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3 article(s) from Gleiter, Herbert

On the structure of grain/interphase boundaries and interfaces

K. Anantha Padmanabhan and
Herbert Gleiter

Beilstein J. Nanotechnol. 2014, 5, 1603–1615, doi:10.3762/bjnano.5.172

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Figure 1: Schematic representation of the interface in a nano-glass [5].

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Figure 2: (a) As-quenched (from the vapor phase) nanoglassy grains exhibiting paramagnetic behavior, and (b) ...

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Figure 3: Schematic representation of phase transformations in the free energy–configuration space.

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Figure 4: (a) Sliding/Shear unit, according to the GBS Model. (b) Elevation view of the undeformed oblate sph...

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Figure 5: Development of mesoscopic grain/interphase boundary sliding. Shaded grain boundaries of rhombic dod...

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Album

Review

Published 22 Sep 2014

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Advances in nanomaterials

Herbert Gleiter,
Horst Hahn and
Thomas Schimmel

Beilstein J. Nanotechnol. 2013, 4, 805–806, doi:10.3762/bjnano.4.91

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Editorial

Published 27 Nov 2013

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Nanoglasses: a new kind of noncrystalline materials

Herbert Gleiter

Beilstein J. Nanotechnol. 2013, 4, 517–533, doi:10.3762/bjnano.4.61

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Figure 1: Comparison of the diffusivities in nanocrystalline (nc) Cu, Ni and Pd in comparison to the diffusiv...

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Figure 2: Work-hardening rate of (Al-1.6 at % Cu) crystals at room temperature after a solution treatment, wa...

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Figure 3: Figure showing the analogy between the defect and the chemical microstructures of nanocrystalline m...

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Figure 4: Production of nanoglasses by consolidation on nanometer-sized glassy clusters produced by inert-gas...

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Figure 5: Synthesis of an Au-based nanoglass by magnetron sputtering. Reproduced with permission from [7].

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Figure 6: Constant-current scanning tunneling electron micrograph (STEM) of the polished surface of a Fe₉₀Sc₁₀...

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Figure 7: (a) Selected electron diffraction pattern of a Fe₂₅Sc₇₅ nanoglass. Reproduced with permission from [18]...

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Figure 8: Upper figure: Positron lifetime of the components τ₁ (red line), τ₂ (green line) and the mean posit...

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Figure 9: (a) q²-Weighted SAXS curves of a 4.5 GPa Fe₂₅Sc₇₅ nanoglass as a function of annealing temperature....

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Figure 10: Comparison of the Mössbauer spectra and the corresponding quadrupole splitting (QS) distribution (p...

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Figure 11: Relative spectral fraction of the interfacial component versus the inverse size of the glassy regio...

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Figure 12: Mössbauer spectra recorded at 295 K for the melt-spun ribbon, the nanosphere powder prior to consol...

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Figure 13: Diagram displaying the temperature dependence of the measured magnetic hyperfine field (Bhf) of a m...

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Figure 14: Molecular dynamics simulation of the consolidation of a nanoglass at 300 K [27]. The nanoglass is obtai...

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Figure 15: Proposed model of the structure of a nanoglass [27]. Reproduced with permission. According to the resul...

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Figure 16: Magnetization curves (magnetization versus external magnetic field) of a nanoglass sample (red) and...

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Figure 17: Stress–strain curve of a Sc₇₅Fe₂₅ nanoglass and of a melt-spun ribbon with the same chemical compos...

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Figure 18: Calculated stress–strain curves for Cu₆₄Zr₃₆ nanoglasses with glassy regions with diameters of 4, 1...

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Figure 19: Local atomic shear strain for chemically inhomogeneous (Cu-enriched interfaces) and chemically homo...

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Figure 20: Left: Atomic shear strain in Cu₆₄Zr₃₆ nanoglass of 10 nm grain diameter at 8% and 16% total strain....

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Figure 21: Cell proliferation at the surface of a melt-spun ribbon and at the surface of a nanoglass with the ...

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Figure 22: Production of multiphase nanoglasses by the consolidation of glassy clusters with different chemica...

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Figure 23: Structure of a two-phase nanoglass consisting of FeSc and Cu₇₀Sc₃₀ glassy clusters (Figure on the l...

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Figure 24: Generation of an electrically charged surface in a nanoporous metal (e.g., Au) if it is immersed in...

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Album

Review

Published 13 Sep 2013

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