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玉米中异常染色体 10 减数分裂驱动复合物的多样性和丰度。

Diversity and abundance of the abnormal chromosome 10 meiotic drive complex in Zea mays.

机构信息

Department of Plant Biology, University of Georgia, Athens, GA, USA.

出版信息

Heredity (Edinb). 2013 Jun;110(6):570-7. doi: 10.1038/hdy.2013.2. Epub 2013 Feb 27.

Abstract

Maize Abnormal chromosome 10 (Ab10) contains a classic meiotic drive system that exploits the asymmetry of meiosis to preferentially transmit itself and other chromosomes containing specialized heterochromatic regions called knobs. The structure and diversity of the Ab10 meiotic drive haplotype is poorly understood. We developed a bacterial artificial chromosome (BAC) library from an Ab10 line and used the data to develop sequence-based markers, focusing on the proximal portion of the haplotype that shows partial homology to normal chromosome 10. These molecular and additional cytological data demonstrate that two previously identified Ab10 variants (Ab10-I and Ab10-II) share a common origin. Dominant PCR markers were used with fluorescence in situ hybridization to assay 160 diverse teosinte and maize landrace populations from across the Americas, resulting in the identification of a previously unknown but prevalent form of Ab10 (Ab10-III). We find that Ab10 occurs in at least 75% of teosinte populations at a mean frequency of 15%. Ab10 was also found in 13% of the maize landraces, but does not appear to be fixed in any wild or cultivated population. Quantitative analyses suggest that the abundance and distribution of Ab10 is governed by a complex combination of intrinsic fitness effects as well as extrinsic environmental variability.

摘要

玉米异常染色体 10(Ab10)包含一个经典的减数分裂驱动系统,该系统利用减数分裂的不对称性,优先传递自身和其他包含称为 knob 的专门异染色质区域的染色体。Ab10 减数分裂驱动单倍型的结构和多样性理解甚少。我们从 Ab10 系中开发了一个细菌人工染色体(BAC)文库,并利用这些数据开发了基于序列的标记,重点是该单倍型的近端部分,该部分与正常染色体 10 具有部分同源性。这些分子和额外的细胞学数据表明,两个先前鉴定的 Ab10 变体(Ab10-I 和 Ab10-II)具有共同的起源。使用具有荧光原位杂交的显性 PCR 标记来检测来自美洲各地的 160 个不同的类蜀黍和玉米地方品种群体,从而鉴定出一种以前未知但普遍存在的 Ab10(Ab10-III)形式。我们发现 Ab10 至少存在于 75%的类蜀黍群体中,平均频率为 15%。Ab10 也存在于 13%的玉米地方品种中,但似乎没有在任何野生或栽培种群中固定下来。定量分析表明,Ab10 的丰度和分布由内在适应度效应以及外在环境变异性的复杂组合所控制。

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