Effects of dietary vitamin E on immunological stress of layers and their offspring

文献类型： 外文期刊

第一作者： Zhao, G. P.

作者： Zhao, G. P.;Han, M. J.;Zheng, M. Q.;Zhao, J. P.;Chen, J. L.;Wen, J.

作者机构：

关键词： lipopolysaccharide;antibody;interleukin-1: IL-1;dietary vitamin E: dietary supplement;infection bursal disease vaccine: IBD vaccine;immunologic-drug;immunostimulant-drug;vaccine;feed efficiency;feed intake;diet food: diet food;dietary response;immunological stress;vaccinating interval

期刊名称：JOURNAL OF ANIMAL PHYSIOLOGY AND ANIMAL NUTRITION （ 影响因子：2.13； 五年影响因子：2.322 ）

ISSN：

年卷期：

页码：

收录情况： SCI

摘要： P>In the present study, two experiments were conducted to evaluate the effect of vitamin E (VE) supplementation of a commercial layer diet on the laying performance and immunological stress responses of hens and their offspring. In experiment 1, responses to increased dietary VE levels were evaluated on 180 White Leghorn layers between 20 and 35 weeks of age. There were three levels of VE in the diets (0, 40 and 100 IU/kg) and five replicates per treatment, each containing 12 hens. Results showed that the high level of VE supplementation (100 IU/kg) had a beneficial effect on feed intake and feed efficiency of hens (p < 0.05), compared with the VE-deficient or low-level group. In experiment 2, 540 female progeny from the VE-treated hens in experiment 1 were used. The experimental design consisted of three levels of VE supplementation (the same as their mothers') x3 vaccinating routines, the first vaccination being administered on day 5, 8 or 11. All vaccines and the subsequent vaccinating intervals were identical. In the interim of the experiment, each bird was injected celiacly with Escherichia coli lipopolysaccharide (LPS). The results showed that antibody titres against Newcastle disease virus (NDV) or avian influenza virus (AIV) and the plasma concentration of interleukin (IL)-1 were increased by the high level of VE supplementation. There were significant effects of the day of initial immunization with infection bursal disease on the NDV and AIV antibody titre, H/L ratio and plasma concentration of corticosterone and IL-1 before and after injecting LPS, suggesting the occurrence of immunological stress. There was also significant interaction between VE and vaccination routine on the immune functions of experimental birds. Considered together with the results of experiment 1, VEs biological function appeared to be dose-dependent, especially with regard to its positive effect on the immune responses of young chickens.

分类号： S8

  • 相关文献

[1]A multivalent killed whole-cell vaccine induces effective protection against Edwardsiella tarda and Vibrio anguillarum. Sun, Yun,Sun, Li,Liu, Chun-sheng,Sun, Yun.

[2]Vaccination with Different M2e Epitope Densities Confers Partial Protection against H5N1 Influenza A Virus Challenge in Chickens. Liu, Ming.

[3]Immunomodulatory activity in vitro and in vivo of polysaccharide from Potentilla anserina. Chen, Jiong-Ran,Yang, Zhi-Qiang,Yan, Zuo-Ting,Wang, Ling,Cui, Dong-An,Hu, Ting-Jun,Niu, Ting-Xian,Wang, Meng.

[4]Effect of VP28 DNA vaccine on white spot syndrome virus in Litopenaeus vannamei. Li, Xiang,Liu, Qing-hui,Huang, Jie,Li, Xiang,Hou, Lin.

[5]Ovine rotavirus strain LLR-85-based bovine rotavirus candidate vaccines: Construction, characterization and immunogenicity evaluation. Chang, Ji-Tao,Li, Xin,Liu, Hai-Jun,Yu, Li.

[6]FMD subunit vaccine produced using a silkworm-baculovirus expression system: Protective efficacy against two type Asia1 isolates in cattle. Li, Zhiyong,Yin, Xiangping,Li, Xuerui,Li, Baoyu,Lan, Xi,Liu, Jixing,Yi, Yongzhu,Zhang, Zhifang.

[7]Phylogenetic analysis of infectious bronchitis coronaviruses newly isolated in China, and pathogenicity and evaluation of protection induced by Massachusetts serotype H120 vaccine against QX-like strains. Sun, Chuyang,Han, Zongxi,Ma, Huijie,Yan, Baolong,Shao, Yuhao,Xu, Jia,Kong, Xiangang,Liu, Shengwang,Zhang, Qinxia.

[8]Comparative genomic analysis of five pairs of virulent parental/attenuated vaccine strains of PRRSV. Zhou, Yan-Jun,Jiang, Yi-Feng,Tong, Guang-Zhi,An, Tong-Qing,Tian, Zhi-Jun,Xiao, Yan,Peng, Jin-Mei,Chen, Jin,Hao, Xiao-Fang,Tong, Guang-Zhi.

[9]Genomic Differences Between Actinobacillus pleuropneumoniae Serotypes 5b and 3 and their Distribution and Transcription Among 15 Serotypes. Lei, Liancheng,Lei, Liancheng,Yang, Feng,Xing, Yanping,Wang, Yu,Feng, Xin,Han, Wenyu,Lei, Liancheng,Xie, Fang,Jiang, Yuwen,Li, Suqing.

[10]Reassortant H1N1 influenza virus vaccines protect pigs against pandemic H1N1 influenza virus and H1N2 swine influenza virus challenge. Yang, Huanliang,Chen, Yan,Shi, Jianzhong,Guo, Jing,Xin, Xiaoguang,Zhang, Jian,Qiao, Chuanling,Chen, Hualan,Wang, Dayan,Shu, Yuelong.

[11]A generic real-time TaqMan assay for specific detection of lapinized Chinese vaccines against classical swine fever. Liu, Lihong,Xia, Hongyan,Belak, Sandor,Widen, Frederik,Liu, Lihong,Xia, Hongyan,Belak, Sandor,Widen, Frederik,Xia, Hongyan,Belak, Sandor,Everett, Helen,Sosan, Olubukola,Crooke, Helen,Meindl-Boehmer, Alexandra,Moennig, Volker,Meindl-Boehmer, Alexandra,Moennig, Volker,Qiu, Hua-Ji.

[12]Strategies for improving the efficacy of a H6 subtype avian influenza DNA vaccine in chickens. Jiang, Yongping,Bu, Zhigao,Zeng, Xianying,Tian, Guobin,Li, Yanbing,Ge, Jinying,Chen, Hualan,Shan, Songhua,Ellis, Trevor,Edwards, John,Fenwick, Stan.

[13]A broad protection provided by matrix protein 2 (M2) of avian influenza virus. Meng, Qingwen,Liu, Guangliang,Liu, Yonggang,Wang, Wei,Chen, Hongyan,Deng, Xiaoxia,Xu, Kehui,Zheng, Xiangdong,Zhang, Dongwei,Pang, Hai,Liu, Guangliang.

[14]Antinociceptive and anti-inflammatory activities of Phlomis umbrosa Turcz extract. Shang, Xiaofei,Li, Maoxing,Shang, Xiaofei,Miao, Xiaolou,Pan, Hu,Yang, Yaoguang,Wang, Yu,Wang, Jinhui.

[15]Metagenomic Analysis of Cecal Microbiome Identified Microbiota and Functional Capacities Associated with Feed Efficiency in Landrace Finishing Pigs. Tan, Zhen,Yang, Ting,Wang, Yuan,Xing, Kai,Zhang, Fengxia,Zhao, Xitong,Liu, Jianfeng,Wang, Chuduan,Ao, Hong,Chen, Shaokang. 2017

[16]The influence of feeding rate on growth, feed efficiency and body composition of juvenile grass carp (Ctenopharyngodon idella). Du, Zhen-Yu,Liu, Yong-Jian,Tian, Li-Xia,Ge, Jian-Guo,Cao, Jun-Ming,Liang, Gui-Ying. 2006

[17]Genetic parameters of feed efficiency traits and their relationships with egg quality traits in laying period of ducks. Zeng, T.,Chen, L.,Tian, Y.,Shen, J.,Lu, L.,Zhang, H.,Liu, J.. 2018

[18]Association of single nucleotide polymorphisms in the microRNA miR-1596 locus with residual feed intake in chickens. Luo, C.,Ma, J.,Wang, J.,Qu, H.,Shu, D.,Luo, C.,Sun, L.,Ma, J.,Wang, J.,Qu, H.,Shu, D..

[19]Comparative study of the immune effect of an Edwardsiella tarda antigen in two forms: Subunit vaccine vs DNA vaccine. Sun, Yun,Sun, Li,Sun, Yun,Liu, Chun-Sheng.

[20]Immune responses in piglets infected with highly pathogenic porcine reproductive and respiratory syndrome virus. Wang, Gang,Song, Tengfei,Liu, Yonggang,Shi, Wenda,Wang, Shujie,Rong, Fulong,Dong, Jianguo,Liu, He,Cai, Xuehui,Wang, Gang,Song, Tengfei,Yu, Ying,Zhou, En-Min,Zhou, En-Min.

作者其他论文 更多>>

微信小程序