Whole-genome resequencing reveals genetic evolution of honeybees (Apis cerana) in high-altitude and overwintering adaptation.

IF 2.3 2区 农林科学 Q3 BIOCHEMISTRY & MOLECULAR BIOLOGY
Fugui Li, Xujiang He, Lizhen Zhang, Junfeng Liu, Zilong Wang, Zhijiang Zeng
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Abstract

Over time, populations of Apis cerana across diverse geographical regions have undergone distinct phenotypic adaptations in response to varied climates, arising from prolonged natural evolutionary processes. Understanding the molecular genetic underpinnings and the implications of climate change on the adaptive evolution of A. cerana is crucial for its conservation amidst environmental shifts. Here, we conducted a comprehensive analysis of 110 bee individuals sourced from 11 regions at comparable temperatures, environments, and altitudes. A total of 525.56 Gb of filter-trimmed sequencing data were utilised for population genetic analysis of honeybees. The findings indicate genetic differentiation among bee populations from various geographical regions, with higher levels of population divergence observed in different altitudinal environments. Particularly noteworthy is the significant genetic divergence of the bee population from Haikou (HK) compared to populations in other areas, characterised by higher inbreeding coefficients and runs of homozygosity (ROHs), as well as lower nucleotide diversity. However, populations from Guangzhou (GZ), Jinzhai (JZ), Qimen (QM), Shennongjia (SNJ), and Suzhou (SZ) exhibit a close genetic relationship. Using comparisons across multiple bee populations from different groups, we identified selective signatures across different environmental temperatures and altitudes. Furthermore, by integrating genomic selection signals with comparative transcriptomic analysis, we identified genes potentially involved in bee adaptation to high altitude, such as g9950.t1 (alcohol dehydrogenase), g5267.t1 (diacylglycerol kinase theta-like isoform 2), gene g4025.t1 (Tyrosine 3-monooxygenase), and g3609.t1 (heme oxygenase). Our results indicate that both temperature and altitude contribute to the genetic differentiation and geographical adaptability of A. cerana populations.

全基因组重测序揭示了蜜蜂(Apis cerana)在高海拔和越冬适应方面的遗传进化。
随着时间的推移,不同地理区域的中华蜜蜂种群经历了不同的表型适应,以响应不同的气候,这是长期自然进化过程的结果。了解蜜蜂的分子遗传基础和气候变化对其适应性进化的影响对其在环境变化中的保护至关重要。在这里,我们对来自11个地区的110只蜜蜂个体进行了全面分析,这些地区的温度、环境和海拔都相当。筛选后的测序数据共525.56 Gb用于蜜蜂群体遗传分析。研究结果表明,不同地理区域的蜜蜂种群存在遗传分化,不同海拔环境的蜜蜂种群分化程度更高。特别值得注意的是,与其他地区的蜜蜂种群相比,海口(香港)蜜蜂种群的遗传差异显著,其特点是近亲繁殖系数和纯合度(ROHs)较高,核苷酸多样性较低。而广州、金寨、祁门、神农架和苏州的种群则表现出较近的亲缘关系。通过对来自不同群体的多个蜜蜂种群的比较,我们确定了不同环境温度和海拔的选择性特征。此外,通过整合基因组选择信号和比较转录组学分析,我们确定了可能参与蜜蜂适应高海拔的基因,如g9950。T1(醇脱氢酶),g5267。T1(二酰基甘油激酶β样异构体2),基因g4025。t1(酪氨酸3-单加氧酶)和g3609。T1(血红素加氧酶)结果表明,温度和海拔对中华蜜蜂种群的遗传分化和地理适应性都有影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Insect Molecular Biology
Insect Molecular Biology 生物-昆虫学
CiteScore
4.80
自引率
3.80%
发文量
68
审稿时长
6-12 weeks
期刊介绍: Insect Molecular Biology has been dedicated to providing researchers with the opportunity to publish high quality original research on topics broadly related to insect molecular biology since 1992. IMB is particularly interested in publishing research in insect genomics/genes and proteomics/proteins. This includes research related to: • insect gene structure • control of gene expression • localisation and function/activity of proteins • interactions of proteins and ligands/substrates • effect of mutations on gene/protein function • evolution of insect genes/genomes, especially where principles relevant to insects in general are established • molecular population genetics where data are used to identify genes (or regions of genomes) involved in specific adaptations • gene mapping using molecular tools • molecular interactions of insects with microorganisms including Wolbachia, symbionts and viruses or other pathogens transmitted by insects Papers can include large data sets e.g.from micro-array or proteomic experiments or analyses of genome sequences done in silico (subject to the data being placed in the context of hypothesis testing).
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