全基因组基因与环境相互作用分析发现肉牛生长性状的新型候选变异基因

Tianyu Deng, Keanning Li, Lili Du, Mang Liang, Li Qian, Qingqing Xue, Shiyuan Qiu, Lingyang Xu, Lupei Zhang, Xue Gao, Xianyong Lan, Junya Li, Huijiang Gao
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引用次数: 0

摘要

简单摘要 生长性状是肉牛业中具有重要经济价值的性状,已被广泛研究。然而,传统的研究往往忽略了这些性状在不同环境条件下的变化,而只关注直接影响性状的单一遗传变化。在我们的研究中,我们分析了遗传和环境如何相互作用影响肉牛的生长,考虑了四个生长性状和两个环境因素。这项分析发现了几个在标准研究中通常并不明显的生长性状遗传标记,表明有些基因的影响可能会被环境条件所抹杀。进一步的测试表明,这些遗传标记是否归类于特定的基因或功能通路,帮助我们了解遗传如何在不同的环境条件下影响生长。通过发现与生长性状相关的新遗传位点、基因和候选生物学机制,我们的研究为肉牛业的选择预测和育种决策提供了宝贵的信息。摘要 复杂性状被广泛认为是基因、环境因素和基因型与环境相互作用(G × E)的复合调控结果。将 G × E 纳入全基因组关联分析对于了解动物的环境适应性和提高育种决策的效率至关重要。在此,我们利用 1350 头牛的数据集,通过全基因组基因型与环境交互关联研究(GWEIS)系统地研究了生长性状(包括断奶体重、一岁体重、18 个月体重和 24 个月体重)与环境因素(农场和温度)的 G × E。我们验证了稳健估计器在 GWEIS 中的有效性,并检测到 29 个独立的互作 SNPs,显著性阈值为 1.67 × 10-6,表明这些在传统全基因组关联研究(GWAS)中未显示主效应的 SNPs 可能在不同基因型之间具有非加性效应,但被环境因素所湮没。使用 MAGMA 进行的基于基因的分析发现了三个与 GEWIS 结果重叠的基因,即 SMAD2、PALMD 和 MECOM。此外,基因组分析中的功能探索结果揭示了牛生长如何对环境变化做出反应的生物机制,如有丝分裂或细胞分裂、脂肪酸β氧化、神经递质活性、间隙连接和角蛋白硫酸盐降解。这项研究不仅揭示了影响生长性状的新遗传位点和潜在机制,而且改变了我们对肉牛环境适应性的认识,从而为制定更有针对性和更有效的育种策略铺平了道路。
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Genome-Wide Gene–Environment Interaction Analysis Identifies Novel Candidate Variants for Growth Traits in Beef Cattle
Simple Summary Growth traits have been widely studied as economically important traits in the beef cattle industry. However, traditional studies often miss how these traits change under different environmental conditions, only focusing on single genetic changes that affect traits directly. In our study, we analyzed how genetics and environment interact to affect growth in beef cattle, considering four growth traits and two environmental factors. This analysis uncovered several genetic markers for growth traits that are not usually evident in standard studies, showing that some genes have effects that can be obliterated by environmental conditions Further testing showed whether these genetic markers are grouped in specific genes or functional pathways, helping us understand how genetics can influence growth under different environmental conditions. By uncovering novel genetic loci, genes, and candidate biological mechanisms associated with growth traits, our study provides valuable information for selection prediction and breeding decisions in the beef cattle industry. Abstract Complex traits are widely considered to be the result of a compound regulation of genes, environmental factors, and genotype-by-environment interaction (G × E). The inclusion of G × E in genome-wide association analyses is essential to understand animal environmental adaptations and improve the efficiency of breeding decisions. Here, we systematically investigated the G × E of growth traits (including weaning weight, yearling weight, 18-month body weight, and 24-month body weight) with environmental factors (farm and temperature) using genome-wide genotype-by-environment interaction association studies (GWEIS) with a dataset of 1350 cattle. We validated the robust estimator’s effectiveness in GWEIS and detected 29 independent interacting SNPs with a significance threshold of 1.67 × 10−6, indicating that these SNPs, which do not show main effects in traditional genome-wide association studies (GWAS), may have non-additive effects across genotypes but are obliterated by environmental means. The gene-based analysis using MAGMA identified three genes that overlapped with the GEWIS results exhibiting G × E, namely SMAD2, PALMD, and MECOM. Further, the results of functional exploration in gene-set analysis revealed the bio-mechanisms of how cattle growth responds to environmental changes, such as mitotic or cytokinesis, fatty acid β-oxidation, neurotransmitter activity, gap junction, and keratan sulfate degradation. This study not only reveals novel genetic loci and underlying mechanisms influencing growth traits but also transforms our understanding of environmental adaptation in beef cattle, thereby paving the way for more targeted and efficient breeding strategies.
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