Cargando…

A novel strategy for creating a new system of third‐generation hybrid rice technology using a cytoplasmic sterility gene and a genic male‐sterile gene

Heterosis utilization is the most effective way to improve rice yields. The cytoplasmic male‐sterility (CMS) and photoperiod/thermosensitive genic male‐sterility (PTGMS) systems have been widely used in rice production. However, the rate of resource utilization for the CMS system hybrid rice is low,...

Descripción completa

Detalles Bibliográficos
Autores principales: Song, Shufeng, Wang, Tiankang, Li, Yixing, Hu, Jun, Kan, Ruifeng, Qiu, Mudan, Deng, Yingde, Liu, Peixun, Zhang, Licheng, Dong, Hao, Li, Chengxia, Yu, Dong, Li, Xinqi, Yuan, Dingyang, Yuan, Longping, Li, Li
Formato: Online Artículo Texto
Lenguaje:English
Publicado: John Wiley and Sons Inc. 2020
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7868973/
https://www.ncbi.nlm.nih.gov/pubmed/32741081
http://dx.doi.org/10.1111/pbi.13457
_version_ 1783648547049046016
author Song, Shufeng
Wang, Tiankang
Li, Yixing
Hu, Jun
Kan, Ruifeng
Qiu, Mudan
Deng, Yingde
Liu, Peixun
Zhang, Licheng
Dong, Hao
Li, Chengxia
Yu, Dong
Li, Xinqi
Yuan, Dingyang
Yuan, Longping
Li, Li
author_facet Song, Shufeng
Wang, Tiankang
Li, Yixing
Hu, Jun
Kan, Ruifeng
Qiu, Mudan
Deng, Yingde
Liu, Peixun
Zhang, Licheng
Dong, Hao
Li, Chengxia
Yu, Dong
Li, Xinqi
Yuan, Dingyang
Yuan, Longping
Li, Li
author_sort Song, Shufeng
collection PubMed
description Heterosis utilization is the most effective way to improve rice yields. The cytoplasmic male‐sterility (CMS) and photoperiod/thermosensitive genic male‐sterility (PTGMS) systems have been widely used in rice production. However, the rate of resource utilization for the CMS system hybrid rice is low, and the hybrid seed production for the PTGMS system is affected by the environment. The technical limitations of these two breeding methods restrict the rapid development of hybrid rice. The advantages of the genic male‐sterility (GMS) rice, such as stable sterility and free combination, can fill the gaps of the first two generations of hybrid rice technology. At present, the third‐generation hybrid rice breeding technology is being used to realize the application of GMS materials in hybrid rice. This study aimed to use an artificial CMS gene as a pollen killer to create a smart sterile line for hybrid rice production. The clustered regularly interspaced short palindromic repeats/CRISPR‐associated 9 (CRISPR/Cas9) technology was used to successfully obtain a CYP703A3‐deficient male‐sterile mutant containing no genetically modified component in the genetic background of indica 9311. Through young ear callus transformation, this mutant was transformed with three sets of element‐linked expression vectors, including pollen fertility restoration gene CYP703A3, pollen‐lethality gene orfH79 and selection marker gene DsRed2. The maintainer 9311‐3B with stable inheritance was obtained, which could realize the batch breeding of GMS materials. Further, the sterile line 9311‐3A and restorer lines were used for hybridization, and a batch of superior combinations of hybrid rice was obtained.
format Online
Article
Text
id pubmed-7868973
institution National Center for Biotechnology Information
language English
publishDate 2020
publisher John Wiley and Sons Inc.
record_format MEDLINE/PubMed
spelling pubmed-78689732021-02-17 A novel strategy for creating a new system of third‐generation hybrid rice technology using a cytoplasmic sterility gene and a genic male‐sterile gene Song, Shufeng Wang, Tiankang Li, Yixing Hu, Jun Kan, Ruifeng Qiu, Mudan Deng, Yingde Liu, Peixun Zhang, Licheng Dong, Hao Li, Chengxia Yu, Dong Li, Xinqi Yuan, Dingyang Yuan, Longping Li, Li Plant Biotechnol J Research Articles Heterosis utilization is the most effective way to improve rice yields. The cytoplasmic male‐sterility (CMS) and photoperiod/thermosensitive genic male‐sterility (PTGMS) systems have been widely used in rice production. However, the rate of resource utilization for the CMS system hybrid rice is low, and the hybrid seed production for the PTGMS system is affected by the environment. The technical limitations of these two breeding methods restrict the rapid development of hybrid rice. The advantages of the genic male‐sterility (GMS) rice, such as stable sterility and free combination, can fill the gaps of the first two generations of hybrid rice technology. At present, the third‐generation hybrid rice breeding technology is being used to realize the application of GMS materials in hybrid rice. This study aimed to use an artificial CMS gene as a pollen killer to create a smart sterile line for hybrid rice production. The clustered regularly interspaced short palindromic repeats/CRISPR‐associated 9 (CRISPR/Cas9) technology was used to successfully obtain a CYP703A3‐deficient male‐sterile mutant containing no genetically modified component in the genetic background of indica 9311. Through young ear callus transformation, this mutant was transformed with three sets of element‐linked expression vectors, including pollen fertility restoration gene CYP703A3, pollen‐lethality gene orfH79 and selection marker gene DsRed2. The maintainer 9311‐3B with stable inheritance was obtained, which could realize the batch breeding of GMS materials. Further, the sterile line 9311‐3A and restorer lines were used for hybridization, and a batch of superior combinations of hybrid rice was obtained. John Wiley and Sons Inc. 2020-08-27 2021-02 /pmc/articles/PMC7868973/ /pubmed/32741081 http://dx.doi.org/10.1111/pbi.13457 Text en © 2020 The Authors. Plant Biotechnology Journal published by Society for Experimental Biology and The Association of Applied Biologists and John Wiley & Sons Ltd. This is an open access article under the terms of the http://creativecommons.org/licenses/by/4.0/ License, which permits use, distribution and reproduction in any medium, provided the original work is properly cited.
spellingShingle Research Articles
Song, Shufeng
Wang, Tiankang
Li, Yixing
Hu, Jun
Kan, Ruifeng
Qiu, Mudan
Deng, Yingde
Liu, Peixun
Zhang, Licheng
Dong, Hao
Li, Chengxia
Yu, Dong
Li, Xinqi
Yuan, Dingyang
Yuan, Longping
Li, Li
A novel strategy for creating a new system of third‐generation hybrid rice technology using a cytoplasmic sterility gene and a genic male‐sterile gene
title A novel strategy for creating a new system of third‐generation hybrid rice technology using a cytoplasmic sterility gene and a genic male‐sterile gene
title_full A novel strategy for creating a new system of third‐generation hybrid rice technology using a cytoplasmic sterility gene and a genic male‐sterile gene
title_fullStr A novel strategy for creating a new system of third‐generation hybrid rice technology using a cytoplasmic sterility gene and a genic male‐sterile gene
title_full_unstemmed A novel strategy for creating a new system of third‐generation hybrid rice technology using a cytoplasmic sterility gene and a genic male‐sterile gene
title_short A novel strategy for creating a new system of third‐generation hybrid rice technology using a cytoplasmic sterility gene and a genic male‐sterile gene
title_sort novel strategy for creating a new system of third‐generation hybrid rice technology using a cytoplasmic sterility gene and a genic male‐sterile gene
topic Research Articles
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7868973/
https://www.ncbi.nlm.nih.gov/pubmed/32741081
http://dx.doi.org/10.1111/pbi.13457
work_keys_str_mv AT songshufeng anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT wangtiankang anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT liyixing anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT hujun anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT kanruifeng anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT qiumudan anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT dengyingde anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT liupeixun anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT zhanglicheng anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT donghao anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT lichengxia anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT yudong anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT lixinqi anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT yuandingyang anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT yuanlongping anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT lili anovelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT songshufeng novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT wangtiankang novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT liyixing novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT hujun novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT kanruifeng novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT qiumudan novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT dengyingde novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT liupeixun novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT zhanglicheng novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT donghao novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT lichengxia novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT yudong novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT lixinqi novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT yuandingyang novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT yuanlongping novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene
AT lili novelstrategyforcreatinganewsystemofthirdgenerationhybridricetechnologyusingacytoplasmicsterilitygeneandagenicmalesterilegene