Explore the revolutionary science of self-healing polymers - materials that can repair themselves autonomously, extending product lifespans and transforming industries.
Explore how molecular dynamics simulation is transforming material science by revealing atomic-level interactions and enabling the design of advanced materials.
Explore the world of bipyrazolato-based coordination polymers - robust molecular frameworks with revolutionary applications in clean energy, environmental remediation, and beyond.
Explore energy-based failure criteria for predicting material failure in nonlinear materials and long-term static strength applications.
Discover how polydopamine, inspired by mussels, is transforming material science with applications in medicine, energy, and technology from KAIST research.
Explore how thermal analysis and calorimetry revolutionize battery safety, pharmaceutical development, and sustainable materials through cutting-edge research.
Discover how 28 GHz ECR ion sources and nitrogen ion implantation are revolutionizing material science, from smartphones to medical implants.
Exploring how ultrasonic mechanical relaxation imaging and material science are transforming breast cancer detection and treatment
Discover how supercritical CO2 revolutionizes nanomaterial synthesis by creating powerful clay-polymer nanocomposites without toxic solvents.
Exploring the groundbreaking world of multiscale polymer composites that bridge micro and nano scales for revolutionary material properties.