Reasonable construction of Interaction Prediction and Validation models between glycans and molecules helps to improve molecular structure stability and prediction accuracy. Characterization, detection, and identification of hotspot regions are key to understanding glycan interactions and functions. Combining molecular docking and Molecular Dynamics Simulations, CD BioGlyco provides glycan-related interaction hotspot identification services, which not only effectively predict glycan-molecule binding sites, but also enable further hotspot analyses of the binding sites.
We analyze the interaction sites by collecting and integrating information from databases and screening for interaction hotspots.
Relying on advanced computational biology techniques, our researchers predict and identify molecular interaction sites by extracting glycan sequence features.
CD BioGlyco provides interaction hotspot identification based on glycan structures or fragments. Our researchers have extensive operational experience in molecular modeling and molecular docking.
Our lab uses computational alanine scanning mutagenesis (ASM) to sequentially mutate interfacial residues to alanine and calculate changes in binding free energy. We provide hotspot residue identification by molecular dynamics simulations.
Our computationalists provide complex binding energy calculations using the molecular mechanics Poisson-Boltzmann surface area (MM-PBSA) method. Based on the change in binding free energy, we provide hotspot residue classification services.
Technology: Molecular dynamics, Molecular docking
Journal: International Journal of Molecular Sciences
Published: 2016
IF: 4.9
Results: In this study, researchers used molecular docking and molecular dynamics simulations to predict and validate hot spots at the interface of the Drosophila Su(dx) protein (WW34) protein excipient. The researchers performed molecular dynamics simulations on a fully solvated system. Analysis by trajectory showed that although the conformation changed the interaction with the key recognition residues did not change. The researchers identified and characterized three hotspots for the interaction of the transmembrane glycoprotein A33 with excipients. Hotspot 1 was best suited for sucrose and alginate interactions, hotspot 2 had sugar-amino acid interactions, and hotspot 3 had only surfactant docking. Identifying hotspots of interactions within the space helps in the rapid screening of excipients.
Fig.1 A33-excipient interaction of three hotspots. (Barata, et al., 2016)
CD BioGlyco has been working in the field of computational glycobiology for many years and has accumulated a wealth of experience to provide the most satisfactory glycan-related interaction hotspot identification solutions for our clients. For any further information, do not hesitate to contact us.
Reference
We envision a future where the intricate world of carbohydrate is no longer shrouded in mystery, but rather illuminated by the power of cutting-edge computational tools.