Microbial methylglyoxal metabolism contributes towards growth promotion and stress tolerance in plants

Summary Plant growth promotion by microbes is a cumulative phenomenon involving multiple traits, many of which are not explored yet. Hence, to unravel microbial mechanisms underlying growth promotion, we have analysed the genomes of two potential growth‐promoting microbes, viz., Pseudomonas sp. CK‐N...

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Published inEnvironmental microbiology Vol. 24; no. 6; pp. 2817 - 2836
Main Authors Kaur, Charanpreet, Gupta, Mayank, Garai, Sampurna, Mishra, Shashank K., Chauhan, Puneet Singh, Sopory, Sudhir, Singla‐Pareek, Sneh L., Adlakha, Nidhi, Pareek, Ashwani
Format Journal Article
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Published Hoboken, USA John Wiley & Sons, Inc 01.06.2022
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Abstract Summary Plant growth promotion by microbes is a cumulative phenomenon involving multiple traits, many of which are not explored yet. Hence, to unravel microbial mechanisms underlying growth promotion, we have analysed the genomes of two potential growth‐promoting microbes, viz., Pseudomonas sp. CK‐NBRI‐02 (P2) and Bacillus marisflavi CK‐NBRI‐03 (P3) for the presence of plant‐beneficial traits. Besides known traits, we found that microbes differ in their ability to metabolize methylglyoxal (MG), a ubiquitous cytotoxin regarded as general consequence of stress in plants. P2 exhibited greater tolerance to MG and possessed better ability to sustain plant growth under dicarbonyl stress. However, under salinity, only P3 showed a dose‐dependent induction in MG detoxification activity in accordance with concomitant increase in MG levels, contributing to enhanced salt tolerance. Furthermore, salt‐stressed transcriptomes of both the strains showed differences with respect to MG, ion and osmolyte homeostasis, with P3 being more responsive to stress. Importantly, application of either strain altered MG levels and subsequently MG detoxification machinery in Arabidopsis, probably to strengthen plant defence response and growth. We therefore, suggest a crucial role of microbial MG resistance in plant growth promotion and that it should be considered as a beneficial trait while screening microbes for stress mitigation in plants.
AbstractList Plant growth promotion by microbes is a cumulative phenomenon involving multiple traits, many of which are not explored yet. Hence, to unravel microbial mechanisms underlying growth promotion, we have analysed the genomes of two potential growth‐promoting microbes, viz., Pseudomonas sp. CK‐NBRI‐02 (P2) and Bacillus marisflavi CK‐NBRI‐03 (P3) for the presence of plant‐beneficial traits. Besides known traits, we found that microbes differ in their ability to metabolize methylglyoxal (MG), a ubiquitous cytotoxin regarded as general consequence of stress in plants. P2 exhibited greater tolerance to MG and possessed better ability to sustain plant growth under dicarbonyl stress. However, under salinity, only P3 showed a dose‐dependent induction in MG detoxification activity in accordance with concomitant increase in MG levels, contributing to enhanced salt tolerance. Furthermore, salt‐stressed transcriptomes of both the strains showed differences with respect to MG, ion and osmolyte homeostasis, with P3 being more responsive to stress. Importantly, application of either strain altered MG levels and subsequently MG detoxification machinery in Arabidopsis, probably to strengthen plant defence response and growth. We therefore, suggest a crucial role of microbial MG resistance in plant growth promotion and that it should be considered as a beneficial trait while screening microbes for stress mitigation in plants.
Summary Plant growth promotion by microbes is a cumulative phenomenon involving multiple traits, many of which are not explored yet. Hence, to unravel microbial mechanisms underlying growth promotion, we have analysed the genomes of two potential growth‐promoting microbes, viz., Pseudomonas sp. CK‐NBRI‐02 (P2) and Bacillus marisflavi CK‐NBRI‐03 (P3) for the presence of plant‐beneficial traits. Besides known traits, we found that microbes differ in their ability to metabolize methylglyoxal (MG), a ubiquitous cytotoxin regarded as general consequence of stress in plants. P2 exhibited greater tolerance to MG and possessed better ability to sustain plant growth under dicarbonyl stress. However, under salinity, only P3 showed a dose‐dependent induction in MG detoxification activity in accordance with concomitant increase in MG levels, contributing to enhanced salt tolerance. Furthermore, salt‐stressed transcriptomes of both the strains showed differences with respect to MG, ion and osmolyte homeostasis, with P3 being more responsive to stress. Importantly, application of either strain altered MG levels and subsequently MG detoxification machinery in Arabidopsis, probably to strengthen plant defence response and growth. We therefore, suggest a crucial role of microbial MG resistance in plant growth promotion and that it should be considered as a beneficial trait while screening microbes for stress mitigation in plants.
Summary Plant growth promotion by microbes is a cumulative phenomenon involving multiple traits, many of which are not explored yet. Hence, to unravel microbial mechanisms underlying growth promotion, we have analysed the genomes of two potential growth‐promoting microbes, viz., Pseudomonas sp. CK‐NBRI‐02 (P2) and Bacillus marisflavi CK‐NBRI‐03 (P3) for the presence of plant‐beneficial traits. Besides known traits, we found that microbes differ in their ability to metabolize methylglyoxal (MG), a ubiquitous cytotoxin regarded as general consequence of stress in plants. P2 exhibited greater tolerance to MG and possessed better ability to sustain plant growth under dicarbonyl stress. However, under salinity, only P3 showed a dose‐dependent induction in MG detoxification activity in accordance with concomitant increase in MG levels, contributing to enhanced salt tolerance. Furthermore, salt‐stressed transcriptomes of both the strains showed differences with respect to MG, ion and osmolyte homeostasis, with P3 being more responsive to stress. Importantly, application of either strain altered MG levels and subsequently MG detoxification machinery in Arabidopsis , probably to strengthen plant defence response and growth. We therefore, suggest a crucial role of microbial MG resistance in plant growth promotion and that it should be considered as a beneficial trait while screening microbes for stress mitigation in plants.
Author Singla‐Pareek, Sneh L.
Sopory, Sudhir
Garai, Sampurna
Chauhan, Puneet Singh
Gupta, Mayank
Adlakha, Nidhi
Kaur, Charanpreet
Mishra, Shashank K.
Pareek, Ashwani
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CitedBy_id crossref_primary_10_1111_1758_2229_13067
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crossref_primary_10_1016_j_stress_2024_100394
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SSID ssj0017370
Score 2.461564
Snippet Summary Plant growth promotion by microbes is a cumulative phenomenon involving multiple traits, many of which are not explored yet. Hence, to unravel...
Plant growth promotion by microbes is a cumulative phenomenon involving multiple traits, many of which are not explored yet. Hence, to unravel microbial...
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StartPage 2817
SubjectTerms Detoxification
Genomes
Homeostasis
Metabolism
Microbiological strains
Microorganisms
Mitigation
Plant growth
Plants
Pyruvaldehyde
Salinity tolerance
Salt tolerance
Transcriptomes
Title Microbial methylglyoxal metabolism contributes towards growth promotion and stress tolerance in plants
URI https://onlinelibrary.wiley.com/doi/abs/10.1111%2F1462-2920.15743
https://www.proquest.com/docview/2681465234
https://search.proquest.com/docview/2564945028
Volume 24
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