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作物物种基因组测序的新兴知识。

Emerging knowledge from genome sequencing of crop species.

机构信息

CRA, Viticolture Research Centre, Via Casoni 13/A, 31058 Susegana, TV, Italy.

出版信息

Mol Biotechnol. 2012 Mar;50(3):250-66. doi: 10.1007/s12033-011-9443-1.

DOI:10.1007/s12033-011-9443-1
PMID:21822975
Abstract

Extensive insights into the genome composition, organization, and evolution have been gained from the plant genome sequencing and annotation ongoing projects. The analysis of crop genomes provided surprising evidences with important implications in plant origin and evolution: genome duplication, ancestral re-arrangements and unexpected polyploidization events opened new doors to address fundamental questions related to species proliferation, adaptation, and functional modulations. Detailed paleogenomic analysis led to many speculation on how chromosomes have been shaped over time in terms of gene content and order. The completion of the genome sequences of several major crops, prompted to a detailed identification and annotation of transposable elements: new hypothesis related to their composition, chromosomal distribution, insertion models, amplification rate, and evolution patterns are coming up. Availability of full genome sequence of several crop species as well as from many accessions within species is providing new keys for biodiversity exploitation and interpretation. Re-sequencing is enabling high-throughput genotyping to identify a wealth of SNP and afterward to produce haplotype maps necessary to accurately associate molecular variation to phenotype. Conservation genomics is emerging as a powerful tool to explain adaptation, genetic drift, natural selection, hybridization and to estimate genetic variation, fitness and population's viability.

摘要

从正在进行的植物基因组测序和注释项目中,我们对基因组的组成、结构和进化有了深入的了解。对作物基因组的分析提供了令人惊讶的证据,这些证据对植物的起源和进化具有重要意义:基因组加倍、祖先重排和意想不到的多倍化事件为解决与物种增殖、适应和功能调节相关的基本问题开辟了新的途径。详细的古基因组分析导致了许多关于染色体在基因内容和顺序方面随时间变化的推测。随着几个主要作物基因组序列的完成,促使对转座元件进行了详细的鉴定和注释:关于它们的组成、染色体分布、插入模型、扩增率和进化模式的新假设正在出现。几个作物物种以及许多种内的全基因组序列的可用性,为生物多样性的开发和解释提供了新的线索。重测序能够进行高通量基因分型,以识别大量的 SNP,然后生成单倍型图谱,以便将分子变异与表型准确关联。保护基因组学正在成为解释适应、遗传漂变、自然选择、杂交以及估计遗传变异、适应性和种群生存能力的有力工具。

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