Showing 13,701 - 13,720 results of 105,608 for search '(( i wt decrease ) OR ( 5 ((((we decrease) OR (mean decrease))) OR (a decrease)) ))', query time: 1.79s Refine Results
  1. 13701

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  2. 13702

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  3. 13703

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  4. 13704

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  5. 13705

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  6. 13706

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  7. 13707

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  8. 13708

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  9. 13709

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  10. 13710

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  11. 13711

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  12. 13712

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  13. 13713

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  14. 13714

    Heterogeneous Condensation on Simplified Viral Envelope Protein Structures by Kawkab Ahasan (18784843)

    Published 2025
    “…The rapid initial condensation fills up the gap between the pillars, reducing the active surface area and leading to a gradual decrease and a plateau in the condensation rate. …”
  15. 13715

    Initial transport rate of [<sup>3</sup>H]-hypoxanthine of PhZ mutants (V%). by Mariana Barraco-Vega (19996318)

    Published 2024
    “…Given the low V% value obtained with strains Y54G, V58A, A128F, Y129D, A148V and T429P (<2%), an arbitrary V% value of 2 was assigned for presentation purposes. …”
  16. 13716

    DataSheet_1_IGF2BP3 promotes progression of gallbladder carcinoma by stabilizing KLK5 mRNA in N6-methyladenosine-dependent binding.zip by Junzhe Zhang (1541173)

    Published 2022
    “…As a result, inhibition of KLK5 decreased the expression of PAR2, and deregulated phospho-Akt. …”
  17. 13717

    DataSheet_3_IGF2BP3 promotes progression of gallbladder carcinoma by stabilizing KLK5 mRNA in N6-methyladenosine-dependent binding.xlsx by Junzhe Zhang (1541173)

    Published 2022
    “…As a result, inhibition of KLK5 decreased the expression of PAR2, and deregulated phospho-Akt. …”
  18. 13718

    DataSheet_2_IGF2BP3 promotes progression of gallbladder carcinoma by stabilizing KLK5 mRNA in N6-methyladenosine-dependent binding.xlsx by Junzhe Zhang (1541173)

    Published 2022
    “…As a result, inhibition of KLK5 decreased the expression of PAR2, and deregulated phospho-Akt. …”
  19. 13719
  20. 13720

    One-pot Synthesis of Metal-coordinated Covalent Organic Frameworks for Enhanced CO<sub>2</sub> Photoreduction by Hongbo Xue (10953437)

    Published 2022
    “…HB-TAPT + Co with ordered and segregated D–A arrays is synthesized by combining 2,4,6-tris(4-aminophenyl)-1,3,5-triazine (TAPT, a strong electron-acceptor) with 2-hydroxy-1,3,5-benzenetricarbaldehyde (HB)-loaded Co<sup>2+</sup> (a strong electron-donor). …”