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多组学揭示高产蛋鸡品系免疫和代谢系统中的不同策略。

Multi-Omics Reveals Different Strategies in the Immune and Metabolic Systems of High-Yielding Strains of Laying Hens.

作者信息

Iqbal Muhammad Arsalan, Reyer Henry, Oster Michael, Hadlich Frieder, Trakooljul Nares, Perdomo-Sabogal Alvaro, Schmucker Sonja, Stefanski Volker, Roth Christoph, Camarinha Silva Amélia, Huber Korinna, Sommerfeld Vera, Rodehutscord Markus, Wimmers Klaus, Ponsuksili Siriluck

机构信息

Research Institute for Farm Animal Biology, Institute of Genome Biology, Dummerstorf, Germany.

University of Hohenheim, Institute of Animal Science, Stuttgart, Germany.

出版信息

Front Genet. 2022 Apr 1;13:858232. doi: 10.3389/fgene.2022.858232. eCollection 2022.

DOI:10.3389/fgene.2022.858232
PMID:35432452
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC9010826/
Abstract

Lohmann Brown (LB) and Lohmann Selected Leghorn (LSL) are two commercially important laying hen strains due to their high egg production and excellent commercial suitability. The present study integrated multiple data sets along the genotype-phenotype map to better understand how the genetic background of the two strains influences their molecular pathways. In total, 71 individuals were analyzed (LB, = 36; LSL, = 35). Data sets include gut miRNA and mRNA transcriptome data, microbiota composition, immune cells, inositol phosphate metabolites, minerals, and hormones from different organs of the two hen strains. All complex data sets were pre-processed, normalized, and compatible with the mixOmics platform. The most discriminant features between two laying strains included 20 miRNAs, 20 mRNAs, 16 immune cells, 10 microbes, 11 phenotypic traits, and 16 metabolites. The expression of specific miRNAs and the abundance of immune cell types were related to the enrichment of immune pathways in the LSL strain. In contrast, more microbial taxa specific to the LB strain were identified, and the abundance of certain microbes strongly correlated with host gut transcripts enriched in immunological and metabolic pathways. Our findings indicate that both strains employ distinct inherent strategies to acquire and maintain their immune and metabolic systems under high-performance conditions. In addition, the study provides a new perspective on a view of the functional biodiversity that emerges during strain selection and contributes to the understanding of the role of host-gut interaction, including immune phenotype, microbiota, gut transcriptome, and metabolome.

摘要

罗曼褐壳蛋鸡(LB)和罗曼精选来航蛋鸡(LSL)是两个具有重要商业价值的蛋鸡品系,因其高产蛋量和出色的商业适应性而闻名。本研究整合了沿基因型 - 表型图谱的多个数据集,以更好地理解这两个品系的遗传背景如何影响其分子途径。总共分析了71只个体(LB,n = 36;LSL,n = 35)。数据集包括两种蛋鸡品系不同器官的肠道miRNA和mRNA转录组数据、微生物群组成、免疫细胞、肌醇磷酸代谢物、矿物质和激素。所有复杂的数据集都经过预处理、标准化,并与mixOmics平台兼容。两个蛋鸡品系之间最具区分性的特征包括20种miRNA、20种mRNA、16种免疫细胞、10种微生物、11种表型性状和16种代谢物。特定miRNA的表达和免疫细胞类型的丰度与LSL品系中免疫途径的富集有关。相比之下,鉴定出更多LB品系特有的微生物分类群,并且某些微生物的丰度与宿主肠道转录本在免疫和代谢途径中的富集密切相关。我们的研究结果表明,在高性能条件下,这两个品系都采用独特的固有策略来获取和维持其免疫和代谢系统。此外,该研究为品系选择过程中出现的功能生物多样性观点提供了新的视角,并有助于理解宿主 - 肠道相互作用的作用,包括免疫表型、微生物群、肠道转录组和代谢组。

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