Discover how CycleGAN AI is revolutionizing materials science by predicting atomic stress fields from sparse, incomplete data, enabling the design of stronger and more efficient materials.
Exploring the atomic-scale mechanisms behind material fracture and how modern science is uncovering these hidden processes.
Exploring the development of EAM-type interatomic potentials that accurately reproduce theoretical energetics in polytype structures for advanced materials simulation.
Explore how modern chemistry labs are transforming engineering education through hands-on experiments and real-world applications.
Explore how nanoscale metal-organic frameworks (MOFs) are transforming medicine, energy storage, and environmental cleanup through precise atomic-scale engineering.
Discover how multi-scale modeling is revolutionizing materials science, enabling ultra-long timescale simulations and optimization of high energy density materials.
Exploring bulk metallic glasses through molecular dynamics simulations, revealing their atomic structure and mechanical properties.
Explore how interface modelling reveals the hidden world where materials meet, enabling breakthroughs in batteries, catalysts, and more.
Discover how polymer chain rotation dramatically reduces thermal conductivity, opening new possibilities for advanced insulating materials.