数字农科院2.0

Transcriptome Analysis Of Skeletal Muscle In Pigs With Divergent Residual Feed Intake Phenotypes

文献类型: 外文期刊

作者: Hou, XH; Pu, L; Wang, LG; Liu, X; Gao, HM; Yan, H; Zhang, JS; Zhang, YB; Yue, JW; Zhang, LC; Wang, LX

作者机构:

关键词: RFI; pig; skeletal muscle; Illumina sequencing

期刊名称: DNA AND CELL BIOLOGY

ISSN: 1044-5498

年卷期: 2020 年 39 卷 3 期

页码:

收录情况: JCR(2021版)

摘要: Residual feed intake (RFI) is defined as the difference between the observed and expected feed intake for maintenance and growth requirements. In this study, the expression profiles of mRNAs and long noncoding RNAs (lncRNAs) from skeletal muscle in Duroc pigs with divergent RFI phenotypes were investigated by Illumina sequencing. Finally, a total of 2195 annotated lncRNAs and 1976 novel lncRNAs were obtained. About 210 mRNAs and 43 lncRNAs were differentially expressed among high and low RFI pigs. The differentially expressed mRNAs were potentially involved in the biological processes of lipid metabolism, extracellular matrix organization, cell proliferation, and cell adhesion. The lipolysis in skeletal muscle was increased in high RFI pigs, suggesting that high RFI pigs might need more energy than low RFI pigs. However, skeletal muscle development was increased in low RFI pigs. These results suggested that low RFI pigs might be more efficient in energy utilization during skeletal muscle growth. The function of lncRNA was also analyzed by target prediction. Nine lncRNAs might be candidate lncRNAs for the determination of RFI phenotype, by the regulation of the biological processes of lipid metabolism, cell proliferation, and cell adhesion. This study should facilitate a further understanding of the molecular mechanism for the determination of RFI phenotype in pigs.

分类号:

  • 相关文献

[1]Comprehensive Profiles Of Mrnas And M.irnas Reveal Molecular Characteristics O f Multiple Organ Physiologies And Development In Pigs. Chen, MY, Yao, YL, Yang, YL, Zhu, M, Tang, YJ, Liu, SY, Li, K, Tang, ZL. 2019

[2]Genome-Wide Profiling Of Sus Scrofa C.ircular Rnas Across Nine O rgans And Three Developmental Stages. Liang, GM, Yang, YL, Niu, GL, Tang, ZL, Li, K. 2017

[3]The landscape of chromatin accessibility in skeletal muscle during embryonic development in pigs. Yue Jingwei,Hou Xinhua,Liu Xin,Wang Ligang,Gao Hongmei,Zhao Fuping,Shi Lijun,Shi Liangyu,Yan Hua,Deng Tianyu,Gong Jianfei,Wang Lixian,Zhang Longchao. 2021

[4]Developmental Atlas Of The Rna E.ditome In Sus Scrofa S keletal Muscle. Yang, YL, Zhu, M, Fan, XH, Yao, YL, Yan, JY, Tang, YJ, Liu, SY, Li, K, Tang, ZL. 2019

[5]高低剩余采食量北京鸭品系皮脂蛋白质组差异研究. 张云生,杨宇泽,郭占宝,谢明,常卓,张智英,侯水生. 2018

[6]杜洛克猪HLCS基因组织表达分析及其编码区多态性与剩余采食量的关联. 张跃博,蒲蕾,张金山,颜华,王立刚,侯欣华,刘欣,高红梅,王立贤,张龙超. 2018

[7]选择RFI性状5个世代对北京鸭生产性能的影响. 张云生,郭占宝,邢光楠,闫振广,胡健,侯水生. 2020

[8]Genetic Parameters Of Feed Efficiency T.raits And Their Relationships W ith Egg Quality Traits In Laying Period Of Ducks. Tian, Y.,Zhang, H.,Zeng, T.,Lu, L.,Shen, J.,Chen, L.,Liu, J.. 2018

[9]Comparison of genomic prediction methods for residual feed intake in broilers. He, Zhengxiao,Li, Sen,Li, Wei,Ding, Jiqiang,Zheng, Maiqing,Li, Qinghe,Fahey, Alan G.,Wen, Jie,Liu, Ranran,Zhao, Guiping. 2022

[10]Relevance Of The Intestinal Health-Related P.athways To Broiler Residual F eed Intake Revealed By Duodenal Transcriptome Profiling. Liu, RR, Liu, J, Zhao, GP, Li, W, Zheng, MQ, Wang, J, Li, QH, Cui, HX, Wen, J. 2019

[11]The Complete Mitochondrial Genome Of S.higaste Humped Cattle (Bos T aurus). Pei, Jie,Bao, Pengjia,Ding, Xuezhi,Guo, Xian,Chu, Min,Yan, Ping,Wangdui, Basang,Xiong, Lin,Zhu, Yanbin,Wu, Xiaoyun. 2018

[12]Complete Mitochondrial Genome Of Qingyang D.onkey (Equus Asinus). Lu, Dengxue,Pei, Jie,Yan, Ping,Liang, Chunnian,Bao, Pengjia,Ding, Xuezhi,Guo, Xian. 2017

[13]The Complete Mitochondrial Genome Of O.vis Ammon Darwini (Artiodactyla: B ovidae). Ma, Guilin,Mao, Hongxia,Yang, Qin,Guo, Xian,Lamaocao, Zhong,Liu, Hanli. 2017

[14]Complete Mitochondrial Genome Of Anxi C.attle (Bos Taurus). Guo, Xian,Xiong, Lin,Wu, Xiaoyun,Ding, Xuezhi,Yan, Ping,Pei, Jie,Bao, Pengjia. 2018

[15]Comparative Analysis Of The Complete C.hloroplast Genome Of Four E ndangered Herbals Of Notopterygium. Yang, Jiao,Yue, Ming,Niu, Chuan,Ma, Xiong-Feng,Li, Zhong-Hu. 2017

[16]The Complete Mitochondrial Genome Of S.anhe Horse (Equus Caballus). Yan, Ping,Bao, Pengjia,Chu, Min,Pei, Jie,Guo, Xian,Ding, Xuezhi,Sha, Zhongcheng. 2019

[17]Complete Mitochondrial Genome Of Equus C.aballus (Datong Horse). Yan, Ping,Zhou, Yuqing,Bao, Pengjia,Wu, Xiaoyun,Guo, Xian,Liang, Chunnian,Pei, Jie,Ding, Xuezhi. 2019

[18]The Apicoplast Genomes Of Two T.axonomic Units Of Babesia F rom Sheep. Wang, T, Guan, GQ, Korhonen, PK, Koehler, AV, Hall, RS, Young, ND, Yin, H, Gasser, RB. 2017

[19]Microbial Community Response During The T.reatment Of Pharmaceutically Active C ompounds (Phacs) In Constructed Wetland Mesocosms. Yan, Q, Min, J, Yu, YH, Zhu, ZW, Feng, GZ. 2017

[20]Genomic sequence resource of Kabatiella zeae, the causative pathogen of corn eyespot disease. Wang Y.,Yao J.,Xia X.,Li Z.,Zhou S.,Liu W.,Wu H.. 2021

作者其他论文 更多>>