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Results for “Dendrites”
Search indexed NASA NTRS and DOE OSTI research on propulsion, heat transfer, battery materials and energy systems. Follow report and document links to the original sources.
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A framework for nucleation in electrochemical systems and the effect of surface energy on dendrite growth
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Complement C1q essential for aeroallergen sensitization via CSF1R+ conventional dendritic cells type 2
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Design of Dendritic Promesogenic Ligands for Liquid Crystal-Nanoparticle Hybrid Systems
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Dendrite corrosion of 316L stainless steel weld joint in NaCl–MgCl2 molten salt loop
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Dendritic deformation modes in additive manufacturing revealed by operando x-ray diffraction
Abstract Dynamic solidification behavior during metal additive manufacturing directly influences the as-built microstructure, defects, and mechanical properties of printed parts. How the formation of these features is driven by temperature variation (e.g., thermal gradient magnitude and solidification front velocity) has been studied extensively in metal additive manufacturing, with synchrotron x-ray imaging becoming a critical tool to monitor these processes. Here, we extend these efforts to monitoring full thermomechanical deformation during solidification through the use of operando x-ray diffraction during laser melting. With operando diffraction, we analyze thermomechanical deformation modes such as torsion, bending, fragmentation, assimilation, oscillation, and interdendritic growth. Understanding such phenomena can aid the optimization of printing strategies to obtain specific microstructural features, including localized misorientations, dislocation substructure, and grain boundary character. The interpretation of operando diffraction results is supported by post-mortem electron backscatter diffraction analyses.
Exploiting grain boundary diffusion to minimize dendrite formation in lithium metal-solid state batteries
A multi-scale model reveals that the microstructure of the Li metal anode can impact the performance of solid-state batteries. Micron-sized, columnar grains are preferred for minimizing void formation at the solid electrolyte interface.
Dendritic Computation for Neuromorphic Applications
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Chemo-Mechanical Model of Lithium Dendrite Growth Impacted by External Pressure.
Abstract not provided.
Chemo-Mechanical Model of Lithium Dendrite Growth Impacted by External Pressure.
Abstract not provided.
Dendritic Computation for Neuromorphic Applications
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