bioRxivBiophysicsPreprint
Analysis of Two-State Folding Using Parabolic Approximation II: Temperature-Dependence
Abstract
Equations that govern the temperature-dependence of the rate constants, Gibbs energies, enthalpies, entropies and heat capacities of activation for folding and unfolding of spontaneously-folding fixed two-state systems have been derived using a procedure that treats the denatured and the native conformers as being confined to harmonic Gibbs energy wells. The notion that a two-state system is physically defined only for a set temperature range is introduced. The implications of this novel treatment for protein folding are discussed.
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Analysis of Two-State Folding Using Parabolic Approximation III: Non-Arrhenius Kinetics of FBP28 WW Part-I
Robert S. Sade·bioRxiv·Feb 1, 2016
- Analysis of Two-State Folding Using Parabolic Approximation IV: Non-Arrhenius Kinetics of FBP28 WW Part-II
Robert S. Sade·bioRxiv·Feb 10, 2016
- Analysis of Two-State Folding Using Parabolic Approximation I: Hypothesis
Robert S. Sade·bioRxiv·Jan 31, 2016
- Protein unfolding. Thermodynamic perspectives and unfolding models.
- Calculation of Protein Folding Thermodynamics using Molecular Dynamics Simulations
Juan José Galano‐Frutos, Francho Nerín-Fonz, Javier Sancho·Journal of Chemical Information and ModelingPeer-reviewed·Nov 13, 2023
- Explicit derivation of the standard fitting technique for two-state protein transitions using differential scanning calorimetry data
Tadeas Priklopil·bioRxiv·Nov 1, 2024