Investigation of macromolecular structure and dynamics is fundamental to understanding
how macromolecules carry out their functions in the cell. Significant advances have been …

Allosteric drug development holds promise for delivering medicines that are more selective
and less toxic than those that target orthosteric sites. To date, the discovery of allosteric …

Class A G-protein-coupled receptors (GPCRs) influence virtually every aspect of human
physiology. Understanding receptor activation mechanism is critical for discovering novel …

A Gaussian accelerated molecular dynamics (GaMD) approach for simultaneous enhanced
sampling and free energy calculation of biomolecules is presented. By constructing a boost …

Despite recent advances in crystallography and the availability of G-protein-coupled
receptor (GPCR) structures, little is known about the mechanism of their activation process …

Accelerated molecular dynamics (aMD) simulations greatly improve the efficiency of
conventional molecular dynamics (cMD) for sampling biomolecular conformations, but they …

A drug's selectivity for target receptors is essential to its therapeutic utility, but achieving
selectivity between similar receptors is challenging. The serendipitous discovery of ligands …

Allostery, which is one of the most direct and efficient methods to fine-tune protein functions,
has gained increasing recognition in drug discovery. However, there are several challenges …

Molecular interactions are essential for regulation of cellular processes from the formation of
multi-protein complexes to the allosteric activation of enzymes. Identifying the essential …

Allosteric transition, defined as conformational changes induced by ligand binding, is one of
the fundamental properties of proteins. Allostery has been observed and characterized in …