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Stephen T. Kelly

Researcher at Carl Zeiss AG

Publications -  40
Citations -  1021

Stephen T. Kelly is an academic researcher from Carl Zeiss AG. The author has contributed to research in topics: Microscopy & Thin film. The author has an hindex of 17, co-authored 39 publications receiving 843 citations. Previous affiliations of Stephen T. Kelly include Xiamen University & Lawrence Berkeley National Laboratory.

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Reactive sintering: An important component in the combustion of nanocomposite thermites

TL;DR: In this article, an investigation of several nano-Al-based thermites subjected to very rapid heating rates was performed, and the results suggest that reactive sintering occurs on a fast timescale, and relatively early in the reaction, leading to rapid melting and coalescence of aggregated particles.
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Butterfly gyroid nanostructures as a time-frozen glimpse of intracellular membrane development.

TL;DR: An unusual hierarchical ultrastructure in the butterfly Thecla opisena is reported that, as a solid material, allows high-resolution three-dimensional microscopy and provides insight into the formation mechanisms of the nanoporous gyroid material as well as of the intracellular organelle membrane that acts as the template.
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Liquid–Liquid Phase Separation in Aerosol Particles: Imaging at the Nanometer Scale

TL;DR: Chemical imaging experiments using environmental scanning electron microscopy and scanning transmission X-ray microscopy to investigate the LLPS of micrometer-sized particles undergoing a full hydration-dehydration cycle showed that both LSOC/AS and HMMA/AS particles were never homogeneously mixed for all measured RH's above the deliquescence point and that the majority of the organic component was located in the outer phase.
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Reactivity of liquid and semisolid secondary organic carbon with chloride and nitrate in atmospheric aerosols.

TL;DR: Investigation of the reactions of liquid-like and semisolid SOC from ozonolysis of limonene (LSOC) and α-pinene (PSOC) with NaCl using a set of complementary microspectroscopic analyses shows that the reaction extent depends on SOC composition, particle phase state and viscosity, mixing state, temperature, relative humidity, and reaction time.