In contrast to a covalent bond, a non-covalent interaction in chemistry involves more dispersed types of electromagnetic interactions between molecules or within a molecule and does not share electrons. A typical range for the chemical energy released during the formation of non-covalent interactions is 1 to 5 kcal/mol. A variety of categories, including electrostatic, -effects, van der Waals forces, and hydrophobic effects, can be used to group non-covalent interactions. Large molecules, like proteins and nucleic acids, require non-covalent interactions to maintain their three-dimensional structure. Furthermore, they participate in numerous biological processes where big molecules temporarily but specifically bind to one another. Drug design, crystallinity, and material design, particularly for self-assembly, are all significantly influenced by these interactions.
Title : Application of vanadium and tantalum single-site zeolite catalysts in heterogeneous catalysis
Stanislaw Dzwigaj, Sorbonne University, France
Title : Indicators for evaluating green management practice of enterprises
Dai Yeun Jeong, Asia Climate Change Education Center , Korea, Republic of
Title : DOZN™3.0 - A quantitative green chemistry evaluator for a sustainable future
Samy Ponnusamy, MilliporeSigma, United States
Title : Towards integrated biodesign-inspired translational platforms to co-develop innovative biotechnologies, biomanufacturing and biomarketing to revolutionize the future of personalized & precision healthcare and life science bioindustry
Sergey Victorovich Suchkov, N.D. Zelinskii Institute for Organic Chemistry of the Russian Academy of Sciences, Russian Federation
Title : Nanocomposite materials for structured catalysts of fuels reforming, catalytic layers in membrane reactors for oxygen and hydrogen separation and fuel cell anodes operating in the internal reforming mode
Vladislav Sadykov, Boreskov Institute of Catalysis, Russia, Russian Federation
Title : Green nanobiocatalysts for sustainable ester production: Advancing lipase immobilization and process optimization
Praveen Dahiya, Amity University Uttar Pradesh, India