Cadmium-stress mitigation through gene expression of rice and silicon addition
Cadmium (Cd) pollution is one of the major concerns in the development of sustainable agriculture, particularly for rice production. Silicon (Si) was recently recognized for its ability to mitigate a variety of abiotic stresses including that caused by Cd on rice. However, mechanism of the complex p...
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Published in | Plant growth regulation Vol. 81; no. 1; pp. 91 - 101 |
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Main Authors | , , , , , , |
Format | Journal Article |
Language | English |
Published |
Dordrecht
Springer Netherlands
01.01.2017
Springer Nature B.V |
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Abstract | Cadmium (Cd) pollution is one of the major concerns in the development of sustainable agriculture, particularly for rice production. Silicon (Si) was recently recognized for its ability to mitigate a variety of abiotic stresses including that caused by Cd on rice. However, mechanism of the complex process is still not fully understood. Under Cd-stress, the low Si-influx 1-RNAi transgenic Lemont rice (
Lsi1
-RNAi line) exhibited an increased Cd-uptake over its counterparts, the wild type and the
Lsi1
-overexpression transgenic rice (
Lsi1
-OE line). In contrast, the
Lsi1
expression-enhanced
Lsi1
-OE line showed the greatest Si-uptake among the three lines, with the highest activities on anti-oxidants (such as, superoxide dismutase) and the lowest content of malondialdehyde.
Lsi1
also displayed a negative regulation on
Low Cd
gene and the natural resistance-associated macrophage proteins,
Nramp5
, indicating its capacity to alleviate Cd-stress on rice. The results obtained by this study suggested that the mitigation of Cd-toxicity on rice by Si might involve functions, such as the inhibition on Cd-uptake and transport and the enhancement on anti-oxidative enzyme activities, as well as the
Lsi1
-related expression on regulation of Si-uptake in rice. A new avenue might become available for overcoming the rampant pollution that threatens the rice production in China. |
---|---|
AbstractList | Cadmium (Cd) pollution is one of the major concerns in the development of sustainable agriculture, particularly for rice production. Silicon (Si) was recently recognized for its ability to mitigate a variety of abiotic stresses including that caused by Cd on rice. However, mechanism of the complex process is still not fully understood. Under Cd-stress, the low Si-influx 1-RNAi transgenic Lemont rice (Lsi1-RNAi line) exhibited an increased Cd-uptake over its counterparts, the wild type and the Lsi1-overexpression transgenic rice (Lsi1-OE line). In contrast, the Lsi1 expression-enhanced Lsi1-OE line showed the greatest Si-uptake among the three lines, with the highest activities on anti-oxidants (such as, superoxide dismutase) and the lowest content of malondialdehyde. Lsi1 also displayed a negative regulation on Low Cd gene and the natural resistance-associated macrophage proteins, Nramp5, indicating its capacity to alleviate Cd-stress on rice. The results obtained by this study suggested that the mitigation of Cd-toxicity on rice by Si might involve functions, such as the inhibition on Cd-uptake and transport and the enhancement on anti-oxidative enzyme activities, as well as the Lsi1-related expression on regulation of Si-uptake in rice. A new avenue might become available for overcoming the rampant pollution that threatens the rice production in China. Cadmium (Cd) pollution is one of the major concerns in the development of sustainable agriculture, particularly for rice production. Silicon (Si) was recently recognized for its ability to mitigate a variety of abiotic stresses including that caused by Cd on rice. However, mechanism of the complex process is still not fully understood. Under Cd-stress, the low Si-influx 1-RNAi transgenic Lemont rice ( Lsi1 -RNAi line) exhibited an increased Cd-uptake over its counterparts, the wild type and the Lsi1 -overexpression transgenic rice ( Lsi1 -OE line). In contrast, the Lsi1 expression-enhanced Lsi1 -OE line showed the greatest Si-uptake among the three lines, with the highest activities on anti-oxidants (such as, superoxide dismutase) and the lowest content of malondialdehyde. Lsi1 also displayed a negative regulation on Low Cd gene and the natural resistance-associated macrophage proteins, Nramp5 , indicating its capacity to alleviate Cd-stress on rice. The results obtained by this study suggested that the mitigation of Cd-toxicity on rice by Si might involve functions, such as the inhibition on Cd-uptake and transport and the enhancement on anti-oxidative enzyme activities, as well as the Lsi1 -related expression on regulation of Si-uptake in rice. A new avenue might become available for overcoming the rampant pollution that threatens the rice production in China. |
Author | Lin, Hongmei He, Jianyu Fang, Changxun Lin, Weiwei Lin, Ruiyu Li, Yingzhe Lin, Wenxiong |
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Keywords | Cadmium L. Silicon Anti-oxidative enzyme Rice Cd-stress-related gene |
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SubjectTerms | abiotic stress Agriculture antioxidants Biomedical and Life Sciences Cadmium China Crop production Enzymatic activity enzyme activity gene overexpression genes Life Sciences macrophages malondialdehyde Original Paper Oryza sativa Oxidizing agents Plant Anatomy/Development Plant Physiology Plant Sciences pollution proteins rice Silicon superoxide dismutase Sustainable agriculture Sustainable development transgenic plants |
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Title | Cadmium-stress mitigation through gene expression of rice and silicon addition |
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