It is clear that intramolecular hydrogen bonds are essential to the structure and stability of globular proteins. It is not clear, however, whether they make a net favorable contribution to this stability. Experimental and theoretical studies are at odds over this important question. Measurements of the change in conformational stability, delta (delta G), for the mutation of a hydrogen bonded residue to one incapable of hydrogen bonding suggest a stabilization of 1.0 kcal/mol per hydrogen bond. If the delta (delta G) values are corrected for differences in side-chain hydrophobicity and conformational entropy, then the estimated stabilization becomes 2.2 kcal/mol per hydrogen bond. These and other experimental studies discussed here are cons...
AbstractThis study shows that intramolecular hydrogen bonding in proteins depends on the accessibili...
AbstractThe contribution of a specific hydrogen bond in apoflavodoxin to protein stability is invest...
Identifying the forces that drive proteins to misfold and aggregate, rather than to fold into their ...
It is clear that intramolecular hydrogen bonds are essential to the structure and stability of globu...
AbstractThe goal of this article is to summarize what has been learned about the major forces stabil...
AbstractThis study shows that intramolecular hydrogen bonding in proteins depends on the accessibili...
Using detailed hydrogen bonding, surface exposure, internal environment, and solvent interaction cal...
AbstractThe goal of this article is to summarize what has been learned about the major forces stabil...
The energetic contributions of hydrogen bonding to protein folding are still unclear, despite over 7...
Quantification of backbone hydrogen bond energies in protein folding has remained elusive despite ex...
Using detailed hydrogen bonding, surface exposure, internal environment, and solvent interaction cal...
AbstractProgressive structuring and ultimately exclusion of water by hydrophobes surrounding backbon...
AbstractIt is now well admitted that hydrophobic interactions and hydrogen bonds are the main forces...
The prediction of binding sites and the understanding of interfaces associated with protein complexa...
AbstractA judicious examination of an exhaustive PDB sample of soluble globular proteins of moderate...
AbstractThis study shows that intramolecular hydrogen bonding in proteins depends on the accessibili...
AbstractThe contribution of a specific hydrogen bond in apoflavodoxin to protein stability is invest...
Identifying the forces that drive proteins to misfold and aggregate, rather than to fold into their ...
It is clear that intramolecular hydrogen bonds are essential to the structure and stability of globu...
AbstractThe goal of this article is to summarize what has been learned about the major forces stabil...
AbstractThis study shows that intramolecular hydrogen bonding in proteins depends on the accessibili...
Using detailed hydrogen bonding, surface exposure, internal environment, and solvent interaction cal...
AbstractThe goal of this article is to summarize what has been learned about the major forces stabil...
The energetic contributions of hydrogen bonding to protein folding are still unclear, despite over 7...
Quantification of backbone hydrogen bond energies in protein folding has remained elusive despite ex...
Using detailed hydrogen bonding, surface exposure, internal environment, and solvent interaction cal...
AbstractProgressive structuring and ultimately exclusion of water by hydrophobes surrounding backbon...
AbstractIt is now well admitted that hydrophobic interactions and hydrogen bonds are the main forces...
The prediction of binding sites and the understanding of interfaces associated with protein complexa...
AbstractA judicious examination of an exhaustive PDB sample of soluble globular proteins of moderate...
AbstractThis study shows that intramolecular hydrogen bonding in proteins depends on the accessibili...
AbstractThe contribution of a specific hydrogen bond in apoflavodoxin to protein stability is invest...
Identifying the forces that drive proteins to misfold and aggregate, rather than to fold into their ...