INTERPRETING THE EFFECTS OF SMALL UNCHARGED SOLUTES ON PROTEIN-FOLDING EQUILIBRIA

Proteins are designed to function in environments crowded by cosolutes, but most studies of protein equilibria are conducted in dilute solution. While there is no doubt that crowding changes protein equilibria, interpretations of the changes remain controversial. This review combines experimental ob...

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Veröffentlicht in:Annual review of biophysics and biomolecular structure 2001-01, Vol.30 (1), p.271-306
Hauptverfasser: Davis-Searles, Paula R, Saunders, Aleister J, Erie, Dorothy A, Winzor, Donald J, Pielak, Gary J
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container_title Annual review of biophysics and biomolecular structure
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creator Davis-Searles, Paula R
Saunders, Aleister J
Erie, Dorothy A
Winzor, Donald J
Pielak, Gary J
description Proteins are designed to function in environments crowded by cosolutes, but most studies of protein equilibria are conducted in dilute solution. While there is no doubt that crowding changes protein equilibria, interpretations of the changes remain controversial. This review combines experimental observations on the effect of small uncharged cosolutes (mostly sugars) on protein stability with a discussion of the thermodynamics of cosolute-induced nonideality and critical assessments of the most commonly applied interpretations. Despite the controversy surrounding the most appropriate manner for interpreting these effects of thermodynamic nonideality arising from the presence of small cosolutes, experimental advantage may still be taken of the ability of the cosolute effect to promote not only protein stabilization but also protein self-association and complex formation between dissimilar reactants. This phenomenon clearly has potential ramifications in the cell, where the crowded environment could well induce the same effects.
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subjects Biophysical Phenomena
Biophysics
carbohydrates
Carbohydrates - chemistry
Models, Theoretical
molecular crowding
nonideal solutions
Osmosis
Polymers - chemistry
Protein Binding
Protein Folding
protein stability
Thermodynamics
title INTERPRETING THE EFFECTS OF SMALL UNCHARGED SOLUTES ON PROTEIN-FOLDING EQUILIBRIA
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