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亚马逊中部三种土壤中传统苦木薯品种的遗传结构

Genetic structure of traditional varieties of bitter manioc in three soils in Central Amazonia.

作者信息

Alves-Pereira Alessandro, Peroni Nivaldo, Abreu Aluana Gonçalves, Gribel Rogério, Clement Charles R

机构信息

Instituto Nacional de Pesquisas da Amazônia, INPA, Av. André Araújo, 2936, Aleixo, Manaus, AM 69060-001, Brazil.

出版信息

Genetica. 2011 Oct;139(10):1259-71. doi: 10.1007/s10709-011-9627-4. Epub 2012 Jan 7.

DOI:10.1007/s10709-011-9627-4
PMID:22228136
Abstract

Manioc is the most important food crop that originated in Amazonia. Many studies have increased our understanding of its evolutionary dynamics under cultivation. However, most of them focused on manioc cultivation in environments with low soil fertility, generally Oxisols. Recent ethnobotanical observations showed that bitter manioc also performs well in high fertility soils, such as Amazonian dark earths (ADE) and the floodplain. We used 10 microsatellite loci to investigate the genetic diversity and structure of bitter manioc varieties grown in different soil types in communities of smallholder farmers along the middle Madeira River in Central Amazonia. The genetic diversity of some sweet varieties and seedlings was also evaluated. Adult individuals showed higher levels of genetic diversity and smaller inbreeding coefficients (A ( R ) = 5.52, H ( O ) = 0.576, f = 0.086) than seedlings (A ( R ) = 4.39, H ( O ) = 0.421, f = 0.242). Bitter manioc varieties from the floodplain showed higher levels of genetic diversity (A ( R ) = 5.19, H ( O ) = 0.606) than those from ADE (A ( R ) = 4.45, H ( O ) = 0.538) and from Oxisols (A ( R ) = 4.15, H ( O ) = 0.559). The varieties grown in the floodplain were strongly differentiated from the varieties grown in Oxisols (F ( ST ) = 0.093) and ADE (F ( ST ) = 0.108), suggesting important genetic structuring among varieties grown in the floodplain and upland soils (ADE and Oxisols). This is the first time that genetic divergence of bitter manioc varieties in cultivation in different Amazonian soils in a small geographic area is reported.

摘要

木薯是起源于亚马逊地区的最重要的粮食作物。许多研究增进了我们对其在栽培条件下进化动态的理解。然而,其中大多数研究聚焦于在土壤肥力低的环境(通常是氧化土)中种植木薯。最近的民族植物学观察表明,苦木薯在高肥力土壤中,如亚马逊黑土(ADE)和洪泛平原,也生长良好。我们使用10个微卫星位点来研究在亚马逊中部马德拉河中游小农户社区不同土壤类型中种植的苦木薯品种的遗传多样性和结构。还评估了一些甜木薯品种和幼苗的遗传多样性。成年个体比幼苗表现出更高水平的遗传多样性和更小的近亲繁殖系数(A(R)= 5.52,H(O)= 0.576,f = 0.086)(A(R)= 4.39,H(O)= 0.421,f = 0.242)。来自洪泛平原的苦木薯品种比来自ADE(A(R)= 4.45,H(O)= 0.538)和氧化土(A(R)= 4.15,H(O)= 0.559)的品种表现出更高水平的遗传多样性(A(R)= 5.19,H(O)= 0.606)。在洪泛平原种植的品种与在氧化土(F(ST)= 0.093)和ADE(F(ST)= 0.108)中种植的品种有强烈分化,表明在洪泛平原和高地土壤(ADE和氧化土)中种植的品种间存在重要的遗传结构差异。这是首次报道在一个小地理区域内不同亚马逊土壤中栽培的苦木薯品种的遗传分化。

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