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ProteomicsIn situ analysis of osmolyte mechanisms of proteome thermal stabilisation
Organisms across all kingdoms of life use small organic molecules called osmolytes to adapt to diverse environmental conditions and preserve viability. Osmolytes are thought to thermally stabilise proteins based on in vitro studies of a few purified proteins. The molecular mechanisms of osmolytes re...
ORGANISM(S): Escherichia coli 
2024-08-09 | PXD036186 | Pride
Osmolyte mechanisms Structural proteomics Stress adaptation Thermal stabilisation Aggregation 
UnknownIn situ analysis of osmolyte mechanisms of proteome thermal stabilization.
Not available
S-EPMC11288892 | biostudies-literature
UnknownAnalysis of strains lacking known osmolyte accumulation mechanisms reveals contributions of osmolytes and transporters to protection against abiotic stress.
Not available
S-EPMC4136119 | biostudies-literature
UnknownProbing osmolyte participation in the unfolding transition state of a protein.
Not available
S-EPMC3116423 | biostudies-literature
UnknownOsmolyte transporter expression is reduced in photoaged human skin: Implications for skin hydration in aging.
Not available
S-EPMC6974728 | biostudies-literature
UnknownOsmolyte Structural and Thermodynamic Effects Across the Protein Folding Landscape.
Not available
S-EPMC12728603 | biostudies-literature
UnknownOsmolyte-induced folding of an intrinsically disordered protein: folding mechanism in the absence of ligand.
Not available
S-EPMC2937257 | biostudies-literature
UnknownOsmolyte Signatures for the Protection of Aspergillus sydowii Cells under Halophilic Conditions and Osmotic Shock.
Not available
S-EPMC8228332 | biostudies-literature
UnknownSignaling Molecule Hydrogen Sulfide Improves Seed Germination and Seedling Growth of Maize (Zea mays L.) Under High Temperature by Inducing Antioxidant System and Osmolyte Biosynthesis.
Not available
S-EPMC6131983 | biostudies-literature
ProteomicsAcclimatization of Methylocystis to inhibitory NH4+ levels by multiple proteomic and metabolic response mechanisms
High NH4+ load is known to competitively inhibit bacterial methane oxidation. This is due to a competition between CH4 and NH4+/NH3 for the active site of particulate methane monooxygenase (pMMO), which converts CH4 to CH3OH. Here, we combined growth experiments with global proteomics to elucidate t...
ORGANISM(S): Methylocystis sp. SC2 
2022-09-19 | PXD032347 | Pride
Methylocystis sp. strain sc2 
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