Segregation distortion and linkage analysis in eggplant (Solanum melongena L.)
An anther-derived doubled haploid (DH) population and an F 2 mapping population were developed from an intraspecific hybrid between the eggplant breeding lines 305E40 and 67/3. The former incorporates an introgressed segment from Solanum aethiopicum Gilo Group carrying the gene Rfo-sa1, which confer...
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Published in | Genome Vol. 53; no. 10; pp. 805 - 815 |
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Main Authors | , , , , , , |
Format | Journal Article |
Language | English |
Published |
Canada
NRC Research Press
01.10.2010
Canadian Science Publishing NRC Research Press |
Subjects | |
Online Access | Get full text |
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Abstract | An anther-derived doubled haploid (DH) population and an F
2
mapping population were developed from an intraspecific hybrid between the eggplant breeding lines 305E40 and 67/3. The former incorporates an introgressed segment from
Solanum aethiopicum
Gilo Group carrying the gene Rfo-sa1, which confers resistance to
Fusarium oxysporum
;; the latter is a selection from an intraspecific cross involving two conventional eggplant varieties and lacks Rfo-sa1. Initially, 28 AFLP primer combinations (PCs) were applied to a sample of 93 F
2
individuals and 93 DH individuals, from which 170 polymorphic AFLP fragments were identified. In the DH population, the segregation of 117 of these AFLPs as well as markers closely linked to Rfo-sa1 was substantially distorted, while in the F
2
population, segregation distortion was restricted to just 10 markers, and thus the latter was chosen for map development. A set of 141 F
2
individuals was genotyped with 73 AFLP PCs (generating 406 informative markers), 32 SSRs, 4 tomato RFLPs, and 3 CAPS markers linked to Rfo-sa1. This resulted in the assignment of 348 markers to 12 major linkage groups. The framework map covered 718.7 cM, comprising 238 markers (212 AFLPs, 22 SSRs, 1 RFLP, and the Rfo-sa1 CAPS). Marker order and inter-marker distances in this eggplant map were largely consistent with those reported in a recently published SSR-based map. From an eggplant breeding perspective, DH populations produced by anther culture appear to be subject to massive segregation distortion and thus may not be very efficient in capturing the full range of genetic variation present in the parental lines. |
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AbstractList | An anther-derived doubled haploid (DH) population and an [F.sub.2] mapping population were developed from an intraspecific hybrid between the eggplant breeding lines 305E40 and 67/3. The former incorporates an introgressed segment from Solanum aethiopicum Gilo Group carrying the gene Rfo-sa1, which confers resistance to Fusarium oxysporwn; the latter is a selection from an intraspecific cross involving two conventional eggplant varieties and lacks Rfo-sa1. Initially, 28 AFLP primer combinations (PCs) were applied to a sample of 93 [F.sub.2] individuals and 93 DH individuals, from which 170 polymorphic AFLP fragments were identified. In the DH population, the segregation of 117 of these AFLPs as well as markers closely linked to Rfo-sa1 was substantially distorted, while in the [F.sub.2] population, segregation distortion was restricted to just 10 markers, and thus the latter was chosen for map development. A set of 141 [F.sub.2] individuals was genotyped with 73 AFLP PCs (generating 406 informative markers), 32 SSRs. 4 tomato RFLPs. and 3 CAPS markers linked to Rfo-sa1. This resulted in the assignment of 348 markers to 12 major linkage groups. The framework map covered 718.7 cM, comprising 238 markers (212 AFLPs, 22 SSRs, 1 RFLP. and the Rfo-sa1 CAPS). Marker order and inter-marker distances in this eggplant map were largely consistent with those reported in a recently published SSR-based map. From an eggplant breeding perspective, DH populations produced by anther culture appear to be subject to massive segregation distortion and thus may not be very efficient in capturing the full range of genetic variation present in the parental lines. An anther-derived doubled haploid (DH) population and an F 2 mapping population were developed from an intraspecific hybrid between the eggplant breeding lines 305E40 and 67/3. The former incorporates an introgressed segment from Solanum aethiopicum Gilo Group carrying the gene Rfo-sa1, which confers resistance to Fusarium oxysporum ; the latter is a selection from an intraspecific cross involving two conventional eggplant varieties and lacks Rfo-sa1. Initially, 28 AFLP primer combinations (PCs) were applied to a sample of 93 F 2 individuals and 93 DH individuals, from which 170 polymorphic AFLP fragments were identified. In the DH population, the segregation of 117 of these AFLPs as well as markers closely linked to Rfo-sa1 was substantially distorted, while in the F 2 population, segregation distortion was restricted to just 10 markers, and thus the latter was chosen for map development. A set of 141 F 2 individuals was genotyped with 73 AFLP PCs (generating 406 informative markers), 32 SSRs, 4 tomato RFLPs, and 3 CAPS markers linked to Rfo-sa1. This resulted in the assignment of 348 markers to 12 major linkage groups. The framework map covered 718.7 cM, comprising 238 markers (212 AFLPs, 22 SSRs, 1 RFLP, and the Rfo-sa1 CAPS). Marker order and inter-marker distances in this eggplant map were largely consistent with those reported in a recently published SSR-based map. From an eggplant breeding perspective, DH populations produced by anther culture appear to be subject to massive segregation distortion and thus may not be very efficient in capturing the full range of genetic variation present in the parental lines. An anther-derived doubled haploid (DH) population and an F2 mapping population were developed from an intraspecific hybrid between the eggplant breeding lines 305E40 and 67/3. The former incorporates an introgressed segment from Solanum aethiopicum Gilo Group carrying the gene Rfo-sa1, which confers resistance to Fusarium oxysporum; the latter is a selection from an intraspecific cross involving two conventional eggplant varieties and lacks Rfo-sa1. Initially, 28 AFLP primer combinations (PCs) were applied to a sample of 93 F2 individuals and 93 DH individuals, from which 170 polymorphic AFLP fragments were identified. In the DH population, the segregation of 117 of these AFLPs as well as markers closely linked to Rfo-sa1 was substantially distorted, while in the F2 population, segregation distortion was restricted to just 10 markers, and thus the latter was chosen for map development. A set of 141 F2 individuals was genotyped with 73 AFLP PCs (generating 406 informative markers), 32 SSRs, 4 tomato RFLPs, and 3 CAPS markers linked to Rfo-sa1. This resulted in the assignment of 348 markers to 12 major linkage groups. The framework map covered 718.7 cM, comprising 238 markers (212 AFLPs, 22 SSRs, 1 RFLP, and the Rfo-sa1 CAPS). Marker order and inter-marker distances in this eggplant map were largely consistent with those reported in a recently published SSR-based map. From an eggplant breeding perspective, DH populations produced by anther culture appear to be subject to massive segregation distortion and thus may not be very efficient in capturing the full range of genetic variation present in the parental lines. An anther-derived doubled haploid (DH) population and an F2 mapping population were developed from an intraspecific hybrid between the eggplant breeding lines 305E40 and 67/3. The former incorporates an introgressed segment from Solanum aethiopicum Gilo Group carrying the gene Rfo-sa1, which confers resistance to Fusarium oxysporum; the latter is a selection from an intraspecific cross involving two conventional eggplant varieties and lacks Rfo-sa1. Initially, 28 AFLP primer combinations (PCs) were applied to a sample of 93 F2 individuals and 93 DH individuals, from which 170 polymorphic AFLP fragments were identified. In the DH population, the segregation of 117 of these AFLPs as well as markers closely linked to Rfo-sa1 was substantially distorted, while in the F2 population, segregation distortion was restricted to just 10 markers, and thus the latter was chosen for map development. A set of 141 F2 individuals was genotyped with 73 AFLP PCs (generating 406 informative markers), 32 SSRs, 4 tomato RFLPs, and 3 CAPS markers linked to Rfo-sa1. This resulted in the assignment of 348 markers to 12 major linkage groups. The framework map covered 718.7 cM, comprising 238 markers (212 AFLPs, 22 SSRs, 1 RFLP, and the Rfo-sa1 CAPS). Marker order and inter-marker distances in this eggplant map were largely consistent with those reported in a recently published SSR-based map. From an eggplant breeding perspective, DH populations produced by anther culture appear to be subject to massive segregation distortion and thus may not be very efficient in capturing the full range of genetic variation present in the parental lines. [PUBLICATION ABSTRACT] An anther-derived doubled haploid (DH) population and an F sub(2) mapping population were developed from an intraspecific hybrid between the eggplant breeding lines 305E40 and 67/3. The former incorporates an introgressed segment from Solanum aethiopicum Gilo Group carrying the gene Rfo-sa1, which confers resistance to Fusarium oxysporum; the latter is a selection from an intraspecific cross involving two conventional eggplant varieties and lacks Rfo-sa1. Initially, 28 AFLP primer combinations (PCs) were applied to a sample of 93 F sub(2) individuals and 93 DH individuals, from which 170 polymorphic AFLP fragments were identified. In the DH population, the segregation of 117 of these AFLPs as well as markers closely linked to Rfo-sa1 was substantially distorted, while in the F sub(2) population, segregation distortion was restricted to just 10 markers, and thus the latter was chosen for map development. A set of 141 F sub(2) individuals was genotyped with 73 AFLP PCs (generating 406 informative markers), 32 SSRs, 4 tomato RFLPs, and 3 CAPS markers linked to Rfo-sa1. This resulted in the assignment of 348 markers to 12 major linkage groups. The framework map covered 718.7 cM, comprising 238 markers (212 AFLPs, 22 SSRs, 1 RFLP, and the Rfo-sa1 CAPS). Marker order and inter-marker distances in this eggplant map were largely consistent with those reported in a recently published SSR-based map. From an eggplant breeding perspective, DH populations produced by anther culture appear to be subject to massive segregation distortion and thus may not be very efficient in capturing the full range of genetic variation present in the parental lines.Original Abstract: Une population d'haploiedes doubles (HD), obtenue par culture d'antheres, et une population F sub(2) ont ete developpees a partir d'un croisement intraspecifique entre deux lignees de selectionneur (305E40 et 67/3) chez l'aubergine. La premiere contient un segment introgresse en provenance du Solanum aethiopicum Gilo Group, lequel comprend le gene Rfo-sa1 qui confere la resistance au Fusarium oxysporum. La seconde lignee est une selection retenue au sein d'un croisement intraspecifique entre deux cultivars conventionnels d'aubergine qui etaient depourvus du gene Rfo-sa1. Initialement, 28 combinaisons d'amorces AFLP ont ete employees sur 93 individus F sub(2) et 93 HD pour identifier 170 amplicons AFLP polymorphes. Au sein de la population HD, la segregation de 117 de ces AFLP ainsi que tous les marqueurs fortement lies au gene Rfo-sa1 etait significativement biaisee. Par contre, au sein de la population F sub(2), le biais etait limite a seulement 10 marqueurs ; cette derniere population a donc ete retenue pour le developpement d'une carte. Une collection de 142 individus F sub(2) a ete examinee avec 73 combinaisons d'amorces AFLP (generant 406 marqueurs), 32 SSR, quatre RFLP de tomate et trois marqueurs CAPS lies au gene Rfo-sa1. Cela a permis d'assigner 348 marqueurs a l'un de 12 groupes de liaison majeurs. La carte cadre s'etend sur 718,7 cM, compte 238 marqueurs (212 AFLP, 22 SSR, un RFLP et les marqueurs CAPS lies a Rfo-sa1). L'ordre des marqueurs et les distances qui les separent dans cette carte de l'aubergine etaient largement conformes a ce qui a ete rapporte recemment pour une carte fondee sur des SSR. Dans une perspective d'amelioration genetique, les populations HD produites par culture d'antheres semblent sujettes a des biais de segregation massifs et ainsi ne seraient pas tres efficaces pour capture la gamme complete de variation genetique presente chez les lignees parentales. An anther-derived doubled haploid (DH) population and an [F.sub.2] mapping population were developed from an intraspecific hybrid between the eggplant breeding lines 305E40 and 67/3. The former incorporates an introgressed segment from Solanum aethiopicum Gilo Group carrying the gene Rfo-sa1, which confers resistance to Fusarium oxysporwn; the latter is a selection from an intraspecific cross involving two conventional eggplant varieties and lacks Rfo-sa1. Initially, 28 AFLP primer combinations (PCs) were applied to a sample of 93 [F.sub.2] individuals and 93 DH individuals, from which 170 polymorphic AFLP fragments were identified. In the DH population, the segregation of 117 of these AFLPs as well as markers closely linked to Rfo-sa1 was substantially distorted, while in the [F.sub.2] population, segregation distortion was restricted to just 10 markers, and thus the latter was chosen for map development. A set of 141 [F.sub.2] individuals was genotyped with 73 AFLP PCs (generating 406 informative markers), 32 SSRs. 4 tomato RFLPs. and 3 CAPS markers linked to Rfo-sa1. This resulted in the assignment of 348 markers to 12 major linkage groups. The framework map covered 718.7 cM, comprising 238 markers (212 AFLPs, 22 SSRs, 1 RFLP. and the Rfo-sa1 CAPS). Marker order and inter-marker distances in this eggplant map were largely consistent with those reported in a recently published SSR-based map. From an eggplant breeding perspective, DH populations produced by anther culture appear to be subject to massive segregation distortion and thus may not be very efficient in capturing the full range of genetic variation present in the parental lines. Key words: eggplant, [F.sub.2], molecular markers, Fusarium oxysporum f. sp. melongenae. Une population d'haploides doubles (HD), obtenue par culture d'antheres, el une population [F.sub.2] ont ete developpees a partir d'un croisement iniraspecifique entre deux lignees de selectionneur (305E40 et 67/3) chez. l'aubergine. La premiere contient un segment introgresse en provenance du Solanum aethiopicum Gilo Group, lequel comprend le gene Rfo-sa1 qui confere la resistance au Fusarium oxysporum. La seconde lignee est une selection retenue au sein d'un croisement intraspecifique entre deux cultivars conventionnels d'aubergine qui etaient depourvus du gene Rfo-sa1. Initialement. 28 combinaisons d'amorces AFLP ont ete employees sur 93 individus [F.sub.2] et 93 HD pour identifier 170 amplicons AFLP polymorphes. Au sein de la population HD, la segregation de 117 de ces AFLP ainsi que tous les marqueurs fortement lies au gene Rfo-sa1 etait significativement biaisee. Par contre, au sein de la population [F.sub.2], le biais etait limite a seulement 10 marqueurs ; cette derniere population a done ete retenue pour le developpement d'une carte. Une collection de 142 individus [F.sub.2] a ete examinee avec 73 combinaisons d'amorces AFLP (generant 406 marqueurs), 32 SSR, quatre RFLP de tomate et trois marqueurs CAPS lies au gene Rfo-sa1. Cela a permis d'assigner 348 marqueurs a l'un de 12 groupes de liaison majeure. La carte cadre s'etend sur 718,7 cM, compte 238 marqueurs (212 AFLP, 22 SSR, un RFLP el les marqueurs CAPS lies a Rfo-sa1). L'ordre des marqueurs et les distances qui les separent dans cette carte de l'aubergine etaient largement conformes a ce qui a ete rapporte recemment pour une carte fondee sur des SSR. Dans une perspective d'amelioration genetique, les populations HD produites par culture d'antheres semblent sujettes a des biais de segregation massifs et ainsi ne seraient pas tres efficaces pour capture la gamme complete de variation genetique presente chez les lignees parentales. Mots-cles : aubergine, [F.sub.2], marqueurs moleculaires, Fusarium oxysporum f. sp. melongenae. [Traduit par la Redaction] An anther-derived doubled haploid (DH) population and an F 2 mapping population were developed from an intraspecific hybrid between the eggplant breeding lines 305E40 and 67/3. The former incorporates an introgressed segment from Solanum aethiopicum Gilo Group carrying the gene Rfo-sa1, which confers resistance to Fusarium oxysporum ;; the latter is a selection from an intraspecific cross involving two conventional eggplant varieties and lacks Rfo-sa1. Initially, 28 AFLP primer combinations (PCs) were applied to a sample of 93 F 2 individuals and 93 DH individuals, from which 170 polymorphic AFLP fragments were identified. In the DH population, the segregation of 117 of these AFLPs as well as markers closely linked to Rfo-sa1 was substantially distorted, while in the F 2 population, segregation distortion was restricted to just 10 markers, and thus the latter was chosen for map development. A set of 141 F 2 individuals was genotyped with 73 AFLP PCs (generating 406 informative markers), 32 SSRs, 4 tomato RFLPs, and 3 CAPS markers linked to Rfo-sa1. This resulted in the assignment of 348 markers to 12 major linkage groups. The framework map covered 718.7 cM, comprising 238 markers (212 AFLPs, 22 SSRs, 1 RFLP, and the Rfo-sa1 CAPS). Marker order and inter-marker distances in this eggplant map were largely consistent with those reported in a recently published SSR-based map. From an eggplant breeding perspective, DH populations produced by anther culture appear to be subject to massive segregation distortion and thus may not be very efficient in capturing the full range of genetic variation present in the parental lines. An anther-derived doubled haploid (DH) population and an F2 mapping population were developed from an intraspecific hybrid between the eggplant breeding lines 305E40 and 67/3. The former incorporates an introgressed segment from Solanum aethiopicum Gilo Group carrying the gene Rfo-sa1, which confers resistance to Fusarium oxysporum; the latter is a selection from an intraspecific cross involving two conventional eggplant varieties and lacks Rfo-sa1. Initially, 28 AFLP primer combinations (PCs) were applied to a sample of 93 F2 individuals and 93 DH individuals, from which 170 polymorphic AFLP fragments were identified. In the DH population, the segregation of 117 of these AFLPs as well as markers closely linked to Rfo-sa1 was substantially distorted, while in the F2 population, segregation distortion was restricted to just 10 markers, and thus the latter was chosen for map development. A set of 141 F2 individuals was genotyped with 73 AFLP PCs (generating 406 informative markers), 32 SSRs, 4 tomato RFLPs, and 3 CAPS markers linked to Rfo-sa1. This resulted in the assignment of 348 markers to 12 major linkage groups. The framework map covered 718.7 cM, comprising 238 markers (212 AFLPs, 22 SSRs, 1 RFLP, and the Rfo-sa1 CAPS). Marker order and inter-marker distances in this eggplant map were largely consistent with those reported in a recently published SSR-based map. From an eggplant breeding perspective, DH populations produced by anther culture appear to be subject to massive segregation distortion and thus may not be very efficient in capturing the full range of genetic variation present in the parental lines.An anther-derived doubled haploid (DH) population and an F2 mapping population were developed from an intraspecific hybrid between the eggplant breeding lines 305E40 and 67/3. The former incorporates an introgressed segment from Solanum aethiopicum Gilo Group carrying the gene Rfo-sa1, which confers resistance to Fusarium oxysporum; the latter is a selection from an intraspecific cross involving two conventional eggplant varieties and lacks Rfo-sa1. Initially, 28 AFLP primer combinations (PCs) were applied to a sample of 93 F2 individuals and 93 DH individuals, from which 170 polymorphic AFLP fragments were identified. In the DH population, the segregation of 117 of these AFLPs as well as markers closely linked to Rfo-sa1 was substantially distorted, while in the F2 population, segregation distortion was restricted to just 10 markers, and thus the latter was chosen for map development. A set of 141 F2 individuals was genotyped with 73 AFLP PCs (generating 406 informative markers), 32 SSRs, 4 tomato RFLPs, and 3 CAPS markers linked to Rfo-sa1. This resulted in the assignment of 348 markers to 12 major linkage groups. The framework map covered 718.7 cM, comprising 238 markers (212 AFLPs, 22 SSRs, 1 RFLP, and the Rfo-sa1 CAPS). Marker order and inter-marker distances in this eggplant map were largely consistent with those reported in a recently published SSR-based map. From an eggplant breeding perspective, DH populations produced by anther culture appear to be subject to massive segregation distortion and thus may not be very efficient in capturing the full range of genetic variation present in the parental lines. |
Abstract_FL | Une population d'haploïdes doublés (HD), obtenue par culture d'anthères, et une population F
2
ont été développées à partir d'un croisement intraspécifique entre deux lignées de sélectionneur (305E40 et 67/3) chez l'aubergine. La première contient un segment introgressé en provenance du Solanum aethiopicum Gilo Group, lequel comprend le gène Rfo-sa1 qui confère la résistance au Fusarium oxysporum. La seconde lignée est une sélection retenue au sein d'un croisement intraspécifique entre deux cultivars conventionnels d'aubergine qui étaient dépourvus du gène Rfo-sa1. Initialement, 28 combinaisons d'amorces AFLP ont été employées sur 93 individus F
2
et 93 HD pour identifier 170 amplicons AFLP polymorphes. Au sein de la population HD, la ségrégation de 117 de ces AFLP ainsi que tous les marqueurs fortement liés au gène Rfo-sa1 était significativement biaisée. Par contre, au sein de la population F
2
, le biais était limité à seulement 10 marqueurs ;; cette dernière population a donc été retenue pour le développement d'une carte. Une collection de 142 individus F
2
a été examinée avec 73 combinaisons d'amorces AFLP (générant 406 marqueurs), 32 SSR, quatre RFLP de tomate et trois marqueurs CAPS liés au gène Rfo-sa1. Cela a permis d'assigner 348 marqueurs à l'un de 12 groupes de liaison majeurs. La carte cadre s'étend sur 718,7 cM, compte 238 marqueurs (212 AFLP, 22 SSR, un RFLP et les marqueurs CAPS liés à Rfo-sa1). L'ordre des marqueurs et les distances qui les séparent dans cette carte de l'aubergine étaient largement conformes à ce qui a été rapporté récemment pour une carte fondée sur des SSR. Dans une perspective d'amélioration génétique, les populations HD produites par culture d'anthères semblent sujettes à des biais de ségrégation massifs et ainsi ne seraient pas très efficaces pour capture la gamme complète de variation génétique présente chez les lignées parentales. |
Audience | Academic |
Author | Stàgel, Anikò Barchi, Lorenzo Lanteri, Sergio Toppino, Laura Rotino, Giuseppe Leonardo Valè, Giampiero Portis, Ezio |
Author_xml | – sequence: 1 givenname: Lorenzo surname: Barchi fullname: Barchi, Lorenzo organization: University of Turin, Department of Exploitation and Protection of the Agricultural and Forestry Resources (Di.Va.P.R.A.), Plant Genetics and Breeding, Via Leonardo da Vinci 44, 10095 Grugliasco (TO), Italy – sequence: 2 givenname: Sergio surname: Lanteri fullname: Lanteri, Sergio email: sergio.lanteri@unito.it organization: University of Turin, Department of Exploitation and Protection of the Agricultural and Forestry Resources (Di.Va.P.R.A.), Plant Genetics and Breeding, Via Leonardo da Vinci 44, 10095 Grugliasco (TO), Italy – sequence: 3 givenname: Ezio surname: Portis fullname: Portis, Ezio organization: University of Turin, Department of Exploitation and Protection of the Agricultural and Forestry Resources (Di.Va.P.R.A.), Plant Genetics and Breeding, Via Leonardo da Vinci 44, 10095 Grugliasco (TO), Italy – sequence: 4 givenname: Anikò surname: Stàgel fullname: Stàgel, Anikò organization: University of Turin, Department of Exploitation and Protection of the Agricultural and Forestry Resources (Di.Va.P.R.A.), Plant Genetics and Breeding, Via Leonardo da Vinci 44, 10095 Grugliasco (TO), Italy – sequence: 5 givenname: Giampiero surname: Valè fullname: Valè, Giampiero organization: Agricultural Research Council, Genomics Research Centre (CRA-GPG), Via S. Protaso 302, 29017 Fiorenzuola d'Arda (PC), Italy – sequence: 6 givenname: Laura surname: Toppino fullname: Toppino, Laura organization: Agricultural Research Council, Research Unit for Vegetable Crops (CRA-ORL), Via Paullese 28, 26836 Montanaso Lombardo (LO), Italy – sequence: 7 givenname: Giuseppe Leonardo surname: Rotino fullname: Rotino, Giuseppe Leonardo organization: Agricultural Research Council, Research Unit for Vegetable Crops (CRA-ORL), Via Paullese 28, 26836 Montanaso Lombardo (LO), Italy |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/20962887$$D View this record in MEDLINE/PubMed |
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Snippet | An anther-derived doubled haploid (DH) population and an F
2
mapping population were developed from an intraspecific hybrid between the eggplant breeding lines... An anther-derived doubled haploid (DH) population and an F2 mapping population were developed from an intraspecific hybrid between the eggplant breeding lines... An anther-derived doubled haploid (DH) population and an [F.sub.2] mapping population were developed from an intraspecific hybrid between the eggplant breeding... An anther-derived doubled haploid (DH) population and an F sub(2) mapping population were developed from an intraspecific hybrid between the eggplant breeding... |
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SubjectTerms | aubergine Chromosome Mapping Chromosome Segregation - genetics Chromosomes, Plant - genetics Crosses, Genetic Eggplant Fusarium Fusarium oxysporum Fusarium oxysporum f. sp. melongenae Genetic aspects Genetic diversity Genetic Linkage Genetic Markers - physiology Genetic variation Genomics Genotype Genotype & phenotype Lycopersicon esculentum marqueurs moléculaires molecular markers Molecular structure Plant breeding Polymorphism Quantitative Trait Loci Sequence Alignment Solanum Solanum melongena Solanum melongena - genetics Tomatoes Vegetables |
Title | Segregation distortion and linkage analysis in eggplant (Solanum melongena L.) |
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