Generation of aroma in three‐line hybrid rice through CRISPR/Cas9 editing of BETAINE ALDEHYDE DEHYDROGENASE2 (OsBADH2)

Aroma or fragrance in rice is a genetically controlled trait; Its high appreciation by consumers increases the rice market price. Previous studies have revealed that the rice aroma is controlled by a specific gene called BETAINE ALDEHYDE DEHYDROGENASE (OsBADH2), and mutation of this gene leads to th...

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Veröffentlicht in:Physiologia plantarum 2024-01, Vol.176 (1), p.e14206-n/a
Hauptverfasser: Liao, Yongxiang, Li, Mengyuan, Wu, Hezhou, Liao, Yingxiu, Xin, Jialu, Yuan, Xinmiao, Li, Yong, Wei, Aiji, Zou, Xuemei, Guo, Daiming, Xue, Zhenzhen, Zhu, Guoxu, Wang, Zhaoning, Xu, Peizhou, Zhang, Hongyu, Chen, Xiaoqiong, Du, Kangxi, Zhou, Hao, Xia, Duo, Ali, Asif, Wu, Xianjun
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container_issue 1
container_start_page e14206
container_title Physiologia plantarum
container_volume 176
creator Liao, Yongxiang
Li, Mengyuan
Wu, Hezhou
Liao, Yingxiu
Xin, Jialu
Yuan, Xinmiao
Li, Yong
Wei, Aiji
Zou, Xuemei
Guo, Daiming
Xue, Zhenzhen
Zhu, Guoxu
Wang, Zhaoning
Xu, Peizhou
Zhang, Hongyu
Chen, Xiaoqiong
Du, Kangxi
Zhou, Hao
Xia, Duo
Ali, Asif
Wu, Xianjun
description Aroma or fragrance in rice is a genetically controlled trait; Its high appreciation by consumers increases the rice market price. Previous studies have revealed that the rice aroma is controlled by a specific gene called BETAINE ALDEHYDE DEHYDROGENASE (OsBADH2), and mutation of this gene leads to the accumulation of an aromatic substance 2‐acetyl‐1‐pyrroline (2‐AP). The use of genetic engineering to produce aroma in commercial and cultivated hybrids is a contemporary need for molecular breeding. The current study reports the generation of aroma in the three‐line hybrid restorer line Shu‐Hui‐313 (SH313). We created knock‐out (KO) lines of OsBADH2 through the CRISPR/Cas9. The analysis of KO lines revealed a significantly increased content of 2AP in the grains compared with the control. However, other phenotypic traits (plant height, seed setting rate, and 1000‐grain weight) were significantly decreased. These KO lines were crossed with a non‐aromatic three‐line hybrid rice male sterile line (Rong‐7‐A) to produce Rong‐7‐You‐626 (R7Y626), R7Y627 and R7Y628. The measurement of 2‐AP revealed significantly increased contents in these cross combinations. We compared the content of 2‐AP in tissues at the booting stage. Data revealed that young spike stalk base contained the highest content of 2‐AP and can be used for identification (by simple chewing) of aromatic lines under field conditions. In conclusion, our dataset offers a genetic source and illustrates the generation of aroma in non‐aromatic hybrids, and outlines a straightforward identification under field conditions.
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Previous studies have revealed that the rice aroma is controlled by a specific gene called BETAINE ALDEHYDE DEHYDROGENASE (OsBADH2), and mutation of this gene leads to the accumulation of an aromatic substance 2‐acetyl‐1‐pyrroline (2‐AP). The use of genetic engineering to produce aroma in commercial and cultivated hybrids is a contemporary need for molecular breeding. The current study reports the generation of aroma in the three‐line hybrid restorer line Shu‐Hui‐313 (SH313). We created knock‐out (KO) lines of OsBADH2 through the CRISPR/Cas9. The analysis of KO lines revealed a significantly increased content of 2AP in the grains compared with the control. However, other phenotypic traits (plant height, seed setting rate, and 1000‐grain weight) were significantly decreased. These KO lines were crossed with a non‐aromatic three‐line hybrid rice male sterile line (Rong‐7‐A) to produce Rong‐7‐You‐626 (R7Y626), R7Y627 and R7Y628. The measurement of 2‐AP revealed significantly increased contents in these cross combinations. We compared the content of 2‐AP in tissues at the booting stage. Data revealed that young spike stalk base contained the highest content of 2‐AP and can be used for identification (by simple chewing) of aromatic lines under field conditions. 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Previous studies have revealed that the rice aroma is controlled by a specific gene called BETAINE ALDEHYDE DEHYDROGENASE (OsBADH2), and mutation of this gene leads to the accumulation of an aromatic substance 2‐acetyl‐1‐pyrroline (2‐AP). The use of genetic engineering to produce aroma in commercial and cultivated hybrids is a contemporary need for molecular breeding. The current study reports the generation of aroma in the three‐line hybrid restorer line Shu‐Hui‐313 (SH313). We created knock‐out (KO) lines of OsBADH2 through the CRISPR/Cas9. The analysis of KO lines revealed a significantly increased content of 2AP in the grains compared with the control. However, other phenotypic traits (plant height, seed setting rate, and 1000‐grain weight) were significantly decreased. These KO lines were crossed with a non‐aromatic three‐line hybrid rice male sterile line (Rong‐7‐A) to produce Rong‐7‐You‐626 (R7Y626), R7Y627 and R7Y628. The measurement of 2‐AP revealed significantly increased contents in these cross combinations. We compared the content of 2‐AP in tissues at the booting stage. Data revealed that young spike stalk base contained the highest content of 2‐AP and can be used for identification (by simple chewing) of aromatic lines under field conditions. 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Its high appreciation by consumers increases the rice market price. Previous studies have revealed that the rice aroma is controlled by a specific gene called BETAINE ALDEHYDE DEHYDROGENASE (OsBADH2), and mutation of this gene leads to the accumulation of an aromatic substance 2‐acetyl‐1‐pyrroline (2‐AP). The use of genetic engineering to produce aroma in commercial and cultivated hybrids is a contemporary need for molecular breeding. The current study reports the generation of aroma in the three‐line hybrid restorer line Shu‐Hui‐313 (SH313). We created knock‐out (KO) lines of OsBADH2 through the CRISPR/Cas9. The analysis of KO lines revealed a significantly increased content of 2AP in the grains compared with the control. However, other phenotypic traits (plant height, seed setting rate, and 1000‐grain weight) were significantly decreased. These KO lines were crossed with a non‐aromatic three‐line hybrid rice male sterile line (Rong‐7‐A) to produce Rong‐7‐You‐626 (R7Y626), R7Y627 and R7Y628. The measurement of 2‐AP revealed significantly increased contents in these cross combinations. We compared the content of 2‐AP in tissues at the booting stage. Data revealed that young spike stalk base contained the highest content of 2‐AP and can be used for identification (by simple chewing) of aromatic lines under field conditions. In conclusion, our dataset offers a genetic source and illustrates the generation of aroma in non‐aromatic hybrids, and outlines a straightforward identification under field conditions.</abstract><cop>Oxford, UK</cop><pub>Blackwell Publishing Ltd</pub><pmid>38356346</pmid><doi>10.1111/ppl.14206</doi><tpages>10</tpages><orcidid>https://orcid.org/0000-0001-7688-148X</orcidid></addata></record>
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source MEDLINE; Wiley Online Library Journals Frontfile Complete
subjects Aldehyde dehydrogenase
Aldehydes
Aroma
Betaine
Betaine - analogs & derivatives
betaine-aldehyde dehydrogenase
CRISPR
CRISPR-Cas systems
CRISPR-Cas Systems - genetics
data collection
genes
Genes, Plant
Genetic engineering
Hybrids
males
market prices
mutation
Odorants
odors
Oryza - genetics
phenotype
plant height
Rice
title Generation of aroma in three‐line hybrid rice through CRISPR/Cas9 editing of BETAINE ALDEHYDE DEHYDROGENASE2 (OsBADH2)
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