Showing 321 - 340 results of 2,507 for search '(( a large decrease ) OR ( c ((large decrease) OR (larger decrease)) ))', query time: 0.49s Refine Results
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    Four-grid table of signal detection. by Siqi Zhang (1397044)

    Published 2025
    “…Nevertheless, there is currently a scarcity of safety reports on CDK4/6 inhibitors within large sample cohorts.…”
  14. 334

    Layer-Thickness-Dependent Strengthening–Toughening Mechanisms in Crystalline/Amorphous Nanolaminates by Xiaoling Zhou (4644826)

    Published 2025
    “…The mechanical performance of these materials is strongly governed by the crystalline–amorphous interfaces (CAIs), yet the underlying strengthening and toughening mechanisms remain poorly understood. Here, we employ large-scale molecular dynamics simulations to investigate the compressive deformation of C/A nanopillars composed of alternating equal-thickness crystalline Cu and amorphous Cu<sub>50</sub>Zr<sub>50</sub> layers. …”
  15. 335

    Layer-Thickness-Dependent Strengthening–Toughening Mechanisms in Crystalline/Amorphous Nanolaminates by Xiaoling Zhou (4644826)

    Published 2025
    “…The mechanical performance of these materials is strongly governed by the crystalline–amorphous interfaces (CAIs), yet the underlying strengthening and toughening mechanisms remain poorly understood. Here, we employ large-scale molecular dynamics simulations to investigate the compressive deformation of C/A nanopillars composed of alternating equal-thickness crystalline Cu and amorphous Cu<sub>50</sub>Zr<sub>50</sub> layers. …”
  16. 336

    Layer-Thickness-Dependent Strengthening–Toughening Mechanisms in Crystalline/Amorphous Nanolaminates by Xiaoling Zhou (4644826)

    Published 2025
    “…The mechanical performance of these materials is strongly governed by the crystalline–amorphous interfaces (CAIs), yet the underlying strengthening and toughening mechanisms remain poorly understood. Here, we employ large-scale molecular dynamics simulations to investigate the compressive deformation of C/A nanopillars composed of alternating equal-thickness crystalline Cu and amorphous Cu<sub>50</sub>Zr<sub>50</sub> layers. …”
  17. 337

    Layer-Thickness-Dependent Strengthening–Toughening Mechanisms in Crystalline/Amorphous Nanolaminates by Xiaoling Zhou (4644826)

    Published 2025
    “…The mechanical performance of these materials is strongly governed by the crystalline–amorphous interfaces (CAIs), yet the underlying strengthening and toughening mechanisms remain poorly understood. Here, we employ large-scale molecular dynamics simulations to investigate the compressive deformation of C/A nanopillars composed of alternating equal-thickness crystalline Cu and amorphous Cu<sub>50</sub>Zr<sub>50</sub> layers. …”
  18. 338

    Layer-Thickness-Dependent Strengthening–Toughening Mechanisms in Crystalline/Amorphous Nanolaminates by Xiaoling Zhou (4644826)

    Published 2025
    “…The mechanical performance of these materials is strongly governed by the crystalline–amorphous interfaces (CAIs), yet the underlying strengthening and toughening mechanisms remain poorly understood. Here, we employ large-scale molecular dynamics simulations to investigate the compressive deformation of C/A nanopillars composed of alternating equal-thickness crystalline Cu and amorphous Cu<sub>50</sub>Zr<sub>50</sub> layers. …”
  19. 339

    Layer-Thickness-Dependent Strengthening–Toughening Mechanisms in Crystalline/Amorphous Nanolaminates by Xiaoling Zhou (4644826)

    Published 2025
    “…The mechanical performance of these materials is strongly governed by the crystalline–amorphous interfaces (CAIs), yet the underlying strengthening and toughening mechanisms remain poorly understood. Here, we employ large-scale molecular dynamics simulations to investigate the compressive deformation of C/A nanopillars composed of alternating equal-thickness crystalline Cu and amorphous Cu<sub>50</sub>Zr<sub>50</sub> layers. …”
  20. 340

    Quad-Nanopore Array Enables High-Resolution Identification of Four Single-Stranded DNA Homopolymers by Rui Hu (505795)

    Published 2025
    “…This dual benefit not only reduced the large driving force on DNA but also facilitated molecule capture through nanopores, therefore decreasing the voltage thresholds. …”