Peizhi,Xie, Kaizhi,Sun, Lili,Wu, Hangtao,Sun, Wen. 2018

[18]Nonlinear response of soil ammonia emissions to fertilizer nitrogen. Jiang, Yu,Deng, Aixing,Zhang, Weijian,Jiang, Yu,Bloszies, Sean,Huang, Shan,Huang, Shan.

[19]Effects of ammonia exposure on stress and immune response in juvenile turbot (Scophthalmus maximus). Jia, Rui,Lei, Ji-Lin,Liu, Bao-Liang,Huang, Bin,Han, Cen.

[20]Molecular cloning, immunohistochemical localization, characterization and expression analysis of caspase-8 from the blunt snout bream (Megalobrama amblycephala) exposed to ammonia. Sun, Shengming,Ge, Xianping,Zhu, Jian,Zhang, Wuxiao,Zhang, Qiong.

作者其他论文 更多>>

微信小程序