A two-locus interaction causes interspecific hybrid weakness in rice

Reproductive barriers perform a vital role during speciation. Hybrid weakness, the poorer development of hybrids compared with their parents, hinders gene exchange between different species at the postzygotic stage. Here we show that two incompatible dominant loci ( Hwi1 and Hwi2 ) involving three g...

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Veröffentlicht in:Nature communications 2014-02, Vol.5 (1), p.3357-3357, Article 3357
Hauptverfasser: Chen, Chen, Chen, Hao, Lin, You-Shun, Shen, Jin-Bo, Shan, Jun-Xiang, Qi, Peng, Shi, Min, Zhu, Mei-Zhen, Huang, Xue-Hui, Feng, Qi, Han, Bin, Jiang, Liwen, Gao, Ji-Ping, Lin, Hong-Xuan
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container_title Nature communications
container_volume 5
creator Chen, Chen
Chen, Hao
Lin, You-Shun
Shen, Jin-Bo
Shan, Jun-Xiang
Qi, Peng
Shi, Min
Zhu, Mei-Zhen
Huang, Xue-Hui
Feng, Qi
Han, Bin
Jiang, Liwen
Gao, Ji-Ping
Lin, Hong-Xuan
description Reproductive barriers perform a vital role during speciation. Hybrid weakness, the poorer development of hybrids compared with their parents, hinders gene exchange between different species at the postzygotic stage. Here we show that two incompatible dominant loci ( Hwi1 and Hwi2 ) involving three genes are likely to determine the high temperature-dependent expression of hybrid weakness in interspecific hybrids of rice. Hwi1 comprises two leucine-rich repeat receptor-like kinase (LRR–RLK) genes, 25L1 and 25L2 , which are specific to wild rice ( Oryza rufipogon ) and induce hybrid weakness. Hwi2, a rare allele that is predominantly distributed in indica rice ( Oryza sativa ), encodes a secreted putative subtilisin-like protease. Functional analysis indicated that pyramiding of Hwi1 and Hwi2 activates the autoimmune response in the basal nodes of hybrids, interrupting root formation and then impairing shoot growth. These findings bring new insights into our understanding of reproductive isolation and may benefit rice breeding. Hybrids often show poorer performance than their parents due to conflict between parental genes, but the underlying mechanisms are not well understood. Here, Chen et al . identify three genes that activate immune responses and hinder hybrids growth in rice, a finding that may help rice breeding.
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Hybrid weakness, the poorer development of hybrids compared with their parents, hinders gene exchange between different species at the postzygotic stage. Here we show that two incompatible dominant loci ( Hwi1 and Hwi2 ) involving three genes are likely to determine the high temperature-dependent expression of hybrid weakness in interspecific hybrids of rice. Hwi1 comprises two leucine-rich repeat receptor-like kinase (LRR–RLK) genes, 25L1 and 25L2 , which are specific to wild rice ( Oryza rufipogon ) and induce hybrid weakness. Hwi2, a rare allele that is predominantly distributed in indica rice ( Oryza sativa ), encodes a secreted putative subtilisin-like protease. Functional analysis indicated that pyramiding of Hwi1 and Hwi2 activates the autoimmune response in the basal nodes of hybrids, interrupting root formation and then impairing shoot growth. These findings bring new insights into our understanding of reproductive isolation and may benefit rice breeding. 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Hybrid weakness, the poorer development of hybrids compared with their parents, hinders gene exchange between different species at the postzygotic stage. Here we show that two incompatible dominant loci ( Hwi1 and Hwi2 ) involving three genes are likely to determine the high temperature-dependent expression of hybrid weakness in interspecific hybrids of rice. Hwi1 comprises two leucine-rich repeat receptor-like kinase (LRR–RLK) genes, 25L1 and 25L2 , which are specific to wild rice ( Oryza rufipogon ) and induce hybrid weakness. Hwi2, a rare allele that is predominantly distributed in indica rice ( Oryza sativa ), encodes a secreted putative subtilisin-like protease. Functional analysis indicated that pyramiding of Hwi1 and Hwi2 activates the autoimmune response in the basal nodes of hybrids, interrupting root formation and then impairing shoot growth. These findings bring new insights into our understanding of reproductive isolation and may benefit rice breeding. 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Hybrid weakness, the poorer development of hybrids compared with their parents, hinders gene exchange between different species at the postzygotic stage. Here we show that two incompatible dominant loci ( Hwi1 and Hwi2 ) involving three genes are likely to determine the high temperature-dependent expression of hybrid weakness in interspecific hybrids of rice. Hwi1 comprises two leucine-rich repeat receptor-like kinase (LRR–RLK) genes, 25L1 and 25L2 , which are specific to wild rice ( Oryza rufipogon ) and induce hybrid weakness. Hwi2, a rare allele that is predominantly distributed in indica rice ( Oryza sativa ), encodes a secreted putative subtilisin-like protease. Functional analysis indicated that pyramiding of Hwi1 and Hwi2 activates the autoimmune response in the basal nodes of hybrids, interrupting root formation and then impairing shoot growth. These findings bring new insights into our understanding of reproductive isolation and may benefit rice breeding. 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subjects 631/181/759
631/208/2491
Breeding
Humanities and Social Sciences
Hybridization, Genetic - genetics
Hybridization, Genetic - physiology
multidisciplinary
Oryza - genetics
Oryza - metabolism
Oryza - physiology
Plant Proteins - genetics
Plant Proteins - metabolism
Science
Science (multidisciplinary)
title A two-locus interaction causes interspecific hybrid weakness in rice
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