Showing 1,881 - 1,900 results of 47,960 for search '(( 50 ((na decrease) OR (((nn decrease) OR (a decrease)))) ) OR ( 12 we decrease ))', query time: 0.99s Refine Results
  1. 1881
  2. 1882
  3. 1883
  4. 1884
  5. 1885
  6. 1886
  7. 1887
  8. 1888
  9. 1889

    Differences among the classes of CAMs. by Daniel P. Bradley (10306893)

    Published 2025
    “…Some <i>N</i>-hydroxypyridinedione (HPD) HBV RNaseH inhibitors significantly reduced accumulation of capsids in HBV-replicating cells. A representative HPD <b>1466</b>, with a 50% effective concentration against HBV replication of 0.25 µM, decreased capsid and core protein accumulation by 50–90% in HepDES19 and HepG2.2.15 cells. …”
  10. 1890
  11. 1891
  12. 1892
  13. 1893
  14. 1894
  15. 1895

    Top 50 results of a commercial kinase screen using [γ<sup>33</sup>]-ATP and human obscurin SH3-DH as substrates. by Daniel Koch (388049)

    Published 2023
    “…While MST2 addition resulted in strong and saturable phosphorylation, TBK1 led to much lower phosphorylation levels and CaMK4 addition led to an intermediate phosphorylation level exhibiting a biphasic behaviour with phosphorylation levels decreasing at higher substrate concentrations. …”
  16. 1896
  17. 1897
  18. 1898

    Supramolecular DNA Photonic Hydrogels for On-Demand Control of Coloration with High Spatial and Temporal Resolution by Yixiao Dong (2174902)

    Published 2021
    “…We solve this problem by creating a DNA hydrogel system that shows a 50 000-fold decrease in modulus upon heating by ∼10 °C. …”
  19. 1899

    Supramolecular DNA Photonic Hydrogels for On-Demand Control of Coloration with High Spatial and Temporal Resolution by Yixiao Dong (2174902)

    Published 2021
    “…We solve this problem by creating a DNA hydrogel system that shows a 50 000-fold decrease in modulus upon heating by ∼10 °C. …”
  20. 1900

    Supramolecular DNA Photonic Hydrogels for On-Demand Control of Coloration with High Spatial and Temporal Resolution by Yixiao Dong (2174902)

    Published 2021
    “…We solve this problem by creating a DNA hydrogel system that shows a 50 000-fold decrease in modulus upon heating by ∼10 °C. …”