Understanding protein thermodynamics as it occurs inside cells is a fundamental goal of biophysics, and, from a practical point of view, will facilitate the design and improvement of protein-based drugs and catalysts. By measuring the temperature dependence of protein stability inside Escherichia coli cells, we show, contrary to predictions, that proteins are not necessarily stabilized inside cells compared with buffer alone. We also show that crowding-induced charge–charge interactions slow folding because of preferential interactions with the unfolded ensemble, and reducing these interactions increases protein stability
Macromolecular crowding is important both physiologically and practically. The physiological importa...
Protein folding landscapes and protein-protein interaction landscapes are subject to modulation by m...
Proteins are subject to a variety of stresses in biological organisms, including pressure and temper...
Proteins function in a sea of macromolecules within cells, but are traditionally studied under ideal...
The intracellular milieu is filled with small molecules, nucleic acids, lipids and proteins. Theorie...
Although protein folding and stability have been well explored under simplified conditions in vitro,...
The intracellular milieu differs from the dilute conditions in which most biophysical and biochemica...
Although protein folding and stability have been well explored under simplified conditions in vitro,...
Globular proteins perform many of the chemical reactions required for life. The prevailing model of ...
The cell cytoplasm contains a complex array of macromolecules at concentrations exceeding 300 g/L. T...
Proteins perform their function in cells where macromolecular solutes reach concentrations of >300 g...
Macromolecular crowding ought to stabilize folded forms of proteins, through an excluded volume effe...
Proteins are the powerhouse of the cell, catalyzing chemical reactions, serving as signaling hubs, a...
Closely related to the “protein folding problem” is the issue of protein misfolding and aggregation....
Advances in the study of protein folding and structure have greatly expanded our understanding and a...
Macromolecular crowding is important both physiologically and practically. The physiological importa...
Protein folding landscapes and protein-protein interaction landscapes are subject to modulation by m...
Proteins are subject to a variety of stresses in biological organisms, including pressure and temper...
Proteins function in a sea of macromolecules within cells, but are traditionally studied under ideal...
The intracellular milieu is filled with small molecules, nucleic acids, lipids and proteins. Theorie...
Although protein folding and stability have been well explored under simplified conditions in vitro,...
The intracellular milieu differs from the dilute conditions in which most biophysical and biochemica...
Although protein folding and stability have been well explored under simplified conditions in vitro,...
Globular proteins perform many of the chemical reactions required for life. The prevailing model of ...
The cell cytoplasm contains a complex array of macromolecules at concentrations exceeding 300 g/L. T...
Proteins perform their function in cells where macromolecular solutes reach concentrations of >300 g...
Macromolecular crowding ought to stabilize folded forms of proteins, through an excluded volume effe...
Proteins are the powerhouse of the cell, catalyzing chemical reactions, serving as signaling hubs, a...
Closely related to the “protein folding problem” is the issue of protein misfolding and aggregation....
Advances in the study of protein folding and structure have greatly expanded our understanding and a...
Macromolecular crowding is important both physiologically and practically. The physiological importa...
Protein folding landscapes and protein-protein interaction landscapes are subject to modulation by m...
Proteins are subject to a variety of stresses in biological organisms, including pressure and temper...