Articles tagged with Surface Dynamics
Recent eruptions demonstrate the vulnerability to ash dispersal, which can disrupt aviation and cause billions of dollars in economic loss. Scientists now understand that particle size is determined by post-eruption collisions, not just initial fragmentation.
Researchers have created a new lithography strategy that allows for dynamic generation of various patterns on large areas of soft plastics or polymers. This enables rapid switching between different textures, such as smooth to rough and back again, with fast timescales of milliseconds.
Harvard researchers develop rigorous mathematical theory to predict surface stability or instability under irradiation over time. The theory reveals that the cumulative effect of atoms knocked around, not blasted away, determines surface stability.
PNNL scientists are harnessing the power of catalysis to address real-world energy problems, including hydrogen oxidation and production for fuel cells. Researchers are also exploring alternative catalysts using inexpensive metals like nickel and cobalt to reduce costs.
A new technique, nano-area coherent electron diffraction, has been developed to study the atomic structure of gold and other nanocrystalline materials. The technique reveals striking differences in surface atoms' arrangement compared to bulk crystalline surfaces.
Researchers have found that C60 molecules exhibit a wide range of molecular motions on surfaces, including spinning and bouncing. The motion is influenced by temperature and intercage rattling, which governs the friction-related properties of the bucky balls.