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Overcoming Cabbage Crossing Incompatibility by the Development and Application of Self-Compatibility-QTL- Specific Markers and Genome-Wide Background Analysis

Cabbage hybrids, which clearly present heterosis vigor, are widely used in agricultural production. We compared two S5 haplotype (Class II) cabbage inbred-lines 87–534 and 94–182: the former is highly SC while the latter is highly SI; sequence analysis of SI-related genes including SCR, SRK, ARC1, T...

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Autores principales: Xiao, Zhiliang, Han, Fengqing, Hu, Yang, Xue, Yuqian, Fang, Zhiyuan, Yang, Limei, Zhang, Yangyong, Liu, Yumei, Li, Zhansheng, Wang, Yong, Zhuang, Mu, Lv, Honghao
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Frontiers Media S.A. 2019
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6399166/
https://www.ncbi.nlm.nih.gov/pubmed/30863418
http://dx.doi.org/10.3389/fpls.2019.00189
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author Xiao, Zhiliang
Han, Fengqing
Hu, Yang
Xue, Yuqian
Fang, Zhiyuan
Yang, Limei
Zhang, Yangyong
Liu, Yumei
Li, Zhansheng
Wang, Yong
Zhuang, Mu
Lv, Honghao
author_facet Xiao, Zhiliang
Han, Fengqing
Hu, Yang
Xue, Yuqian
Fang, Zhiyuan
Yang, Limei
Zhang, Yangyong
Liu, Yumei
Li, Zhansheng
Wang, Yong
Zhuang, Mu
Lv, Honghao
author_sort Xiao, Zhiliang
collection PubMed
description Cabbage hybrids, which clearly present heterosis vigor, are widely used in agricultural production. We compared two S5 haplotype (Class II) cabbage inbred-lines 87–534 and 94–182: the former is highly SC while the latter is highly SI; sequence analysis of SI-related genes including SCR, SRK, ARC1, THL1, and MLPK indicates the some SNPs in ARC1 and SRK of 87–534; semi-quantitative analysis indicated that the SI-related genes were transcribed normally from DNA to mRNA. To unravel the genetic basis of SC, we performed whole-genome mapping of the quantitative trait loci (QTLs) governing self-compatibility using an F(2) population derived from 87–534 × 96–100. Eight QTLs were detected, and high contribution rates (CRs) were observed for three QTLs: qSC7.2 (54.8%), qSC9.1 (14.1%) and qSC5.1 (11.2%). 06–88 (CB201 × 96–100) yielded an excellent hybrid. However, F(1) seeds cannot be produced at the anthesis stage because the parents share the same S-haplotype (S57, class I). To overcome crossing incompatibility, we performed rapid introgression of the self-compatibility trait from 87–534 to 96–100 using two self-compatibility-QTL-specific markers, BoID0709 and BoID0992, as well as 36 genome-wide markers that were evenly distributed along nine chromosomes for background analysis in recurrent back-crossing (BC). The transfer process showed that the proportion of recurrent parent genome (PRPG) in BC(4)F(1) was greater than 94%, and the ratio of individual SC plants in BC(4)F(1) reached 100%. The newly created line, which was designated SC96–100 and exhibited both agronomic traits that were similar to those of 96–100 and a compatibility index (CI) greater than 5.0, was successfully used in the production of the commercial hybrid 06–88. The study herein provides new insight into the genetic basis of self-compatibility in cabbage and facilitates cabbage breeding using SC lines in the male-sterile (MS) system.
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spelling pubmed-63991662019-03-12 Overcoming Cabbage Crossing Incompatibility by the Development and Application of Self-Compatibility-QTL- Specific Markers and Genome-Wide Background Analysis Xiao, Zhiliang Han, Fengqing Hu, Yang Xue, Yuqian Fang, Zhiyuan Yang, Limei Zhang, Yangyong Liu, Yumei Li, Zhansheng Wang, Yong Zhuang, Mu Lv, Honghao Front Plant Sci Plant Science Cabbage hybrids, which clearly present heterosis vigor, are widely used in agricultural production. We compared two S5 haplotype (Class II) cabbage inbred-lines 87–534 and 94–182: the former is highly SC while the latter is highly SI; sequence analysis of SI-related genes including SCR, SRK, ARC1, THL1, and MLPK indicates the some SNPs in ARC1 and SRK of 87–534; semi-quantitative analysis indicated that the SI-related genes were transcribed normally from DNA to mRNA. To unravel the genetic basis of SC, we performed whole-genome mapping of the quantitative trait loci (QTLs) governing self-compatibility using an F(2) population derived from 87–534 × 96–100. Eight QTLs were detected, and high contribution rates (CRs) were observed for three QTLs: qSC7.2 (54.8%), qSC9.1 (14.1%) and qSC5.1 (11.2%). 06–88 (CB201 × 96–100) yielded an excellent hybrid. However, F(1) seeds cannot be produced at the anthesis stage because the parents share the same S-haplotype (S57, class I). To overcome crossing incompatibility, we performed rapid introgression of the self-compatibility trait from 87–534 to 96–100 using two self-compatibility-QTL-specific markers, BoID0709 and BoID0992, as well as 36 genome-wide markers that were evenly distributed along nine chromosomes for background analysis in recurrent back-crossing (BC). The transfer process showed that the proportion of recurrent parent genome (PRPG) in BC(4)F(1) was greater than 94%, and the ratio of individual SC plants in BC(4)F(1) reached 100%. The newly created line, which was designated SC96–100 and exhibited both agronomic traits that were similar to those of 96–100 and a compatibility index (CI) greater than 5.0, was successfully used in the production of the commercial hybrid 06–88. The study herein provides new insight into the genetic basis of self-compatibility in cabbage and facilitates cabbage breeding using SC lines in the male-sterile (MS) system. Frontiers Media S.A. 2019-02-26 /pmc/articles/PMC6399166/ /pubmed/30863418 http://dx.doi.org/10.3389/fpls.2019.00189 Text en Copyright © 2019 Xiao, Han, Hu, Xue, Fang, Yang, Zhang, Liu, Li, Wang, Zhuang and Lv. http://creativecommons.org/licenses/by/4.0/ This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
spellingShingle Plant Science
Xiao, Zhiliang
Han, Fengqing
Hu, Yang
Xue, Yuqian
Fang, Zhiyuan
Yang, Limei
Zhang, Yangyong
Liu, Yumei
Li, Zhansheng
Wang, Yong
Zhuang, Mu
Lv, Honghao
Overcoming Cabbage Crossing Incompatibility by the Development and Application of Self-Compatibility-QTL- Specific Markers and Genome-Wide Background Analysis
title Overcoming Cabbage Crossing Incompatibility by the Development and Application of Self-Compatibility-QTL- Specific Markers and Genome-Wide Background Analysis
title_full Overcoming Cabbage Crossing Incompatibility by the Development and Application of Self-Compatibility-QTL- Specific Markers and Genome-Wide Background Analysis
title_fullStr Overcoming Cabbage Crossing Incompatibility by the Development and Application of Self-Compatibility-QTL- Specific Markers and Genome-Wide Background Analysis
title_full_unstemmed Overcoming Cabbage Crossing Incompatibility by the Development and Application of Self-Compatibility-QTL- Specific Markers and Genome-Wide Background Analysis
title_short Overcoming Cabbage Crossing Incompatibility by the Development and Application of Self-Compatibility-QTL- Specific Markers and Genome-Wide Background Analysis
title_sort overcoming cabbage crossing incompatibility by the development and application of self-compatibility-qtl- specific markers and genome-wide background analysis
topic Plant Science
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6399166/
https://www.ncbi.nlm.nih.gov/pubmed/30863418
http://dx.doi.org/10.3389/fpls.2019.00189
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