Showing 121 - 140 results of 18,354 for search '(( b largest decrease ) OR ((( c larger decrease ) OR ( ((c large) OR (via large)) increase ))))', query time: 0.82s Refine Results
  1. 121

    Hollow Nanospheres of Red Phosphorus for Fireproof Flexible Sensors Fabricated via 3D Printing by Kunpeng Song (1391251)

    Published 2022
    “…Here, bulk commercial red phosphorus (C-RP) is converted into red phosphorous hollow nanospheres (RPHNs). …”
  2. 122

    Hollow Nanospheres of Red Phosphorus for Fireproof Flexible Sensors Fabricated via 3D Printing by Kunpeng Song (1391251)

    Published 2022
    “…Here, bulk commercial red phosphorus (C-RP) is converted into red phosphorous hollow nanospheres (RPHNs). …”
  3. 123
  4. 124
  5. 125
  6. 126

    Large RATs correspond to functional centromeres. by Emily E. Wear (9519674)

    Published 2020
    “…Two examples of simple centromeres, CEN 1 (<b>A</b>) and CEN 6 (<b>B</b>), and two examples of complex centromeres, CEN 9 (<b>C</b>) and CEN 10 (<b>D</b>) are presented. The black arrowheads in panels <b>C</b> and <b>D</b> denote example regions with a peak of early replication signal within or adjacent to the centromere that also shows an increase in mid replication signal in the endocycle (for other examples, see <a href="http://www.plosgenetics.org/article/info:doi/10.1371/journal.pgen.1008623#pgen.1008623.s013" target="_blank">S12 Fig</a>). …”
  7. 127
  8. 128
  9. 129

    Fig 1 - by Ahmad Eweida (13236931)

    Published 2022
    Subjects:
  10. 130
  11. 131

    Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

    Published 2022
    “…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”
  12. 132

    Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

    Published 2022
    “…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”
  13. 133

    Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

    Published 2022
    “…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”
  14. 134

    Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

    Published 2022
    “…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”
  15. 135

    Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

    Published 2022
    “…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”
  16. 136

    Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

    Published 2022
    “…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”
  17. 137

    Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

    Published 2022
    “…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”
  18. 138
  19. 139
  20. 140