Showing 1,481 - 1,500 results of 62,523 for search '(( 5 ((step decrease) OR (we decrease)) ) OR ( 50 ((mean decrease) OR (a decrease)) ))', query time: 1.17s Refine Results
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    Step length asymmetry and step width during split-belt adaptation. by Samantha Jeffcoat (22783930)

    Published 2025
    “…Across groups, asymmetry decreased from EA to MA and LA. (p < 0.001) C) Distribution of average step widths. …”
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    Phenethyl isothiocyanate activates leptin signaling and decreases food intake by Miho Yagi (5921252)

    Published 2018
    “…Moreover, we found that PEITC causes the ligand-independent phosphorylation of Ob-Rb, JAK2, and STAT3 by inhibiting cellular PTP1B in differentiated human SH-SY5Y neuronal cells. …”
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    Recombination of Autodissociated Water Ions in a Nanoscale Pure Water Droplet by Soonho Kwon (1402972)

    Published 2025
    “…Using a classical RexPoN force-field, we found that the ions in 1000 H<sub>2</sub>O’s spend almost 50% of the time on the surface and 0.5 nm beneath it with a slight preference for OH<sup>–</sup> ion to reside longer on the surface. …”
  13. 1493

    Recombination of Autodissociated Water Ions in a Nanoscale Pure Water Droplet by Soonho Kwon (1402972)

    Published 2025
    “…Using a classical RexPoN force-field, we found that the ions in 1000 H<sub>2</sub>O’s spend almost 50% of the time on the surface and 0.5 nm beneath it with a slight preference for OH<sup>–</sup> ion to reside longer on the surface. …”
  14. 1494

    Recombination of Autodissociated Water Ions in a Nanoscale Pure Water Droplet by Soonho Kwon (1402972)

    Published 2025
    “…Using a classical RexPoN force-field, we found that the ions in 1000 H<sub>2</sub>O’s spend almost 50% of the time on the surface and 0.5 nm beneath it with a slight preference for OH<sup>–</sup> ion to reside longer on the surface. …”
  15. 1495

    Recombination of Autodissociated Water Ions in a Nanoscale Pure Water Droplet by Soonho Kwon (1402972)

    Published 2025
    “…Using a classical RexPoN force-field, we found that the ions in 1000 H<sub>2</sub>O’s spend almost 50% of the time on the surface and 0.5 nm beneath it with a slight preference for OH<sup>–</sup> ion to reside longer on the surface. …”
  16. 1496

    Recombination of Autodissociated Water Ions in a Nanoscale Pure Water Droplet by Soonho Kwon (1402972)

    Published 2025
    “…Using a classical RexPoN force-field, we found that the ions in 1000 H<sub>2</sub>O’s spend almost 50% of the time on the surface and 0.5 nm beneath it with a slight preference for OH<sup>–</sup> ion to reside longer on the surface. …”
  17. 1497

    Recombination of Autodissociated Water Ions in a Nanoscale Pure Water Droplet by Soonho Kwon (1402972)

    Published 2025
    “…Using a classical RexPoN force-field, we found that the ions in 1000 H<sub>2</sub>O’s spend almost 50% of the time on the surface and 0.5 nm beneath it with a slight preference for OH<sup>–</sup> ion to reside longer on the surface. …”
  18. 1498

    Recombination of Autodissociated Water Ions in a Nanoscale Pure Water Droplet by Soonho Kwon (1402972)

    Published 2025
    “…Using a classical RexPoN force-field, we found that the ions in 1000 H<sub>2</sub>O’s spend almost 50% of the time on the surface and 0.5 nm beneath it with a slight preference for OH<sup>–</sup> ion to reside longer on the surface. …”
  19. 1499

    Recombination of Autodissociated Water Ions in a Nanoscale Pure Water Droplet by Soonho Kwon (1402972)

    Published 2025
    “…Using a classical RexPoN force-field, we found that the ions in 1000 H<sub>2</sub>O’s spend almost 50% of the time on the surface and 0.5 nm beneath it with a slight preference for OH<sup>–</sup> ion to reside longer on the surface. …”
  20. 1500

    Recombination of Autodissociated Water Ions in a Nanoscale Pure Water Droplet by Soonho Kwon (1402972)

    Published 2025
    “…Using a classical RexPoN force-field, we found that the ions in 1000 H<sub>2</sub>O’s spend almost 50% of the time on the surface and 0.5 nm beneath it with a slight preference for OH<sup>–</sup> ion to reside longer on the surface. …”