Synergistic Cr solid-solution strengthening and Y grain-boundary segregation in nanocrystalline Ni alloys suppresses dislocation emission, grain-boundary sliding, and grain rotation, yielding a record hardness of 11.0 GPa for single-phase Ni-based alloys.
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PLD and ALD amorphous alumina microcantilevers exhibit bending plasticity with >10% strain at room temperature while sputtered films fail brittly; all show fracture toughness of 3.1 MPa m^{0.5} with no crack-tip plasticity.
Physics-guided data augmentation combined with neural networks enables accurate indentation size effect correction in steels from small sets of shallow nanoindentation measurements, outperforming Nix-Gao in the shallow regime.
Tholins formed at 0.125 torr have threefold lower production rate but higher density and nanoindentation hardness than those at 1 torr, while particle size, morphology, surface energy, and Young's modulus remain similar.
citing papers explorer
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Synergistic doping of the grain interior and grain boundary alters deformation mechanisms and enables extreme strength in nanocrystalline Ni-Cr-Y alloys
Synergistic Cr solid-solution strengthening and Y grain-boundary segregation in nanocrystalline Ni alloys suppresses dislocation emission, grain-boundary sliding, and grain rotation, yielding a record hardness of 11.0 GPa for single-phase Ni-based alloys.
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Microscale bending plasticity and fracture behavior of amorphous aluminum oxide films
PLD and ALD amorphous alumina microcantilevers exhibit bending plasticity with >10% strain at room temperature while sputtered films fail brittly; all show fracture toughness of 3.1 MPa m^{0.5} with no crack-tip plasticity.
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Data-Efficient Indentation Size Effect Correction in Steels Using Machine Learning and Physics-Guided Augmentation
Physics-guided data augmentation combined with neural networks enables accurate indentation size effect correction in steels from small sets of shallow nanoindentation measurements, outperforming Nix-Gao in the shallow regime.
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Feeling the Pressure: Effects of Formation Pressure on the Physical Properties of Titan Haze Analogs
Tholins formed at 0.125 torr have threefold lower production rate but higher density and nanoindentation hardness than those at 1 torr, while particle size, morphology, surface energy, and Young's modulus remain similar.