How does the use of proteomic and metabolomic techniques aid in understanding the silicate solubilizing capabilities of bacteria?
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Proteomic and metabolomic techniques play a crucial role in unraveling the silicate solubilizing capabilities of bacteria. These techniques help in identifying the proteins and metabolites involved in stress response, growth promotion, and nutrient uptake mechanisms of silicate-solubilizing bacteria. For instance, proteomic analysis can reveal the expression of heat shock proteins, hormone-related genes, and silicon transporters in bacteria-inoculated plants under heat stress conditions . Metabolomic studies aid in understanding the release of elements like Mg, Fe, and Si from minerals by bacteria, highlighting their nutrient cycling potential . By utilizing these advanced techniques, researchers can gain insights into the molecular mechanisms underlying the beneficial effects of silicate-solubilizing bacteria on plant growth and stress tolerance.
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43 Citations | Proteomic and metabolomic techniques can help identify proteins and organic acids involved in silica solubilization by bacteria, enhancing understanding of their silicate solubilizing capabilities. |
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02 Nov 2020 | Proteomic and metabolomic techniques can help understand the silicate solubilizing capabilities of bacteria by identifying specific proteins and metabolites involved in the process, enhancing insight into their mechanisms. |
| Proteomic and metabolomic techniques help in understanding silicate solubilization by bacteria by identifying proteins and metabolites involved in the process, enhancing insights into their solubilizing capabilities. | |
| Proteomic and metabolomic techniques help in identifying proteins and metabolites involved in silicate solubilization, stress tolerance, and growth promotion mechanisms of bacteria like Enterobacter sp. LR6. |
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