Atomic-Scale Events Refer To The Behavior Of Individual Atoms And Molecules That Are Too Small For Us To Observe Directly. Examples Of Atomic-Scale Events Include Chemical And Physical Interactions, Such As How Atoms And Molecules Form Chemical Bonds, How They React With Each Other, And How They Move And Vibrate In Space. Although We Cannot Observe These Events Directly, We Can Study Them Using A Variety Of Experimental Techniques And Computational Simulations. To Understand These Events, We Must First Understand What Atoms And Molecules Are Made Of. At The Most Basic Level, All Matter Is Composed Of Atoms, Which Are Composed Of Protons, Neutrons, And Electrons. We Can Use This Information To Study Their Behavior At An Atomic Level. For Example, Chemical Interactions Occur When The Electrons Of The Participating Atoms Interact With Each Other, Forming Chemical Bonds. Physical Interactions Occur When The Atoms Interact Directly With Each Other, Creating Attractions And Repulsions. This Is How Molecules Move And Vibrate In Space. We Can Also Study Atomic-Scale Events Using Computational Simulations. Through These Simulations, We Can Create Virtual Systems That Accurately Simulate The Behavior Of Individual Atoms Or Molecules. This Allows Us To Better Predict The Outcome Of Certain Interactions. This Can Be Used To Study How An Atomic-Scale Event Can Influence A Larger System, Such As The Development Of New Materials Or The Function Of A Protein Molecule. Atomic-Scale Events Are Essential In Understanding The Behavior Of Matter At The Quantum Level. They Are Also Important In Developing New Materials, Creating Efficient Energy Sources, And Figuring Out How Proteins Function. Through Further Research And Advancement In Our Understanding Of Atomic-Scale Events, We Can Create Innovative Solutions To The World’s Most Challenging Problems.
Title : Advances in plasma-based waste treatment for sustainable communities
Hossam A Gabbar, Ontario Tech University, Canada
Title : Nanostructured biodevices based on carbon nanotubes and glyconanoparticles for bioelectrocatalytic applications
Serge Cosnier, Silesian University of Technology, Poland
Title : Carbon capture and storage: The impact of impurities in CO2 streams
Andy Brown, Progressive Energy Ltd, United Kingdom
Title : Supramolecular nano chemistries: Fighting viruses, inhibiting bacteria and growing tissues
Thomas J Webster, Hebei University of Technology, China
Title : Chemical engineering of vanadium and tantalum zeolites for application in environmental catalysis
Stanislaw Dzwigaj, Sorbonne Universite, France
Title : Disrupting TNF-α and TNFR1 interaction: Computational insights into the potential of D-Pinitol as an anti-inflammatory therapeutic
Ferran Acuna Pares, Universidad Internacional de la Rioja (UNIR), Spain