Showing 801 - 820 results of 99,906 for search '(( 5 ((nn decrease) OR (a decrease)) ) OR ( 5 ((w decrease) OR (teer decrease)) ))', query time: 1.53s Refine Results
  1. 801

    Table 6_Comparative genomics and metabolomics reveal phytohormone production, nutrient acquisition, and osmotic stress tolerance in Azotobacter chroococcum W5.docx by M. Elakkya (21760439)

    Published 2025
    “…Under salt and osmotic stress, A. chroococcum W5 metabolomic profiling revealed adaptive responses, including elevated levels of osmoprotectants (proline, glycerol) and oxidative stress markers such as 2-hydroxyglutarate, while putrescine and glycine decreased.…”
  2. 802

    Table 2_Comparative genomics and metabolomics reveal phytohormone production, nutrient acquisition, and osmotic stress tolerance in Azotobacter chroococcum W5.docx by M. Elakkya (21760439)

    Published 2025
    “…Under salt and osmotic stress, A. chroococcum W5 metabolomic profiling revealed adaptive responses, including elevated levels of osmoprotectants (proline, glycerol) and oxidative stress markers such as 2-hydroxyglutarate, while putrescine and glycine decreased.…”
  3. 803

    Image 2_Comparative genomics and metabolomics reveal phytohormone production, nutrient acquisition, and osmotic stress tolerance in Azotobacter chroococcum W5.tif by M. Elakkya (21760439)

    Published 2025
    “…Under salt and osmotic stress, A. chroococcum W5 metabolomic profiling revealed adaptive responses, including elevated levels of osmoprotectants (proline, glycerol) and oxidative stress markers such as 2-hydroxyglutarate, while putrescine and glycine decreased.…”
  4. 804

    Table 1_Comparative genomics and metabolomics reveal phytohormone production, nutrient acquisition, and osmotic stress tolerance in Azotobacter chroococcum W5.xlsx by M. Elakkya (21760439)

    Published 2025
    “…Under salt and osmotic stress, A. chroococcum W5 metabolomic profiling revealed adaptive responses, including elevated levels of osmoprotectants (proline, glycerol) and oxidative stress markers such as 2-hydroxyglutarate, while putrescine and glycine decreased.…”
  5. 805

    Image 1_Comparative genomics and metabolomics reveal phytohormone production, nutrient acquisition, and osmotic stress tolerance in Azotobacter chroococcum W5.jpeg by M. Elakkya (21760439)

    Published 2025
    “…Under salt and osmotic stress, A. chroococcum W5 metabolomic profiling revealed adaptive responses, including elevated levels of osmoprotectants (proline, glycerol) and oxidative stress markers such as 2-hydroxyglutarate, while putrescine and glycine decreased.…”
  6. 806

    Table 7_Comparative genomics and metabolomics reveal phytohormone production, nutrient acquisition, and osmotic stress tolerance in Azotobacter chroococcum W5.xlsx by M. Elakkya (21760439)

    Published 2025
    “…Under salt and osmotic stress, A. chroococcum W5 metabolomic profiling revealed adaptive responses, including elevated levels of osmoprotectants (proline, glycerol) and oxidative stress markers such as 2-hydroxyglutarate, while putrescine and glycine decreased.…”
  7. 807
  8. 808
  9. 809

    Image_1_TRAPS mutations in Tnfrsf1a decrease the responsiveness to TNFα via reduced cell surface expression of TNFR1.tif by Takahiko Akagi (13138338)

    Published 2022
    “…T79M is a known mutation responsible for TRAPS, whereas G87V is a TRAPS mutation that we have reported, and T90I is a variant of unknown significance. …”
  10. 810

    Image_4_TRAPS mutations in Tnfrsf1a decrease the responsiveness to TNFα via reduced cell surface expression of TNFR1.tif by Takahiko Akagi (13138338)

    Published 2022
    “…T79M is a known mutation responsible for TRAPS, whereas G87V is a TRAPS mutation that we have reported, and T90I is a variant of unknown significance. …”
  11. 811

    Image_7_TRAPS mutations in Tnfrsf1a decrease the responsiveness to TNFα via reduced cell surface expression of TNFR1.tif by Takahiko Akagi (13138338)

    Published 2022
    “…T79M is a known mutation responsible for TRAPS, whereas G87V is a TRAPS mutation that we have reported, and T90I is a variant of unknown significance. …”
  12. 812

    Image_3_TRAPS mutations in Tnfrsf1a decrease the responsiveness to TNFα via reduced cell surface expression of TNFR1.tif by Takahiko Akagi (13138338)

    Published 2022
    “…T79M is a known mutation responsible for TRAPS, whereas G87V is a TRAPS mutation that we have reported, and T90I is a variant of unknown significance. …”
  13. 813

    Image_6_TRAPS mutations in Tnfrsf1a decrease the responsiveness to TNFα via reduced cell surface expression of TNFR1.tif by Takahiko Akagi (13138338)

    Published 2022
    “…T79M is a known mutation responsible for TRAPS, whereas G87V is a TRAPS mutation that we have reported, and T90I is a variant of unknown significance. …”
  14. 814

    Image_2_TRAPS mutations in Tnfrsf1a decrease the responsiveness to TNFα via reduced cell surface expression of TNFR1.tif by Takahiko Akagi (13138338)

    Published 2022
    “…T79M is a known mutation responsible for TRAPS, whereas G87V is a TRAPS mutation that we have reported, and T90I is a variant of unknown significance. …”
  15. 815
  16. 816
  17. 817

    Ligand-Controlled Magnetic Interactions in Mn<sub>4</sub> Clusters by Erik Kampert (2330428)

    Published 2009
    “…Experimentally measured magnetic moments in high magnetic fields show that, upon electron density withdrawal, the main antiferromagnetic exchange constant <i>J</i><sub>1</sub> decreases from −2.2 K for the [Mn<sub>4</sub>(OAc)<sub>4</sub>] cluster to −1.9 K for the [Mn<sub>4</sub>(H<sub>5</sub>C<sub>6</sub>COO)<sub>4</sub>] cluster and −0.6 K for the [Mn<sub>4</sub>(F<sub>3</sub>CCOO)<sub>4</sub>] cluster, while <i>J</i><sub>2</sub> decreases from −1.1 K to nearly 0 K and <i>J</i><sub>3</sub> changes to a small ferromagnetic coupling. …”
  18. 818

    Ligand-Controlled Magnetic Interactions in Mn<sub>4</sub> Clusters by Erik Kampert (2330428)

    Published 2009
    “…Experimentally measured magnetic moments in high magnetic fields show that, upon electron density withdrawal, the main antiferromagnetic exchange constant <i>J</i><sub>1</sub> decreases from −2.2 K for the [Mn<sub>4</sub>(OAc)<sub>4</sub>] cluster to −1.9 K for the [Mn<sub>4</sub>(H<sub>5</sub>C<sub>6</sub>COO)<sub>4</sub>] cluster and −0.6 K for the [Mn<sub>4</sub>(F<sub>3</sub>CCOO)<sub>4</sub>] cluster, while <i>J</i><sub>2</sub> decreases from −1.1 K to nearly 0 K and <i>J</i><sub>3</sub> changes to a small ferromagnetic coupling. …”
  19. 819
  20. 820

    Rac1 activity decreases in the presence of DECMA-1 and E-cadherin:Fc in 3-D cell aggregates. by Khameeka N. Kitt (227731)

    Published 2011
    “…<p>3-D MDCK cell aggregates were incubated with 10 µg/ml of DECMA-1 monovalent Fab' fragments (A), or 10 µg/ml of purified E-cadherin:Fc extracellular domain (E), or 10 µg/ml of Fc protein (I) for the indicated times. …”