An exploration of the technical, ethical and conceptual boundaries facing molecular biology today, from CRISPR limitations to fundamental knowledge gaps.
Exploring how asymmetric squaraine dyes tethered to DNA scaffolds exhibit powerful intramolecular charge transfer with potential applications in quantum computing and energy systems.
Explore the fascinating world of protein folding and misfolding, and how these molecular processes contribute to neurodegenerative diseases like Alzheimer's and Parkinson's.
Exploring 60 years of sleep deprivation research from Randy Gardner's groundbreaking experiment to modern sleep science discoveries
Explore the fascinating mathematics behind how soft biological tissues grow and remodel in response to mechanical forces, revealing nature's hidden engineering principles.
Explore the fascinating melting behavior of Au-Pd nanoparticles through molecular dynamics simulations and discover how geometry influences thermal stability at the nanoscale.
Discover how molecular dynamics simulations reveal the atomic choreography of precursor adsorption on silicon surfaces that powers modern microchip manufacturing.
Exploring how carbon nanotubes buckle under pressure and the computational methods used to predict this behavior for next-generation materials.
Explore how diffusion models and AI are revolutionizing surface engineering by designing molecular-level structures with tailored frictional properties.
Exploring how multiscale materials modeling connects quantum mechanics to engineering design, transforming materials discovery and innovation.