Explore how scientists are using multiscale modeling to understand complex materials without tracking every single atom.
Explore how computational chemistry has transformed from a supporting role to leading drug discovery, materials science, and chemical research through virtual experiments.
Exploring how caves serve as natural laboratories for ecological research, revealing insights into evolution, adaptation, and conservation.
Exploring the quantum mystery of why the Born-Oppenheimer static surface model fails to predict hydrogen vibrational excitation on copper surfaces.
Explore how radiation damage creates Wigner energy storage in elemental copper through defect formation and annealing processes.
Explore how esophageal squamous cell carcinoma evolves resistance to therapy through genomic and epigenomic changes, and what this means for future treatments.
Discover how quantum computers are revolutionizing our understanding of ultrafast photochemical processes that occur in femtoseconds.
Discover how the C-terminal tails of tubulin proteins guide the assembly of flagellar microtubule doublets, revealing new insights into cellular machinery construction.
Explore the revolutionary field of molecular computation where DNA strands and chemical reactions replace silicon chips for unprecedented computing power.
Explore how scientists predict surfactant adsorption isotherms at nanoparticle-water interfaces using free energy landscape mapping and advanced experimental techniques.