Showing 21 - 40 results of 43,917 for search '(( 50 ((a decrease) OR (nn decrease)) ) OR ((( 10 nm decrease ) OR ( 5 we decrease ))))', query time: 0.73s Refine Results
  1. 21

    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. …”
  2. 22

    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. …”
  3. 23

    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. …”
  4. 24

    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. …”
  5. 25

    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. …”
  6. 26

    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. …”
  7. 27

    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. …”
  8. 28

    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. …”
  9. 29

    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. …”
  10. 30

    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. …”
  11. 31

    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. …”
  12. 32

    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. 33

    Global Land Use Change Impacts on Soil Nitrogen Availability and Environmental Losses by Jing Wang (6206297)

    Published 2025
    “…However, how global land use changes impact soil N supply and potential N loss remains elusive. By compiling a global data set of 1,782 paired observations from 185 publications, we show that land use conversion from natural to managed ecosystems significantly reduced NNM by 7.5% (−11.5, −2.8%) and increased NN by 150% (86, 194%), indicating decreasing N availability while increasing potential N loss through denitrification and nitrate leaching. …”
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  20. 40

    Decreased Incidence of Type 1 Diabetes in Young Finnish Children by Anna Parviainen (9343391)

    Published 2020
    “…We assessed sex-specific incidence rates (IRs) per 100,000 person years (PY) by 4-year time periods in three age groups (0.50–4.99, 5.00–9.99, and 10.00–14.99 years).…”