TY - JOUR
T1 - Protein folding
T2 - Defining a "standard" set of experimental conditions and a preliminary kinetic data set of two-state proteins
AU - Maxwell, Karen L.
AU - Wildes, David
AU - Zarrine-Afsar, Arash
AU - De Los Rios, Miguel A.
AU - Brown, Andrew G.
AU - Friel, Claire T.
AU - Hedberg, Linda
AU - Horng, Jia Cherng
AU - Bona, Diane
AU - Miller, Erik J.
AU - Vallée-Bélisle, Alexis
AU - Main, Ewan R.G.
AU - Bemporad, Francesco
AU - Qiu, Linlin
AU - Teilum, Kaare
AU - Vu, Ngoc Diep
AU - Edwards, Aled M.
AU - Ruczinski, Ingo
AU - Poulsen, Flemming M.
AU - Kragelund, Birthe B.
AU - Michnick, Stephen W.
AU - Chiti, Fabrizio
AU - Bai, Yawen
AU - Hagen, Stephen J.
AU - Serrano, Luis
AU - Oliveberg, Mikael
AU - Raleigh, Daniel P.
AU - Wittung-Stafshede, Pernilla
AU - Radford, Sheena E.
AU - Jackson, Sophie E.
AU - Sosnick, Tobin R.
AU - Marqusee, Susan
AU - Davidson, Alan R.
AU - Plaxco, Kevin W.
PY - 2005/3
Y1 - 2005/3
N2 - Recent years have seen the publication of both empirical and theoretical relationships predicting the rates with which proteins fold. Our ability to test and refine these relationships has been limited, however, by a variety of difficulties associated with the comparison of folding and unfolding rates, thermodynamics, and structure across diverse sets of proteins. These difficulties include the wide, potentially confounding range of experimental conditions and methods employed to date and the difficulty of obtaining correct and complete sequence and structural details for the characterized constructs. The lack of a single approach to data analysis and error estimation, or even of a common set of units and reporting standards, further hinders comparative studies of folding. In an effort to overcome these problems, we define here a "consensus" set of experimental conditions (25°C at pH 7.0, 50 mM buffer), data analysis methods, and data reporting standards that we hope will provide a benchmark for experimental studies. We take the first step in this initiative by describing the folding kinetics of 30 apparently two-state proteins or protein domains under the consensus conditions. The goal of our efforts is to set uniform standards for the experimental community and to initiate an accumulating, self-consistent data set that will aid ongoing efforts to understand the folding process.
AB - Recent years have seen the publication of both empirical and theoretical relationships predicting the rates with which proteins fold. Our ability to test and refine these relationships has been limited, however, by a variety of difficulties associated with the comparison of folding and unfolding rates, thermodynamics, and structure across diverse sets of proteins. These difficulties include the wide, potentially confounding range of experimental conditions and methods employed to date and the difficulty of obtaining correct and complete sequence and structural details for the characterized constructs. The lack of a single approach to data analysis and error estimation, or even of a common set of units and reporting standards, further hinders comparative studies of folding. In an effort to overcome these problems, we define here a "consensus" set of experimental conditions (25°C at pH 7.0, 50 mM buffer), data analysis methods, and data reporting standards that we hope will provide a benchmark for experimental studies. We take the first step in this initiative by describing the folding kinetics of 30 apparently two-state proteins or protein domains under the consensus conditions. The goal of our efforts is to set uniform standards for the experimental community and to initiate an accumulating, self-consistent data set that will aid ongoing efforts to understand the folding process.
KW - Chevron plots
KW - Equilibrium
KW - Kinetics
KW - Protein folding
KW - Two-state
UR - https://www.scopus.com/pages/publications/20044363782
U2 - 10.1110/ps.041205405
DO - 10.1110/ps.041205405
M3 - Article
C2 - 15689503
AN - SCOPUS:20044363782
SN - 0961-8368
VL - 14
SP - 602
EP - 616
JO - Protein Science
JF - Protein Science
IS - 3
ER -