Showing 11,481 - 11,500 results of 101,390 for search '(( 5 wt decrease ) OR ( 5 ((we decrease) OR (((a decrease) OR (mean decrease)))) ))', query time: 1.11s Refine Results
  1. 11481

    Model generalisation validation error analysis. by Hongqi Wang (2208238)

    Published 2024
    “…We systematically investigate the impact of water content, dry density, and freeze-thaw cycles (with a freezing temperature set at -10°C) on the thermal conductivity of stabilized soil, a crucial parameter for analyzing soil temperature fields that is influenced by numerous factors. …”
  2. 11482

    Empirical model prediction error analysis. by Hongqi Wang (2208238)

    Published 2024
    “…We systematically investigate the impact of water content, dry density, and freeze-thaw cycles (with a freezing temperature set at -10°C) on the thermal conductivity of stabilized soil, a crucial parameter for analyzing soil temperature fields that is influenced by numerous factors. …”
  3. 11483

    Fitting curve parameters. by Hongqi Wang (2208238)

    Published 2024
    “…We systematically investigate the impact of water content, dry density, and freeze-thaw cycles (with a freezing temperature set at -10°C) on the thermal conductivity of stabilized soil, a crucial parameter for analyzing soil temperature fields that is influenced by numerous factors. …”
  4. 11484

    Test instrument. by Hongqi Wang (2208238)

    Published 2024
    “…We systematically investigate the impact of water content, dry density, and freeze-thaw cycles (with a freezing temperature set at -10°C) on the thermal conductivity of stabilized soil, a crucial parameter for analyzing soil temperature fields that is influenced by numerous factors. …”
  5. 11485

    Empirical model establishment process. by Hongqi Wang (2208238)

    Published 2024
    “…We systematically investigate the impact of water content, dry density, and freeze-thaw cycles (with a freezing temperature set at -10°C) on the thermal conductivity of stabilized soil, a crucial parameter for analyzing soil temperature fields that is influenced by numerous factors. …”
  6. 11486

    Model prediction error trend chart. by Hongqi Wang (2208238)

    Published 2024
    “…We systematically investigate the impact of water content, dry density, and freeze-thaw cycles (with a freezing temperature set at -10°C) on the thermal conductivity of stabilized soil, a crucial parameter for analyzing soil temperature fields that is influenced by numerous factors. …”
  7. 11487

    Basic physical parameters of red clay. by Hongqi Wang (2208238)

    Published 2024
    “…We systematically investigate the impact of water content, dry density, and freeze-thaw cycles (with a freezing temperature set at -10°C) on the thermal conductivity of stabilized soil, a crucial parameter for analyzing soil temperature fields that is influenced by numerous factors. …”
  8. 11488

    BP neural network structure diagram. by Hongqi Wang (2208238)

    Published 2024
    “…We systematically investigate the impact of water content, dry density, and freeze-thaw cycles (with a freezing temperature set at -10°C) on the thermal conductivity of stabilized soil, a crucial parameter for analyzing soil temperature fields that is influenced by numerous factors. …”
  9. 11489

    Structure diagram of GBDT model. by Hongqi Wang (2208238)

    Published 2024
    “…We systematically investigate the impact of water content, dry density, and freeze-thaw cycles (with a freezing temperature set at -10°C) on the thermal conductivity of stabilized soil, a crucial parameter for analyzing soil temperature fields that is influenced by numerous factors. …”
  10. 11490

    Model prediction error analysis index. by Hongqi Wang (2208238)

    Published 2024
    “…We systematically investigate the impact of water content, dry density, and freeze-thaw cycles (with a freezing temperature set at -10°C) on the thermal conductivity of stabilized soil, a crucial parameter for analyzing soil temperature fields that is influenced by numerous factors. …”
  11. 11491

    Fitting curve parameter table. by Hongqi Wang (2208238)

    Published 2024
    “…We systematically investigate the impact of water content, dry density, and freeze-thaw cycles (with a freezing temperature set at -10°C) on the thermal conductivity of stabilized soil, a crucial parameter for analyzing soil temperature fields that is influenced by numerous factors. …”
  12. 11492

    Model prediction error analysis. by Hongqi Wang (2208238)

    Published 2024
    “…We systematically investigate the impact of water content, dry density, and freeze-thaw cycles (with a freezing temperature set at -10°C) on the thermal conductivity of stabilized soil, a crucial parameter for analyzing soil temperature fields that is influenced by numerous factors. …”
  13. 11493
  14. 11494
  15. 11495
  16. 11496
  17. 11497

    Table_5_Arabidopsis Histone Methyltransferase SUVH5 Is a Positive Regulator of Light-Mediated Seed Germination.DOCX by Dachuan Gu (6790856)

    Published 2019
    “…Here, we identified SUVH5, a histone H3 lysine 9 methyltransferase, as a positive regulator in light-mediated seed germination in Arabidopsis. …”
  18. 11498

    Western-blot and BN-PAGE analyses of brain mitochondria from WT and AOX mice. by Riyad El-Khoury (104865)

    Published 2013
    “…B, RC complexes (I, III, IV and V) from three different organs, highly (brain), mildly (heart) and weakly (liver) expressing the AOX, were quantified as a ratio to complex II with no significant difference being observed between WT and AOX mice. …”
  19. 11499

    Experimental and Computational Insight into the Mechanism of NO Binding to Ferric Microperoxidase. The Likely Role of Tautomerization to Account for the pH Dependence by Maria Oszajca (1833010)

    Published 2021
    “…From the pH dependence of the second-order rate constant for NO binding (<i>k</i><sub>on</sub>), we determined individual rate constants characterizing forms <b>1</b>–<b>3</b>, revealing only a ca. 10-fold decrease in the NO binding rate on going from <b>1</b> (<i>k</i><sub>on</sub><sup>(<b>1</b>)</sup> = 3.8 × 10<sup>6</sup> M<sup>–1</sup> s<sup>–1</sup>) to <b>2</b> (<i>k</i><sub>on</sub><sup>(<b>2</b>)</sup> = 4.0 × 10<sup>5</sup> M<sup>–1</sup> s<sup>–1</sup>) and the inertness of <b>3</b>. …”
  20. 11500