Anomalous light scattering in nanostructured glasses formed by simultaneous nucleation and diffusion-limited growth of particles: Modelling
Source abstract
Abstract
Experimental light scattering by nanostructured glasses (phase-separated glasses, glass-ceramics) often qualitatively differs from Rayleigh scattering. To explain such behavior, we consider nanostructured glass formed towards the end of stage of active diffusional growth of simultaneously nucleated particles and simulate its structure and light scattering using a simple geometrical-probability model proposed earlier. Simulation carried out in the model demonstrates formation of a system of polydisperse particles with correlated arrangement whose scattering is not independent and exhibits strong interparticle interference if the wavelength of light is sufficiently long. The study is the first successful attempt to describe all effects observed experimentally in light scattering by nanostructured glasses formed as a result of binodal diffusion-limited phase transformation. The assumption was made that our system of polydisperse particles belongs to hyperuniform two-phase systems generated by a tessellation-based theoretical methodology.
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Research context
OpenAlex topics: Glass properties and applications · Photonic Crystals and Applications · Mineralogy and Gemology Studies
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
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