OsHAC4 is critical for arsenate tolerance and regulates arsenic accumulation in rice

Soil contamination with arsenic (As) can cause phytotoxicity and elevated As accumulation in rice grain. Here, we used a forward genetics approach to investigate the mechanism of arsenate (As(V)) tolerance and accumulation in rice. A rice mutant hypersensitive to As(V), but not to As(III), was isola...

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Published inThe New phytologist Vol. 215; no. 3; pp. 1090 - 1101
Main Authors Xu, Jiming, Shi, Shulin, Wang, Lei, Tang, Zhong, Lv, Tingting, Zhu, Xinlu, Ding, Xiaomeng, Wang, Yifeng, Zhao, Fang‐Jie, Wu, Zhongchang
Format Journal Article
LanguageEnglish
Published England New Phytologist Trust 01.08.2017
Wiley Subscription Services, Inc
Subjects
Accumulation
Adaptation, Physiological - drug effects
arsenate
arsenate reductase
Arsenate Reductases - metabolism
Arsenates
Arsenates - toxicity
Arsenic
arsenic (As)
Arsenic - metabolism
arsenic accumulation
arsenite
Base Sequence
Cloning, Molecular
Complementation
Contamination
Cytoplasm
Detoxification
E coli
Efflux
enzyme activity
Epidermis
epidermis (plant)
Escherichia coli
Gene expression
Gene Expression Regulation, Plant
genes
Genetic Complementation Test
Genetics
Grain
Localization
mutants
Mutation
Mutation - genetics
Nuclei
Nucleus
Oryza - genetics
Oryza - metabolism
Phenotype
Phenotypes
Phytotoxicity
Plant Proteins - metabolism
Plant Roots - metabolism
Plant Shoots - metabolism
Pollution
Protein Transport
Proteins
Reductase
Rice
rice (Oryza sativa)
Roots
Shoots
Skin
Soil
Soil contamination
Soil pollution
Subcellular Fractions - metabolism
Tests
Time Factors
Transgenic plants
Xylem - metabolism
arsenic (As)
arsenic accumulation
rice (Oryza sativa)
arsenite
arsenate reductase
detoxification
arsenate
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Abstract Soil contamination with arsenic (As) can cause phytotoxicity and elevated As accumulation in rice grain. Here, we used a forward genetics approach to investigate the mechanism of arsenate (As(V)) tolerance and accumulation in rice. A rice mutant hypersensitive to As(V), but not to As(III), was isolated. Genomic resequencing and complementation tests were used to identify the causal gene. The function of the gene, its expression pattern and subcellular localization were characterized. OsHAC4 is the causal gene for the As(V)-hypersensitive phenotype. The gene encodes a rhodanase-like protein that shows As(V) reductase activity when expressed in Escherichia coli. OsHAC4 was highly expressed in roots and was induced by As(V). In OsHAC4pro-GUS transgenic plants, the gene was expressed exclusively in the root epidermis and exodermis. OsHAC4-eGFP was localized in the cytoplasm and the nucleus. Mutation in OsHAC4 resulted in decreased As(V) reduction in roots, decreased As(III) efflux to the external medium and markedly increased As accumulation in rice shoots. Overexpression of OsHAC4 increased As (V) tolerance and decreased As accumulation in rice plants. OsHAC4 is an As(V) reductase that is critical for As(V) detoxification and for the control of As accumulation in rice. As(V) reduction, followed by As(III) efflux, is an important mechanism of As(V) detoxification.
AbstractList Soil contamination with arsenic (As) can cause phytotoxicity and elevated As accumulation in rice grain. Here, we used a forward genetics approach to investigate the mechanism of arsenate (As(V)) tolerance and accumulation in rice. A rice mutant hypersensitive to As(V), but not to As(III), was isolated. Genomic resequencing and complementation tests were used to identify the causal gene. The function of the gene, its expression pattern and subcellular localization were characterized. OsHAC4 is the causal gene for the As(V)-hypersensitive phenotype. The gene encodes a rhodanase-like protein that shows As(V) reductase activity when expressed in Escherichia coli. OsHAC4 was highly expressed in roots and was induced by As(V). In OsHAC4pro-GUS transgenic plants, the gene was expressed exclusively in the root epidermis and exodermis. OsHAC4-eGFP was localized in the cytoplasm and the nucleus. Mutation in OsHAC4 resulted in decreased As(V) reduction in roots, decreased As(III) efflux to the external medium and markedly increased As accumulation in rice shoots. Overexpression of OsHAC4 increased As(V) tolerance and decreased As accumulation in rice plants. OsHAC4 is an As(V) reductase that is critical for As(V) detoxification and for the control of As accumulation in rice. As(V) reduction, followed by As(III) efflux, is an important mechanism of As(V) detoxification.
Summary Soil contamination with arsenic (As) can cause phytotoxicity and elevated As accumulation in rice grain. Here, we used a forward genetics approach to investigate the mechanism of arsenate (As(V)) tolerance and accumulation in rice. A rice mutant hypersensitive to As(V), but not to As(III), was isolated. Genomic resequencing and complementation tests were used to identify the causal gene. The function of the gene, its expression pattern and subcellular localization were characterized. OsHAC4 is the causal gene for the As(V)‐hypersensitive phenotype. The gene encodes a rhodanase‐like protein that shows As(V) reductase activity when expressed in Escherichia coli. OsHAC4 was highly expressed in roots and was induced by As(V). In OsHAC4pro‐GUS transgenic plants, the gene was expressed exclusively in the root epidermis and exodermis. OsHAC4‐eGFP was localized in the cytoplasm and the nucleus. Mutation in OsHAC4 resulted in decreased As(V) reduction in roots, decreased As(III) efflux to the external medium and markedly increased As accumulation in rice shoots. Overexpression of OsHAC4 increased As(V) tolerance and decreased As accumulation in rice plants. OsHAC4 is an As(V) reductase that is critical for As(V) detoxification and for the control of As accumulation in rice. As(V) reduction, followed by As(III) efflux, is an important mechanism of As(V) detoxification. See also the Commentary on this article by Salt, 215: 926–928.
Summary Soil contamination with arsenic (As) can cause phytotoxicity and elevated As accumulation in rice grain. Here, we used a forward genetics approach to investigate the mechanism of arsenate (As(V)) tolerance and accumulation in rice. A rice mutant hypersensitive to As(V), but not to As(III), was isolated. Genomic resequencing and complementation tests were used to identify the causal gene. The function of the gene, its expression pattern and subcellular localization were characterized. OsHAC4 is the causal gene for the As(V)-hypersensitive phenotype. The gene encodes a rhodanase-like protein that shows As(V) reductase activity when expressed in Escherichia coli. OsHAC4 was highly expressed in roots and was induced by As(V). In OsHAC4pro-GUS transgenic plants, the gene was expressed exclusively in the root epidermis and exodermis. OsHAC4-eGFP was localized in the cytoplasm and the nucleus. Mutation in OsHAC4 resulted in decreased As(V) reduction in roots, decreased As(III) efflux to the external medium and markedly increased As accumulation in rice shoots. Overexpression of OsHAC4 increased As(V) tolerance and decreased As accumulation in rice plants. OsHAC4 is an As(V) reductase that is critical for As(V) detoxification and for the control of As accumulation in rice. As(V) reduction, followed by As(III) efflux, is an important mechanism of As(V) detoxification. See also the Commentary on this article by Salt, 215: 926-928.
Soil contamination with arsenic (As) can cause phytotoxicity and elevated As accumulation in rice grain. Here, we used a forward genetics approach to investigate the mechanism of arsenate (As(V)) tolerance and accumulation in rice. A rice mutant hypersensitive to As(V), but not to As(III), was isolated. Genomic resequencing and complementation tests were used to identify the causal gene. The function of the gene, its expression pattern and subcellular localization were characterized. OsHAC4 is the causal gene for the As(V)-hypersensitive phenotype. The gene encodes a rhodanase-like protein that shows As(V) reductase activity when expressed in Escherichia coli. OsHAC4 was highly expressed in roots and was induced by As(V). In OsHAC4pro-GUS transgenic plants, the gene was expressed exclusively in the root epidermis and exodermis. OsHAC4-eGFP was localized in the cytoplasm and the nucleus. Mutation in OsHAC4 resulted in decreased As(V) reduction in roots, decreased As(III) efflux to the external medium and markedly increased As accumulation in rice shoots. Overexpression of OsHAC4 increased As (V) tolerance and decreased As accumulation in rice plants. OsHAC4 is an As(V) reductase that is critical for As(V) detoxification and for the control of As accumulation in rice. As(V) reduction, followed by As(III) efflux, is an important mechanism of As(V) detoxification.
Soil contamination with arsenic (As) can cause phytotoxicity and elevated As accumulation in rice grain. Here, we used a forward genetics approach to investigate the mechanism of arsenate (As(V)) tolerance and accumulation in rice. A rice mutant hypersensitive to As(V), but not to As(III), was isolated. Genomic resequencing and complementation tests were used to identify the causal gene. The function of the gene, its expression pattern and subcellular localization were characterized. OsHAC4 is the causal gene for the As(V)-hypersensitive phenotype. The gene encodes a rhodanase-like protein that shows As(V) reductase activity when expressed in Escherichia coli. OsHAC4 was highly expressed in roots and was induced by As(V). In OsHAC4pro-GUS transgenic plants, the gene was expressed exclusively in the root epidermis and exodermis. OsHAC4-eGFP was localized in the cytoplasm and the nucleus. Mutation in OsHAC4 resulted in decreased As(V) reduction in roots, decreased As(III) efflux to the external medium and markedly increased As accumulation in rice shoots. Overexpression of OsHAC4 increased As(V) tolerance and decreased As accumulation in rice plants. OsHAC4 is an As(V) reductase that is critical for As(V) detoxification and for the control of As accumulation in rice. As(V) reduction, followed by As(III) efflux, is an important mechanism of As(V) detoxification.Soil contamination with arsenic (As) can cause phytotoxicity and elevated As accumulation in rice grain. Here, we used a forward genetics approach to investigate the mechanism of arsenate (As(V)) tolerance and accumulation in rice. A rice mutant hypersensitive to As(V), but not to As(III), was isolated. Genomic resequencing and complementation tests were used to identify the causal gene. The function of the gene, its expression pattern and subcellular localization were characterized. OsHAC4 is the causal gene for the As(V)-hypersensitive phenotype. The gene encodes a rhodanase-like protein that shows As(V) reductase activity when expressed in Escherichia coli. OsHAC4 was highly expressed in roots and was induced by As(V). In OsHAC4pro-GUS transgenic plants, the gene was expressed exclusively in the root epidermis and exodermis. OsHAC4-eGFP was localized in the cytoplasm and the nucleus. Mutation in OsHAC4 resulted in decreased As(V) reduction in roots, decreased As(III) efflux to the external medium and markedly increased As accumulation in rice shoots. Overexpression of OsHAC4 increased As(V) tolerance and decreased As accumulation in rice plants. OsHAC4 is an As(V) reductase that is critical for As(V) detoxification and for the control of As accumulation in rice. As(V) reduction, followed by As(III) efflux, is an important mechanism of As(V) detoxification.
Soil contamination with arsenic (As) can cause phytotoxicity and elevated As accumulation in rice grain. Here, we used a forward genetics approach to investigate the mechanism of arsenate (As(V)) tolerance and accumulation in rice. A rice mutant hypersensitive to As(V), but not to As(III), was isolated. Genomic resequencing and complementation tests were used to identify the causal gene. The function of the gene, its expression pattern and subcellular localization were characterized. OsHAC4 is the causal gene for the As(V)‐hypersensitive phenotype. The gene encodes a rhodanase‐like protein that shows As(V) reductase activity when expressed in Escherichia coli . Os HAC 4 was highly expressed in roots and was induced by As(V). In Os HAC 4pro‐ GUS transgenic plants, the gene was expressed exclusively in the root epidermis and exodermis. Os HAC 4‐ eGFP was localized in the cytoplasm and the nucleus. Mutation in Os HAC 4 resulted in decreased As(V) reduction in roots, decreased As( III ) efflux to the external medium and markedly increased As accumulation in rice shoots. Overexpression of Os HAC 4 increased As(V) tolerance and decreased As accumulation in rice plants. Os HAC 4 is an As(V) reductase that is critical for As(V) detoxification and for the control of As accumulation in rice. As(V) reduction, followed by As( III ) efflux, is an important mechanism of As(V) detoxification. See also the Commentary on this article by Salt, 215 : 926–928 .
Author Zhong Tang
Yifeng Wang
Lei Wang
Xinlu Zhu
Shulin Shi
Fang-Jie Zhao
Tingting Lv
Xiaomeng Ding
Jiming Xu
Zhongchang Wu
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BackLink https://www.ncbi.nlm.nih.gov/pubmed/28407265$$D View this record in MEDLINE/PubMed
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ContentType Journal Article
Copyright 2017 New Phytologist Trust
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2017 The Authors. New Phytologist © 2017 New Phytologist Trust.
Copyright © 2017 New Phytologist Trust
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Issue 3
Keywords arsenic (As)
arsenic accumulation
rice (Oryza sativa)
arsenite
arsenate reductase
detoxification
arsenate
Language English
License http://onlinelibrary.wiley.com/termsAndConditions#vor
2017 The Authors. New Phytologist © 2017 New Phytologist Trust.
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Snippet Soil contamination with arsenic (As) can cause phytotoxicity and elevated As accumulation in rice grain. Here, we used a forward genetics approach to...
Summary Soil contamination with arsenic (As) can cause phytotoxicity and elevated As accumulation in rice grain. Here, we used a forward genetics approach to...
Summary Soil contamination with arsenic (As) can cause phytotoxicity and elevated As accumulation in rice grain. Here, we used a forward genetics approach to...
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SubjectTerms Accumulation
Adaptation, Physiological - drug effects
arsenate
arsenate reductase
Arsenate Reductases - metabolism
Arsenates
Arsenates - toxicity
Arsenic
arsenic (As)
Arsenic - metabolism
arsenic accumulation
arsenite
Base Sequence
Cloning, Molecular
Complementation
Contamination
Cytoplasm
Detoxification
E coli
Efflux
enzyme activity
Epidermis
epidermis (plant)
Escherichia coli
Gene expression
Gene Expression Regulation, Plant
genes
Genetic Complementation Test
Genetics
Grain
Localization
mutants
Mutation
Mutation - genetics
Nuclei
Nucleus
Oryza - genetics
Oryza - metabolism
Phenotype
Phenotypes
Phytotoxicity
Plant Proteins - metabolism
Plant Roots - metabolism
Plant Shoots - metabolism
Pollution
Protein Transport
Proteins
Reductase
Rice
rice (Oryza sativa)
Roots
Shoots
Skin
Soil
Soil contamination
Soil pollution
Subcellular Fractions - metabolism
Tests
Time Factors
Transgenic plants
Xylem - metabolism
Title OsHAC4 is critical for arsenate tolerance and regulates arsenic accumulation in rice
URI https://www.jstor.org/stable/90011132
https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fnph.14572
https://www.ncbi.nlm.nih.gov/pubmed/28407265
https://www.proquest.com/docview/1917628712
https://www.proquest.com/docview/1888681165
https://www.proquest.com/docview/2020882934
Volume 215
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