Showing 9,661 - 9,680 results of 224,509 for search '(( a ((((teer decrease) OR (a decrease))) OR (linear decrease)) ) OR ( a largest decrease ))', query time: 1.83s Refine Results
  1. 9661

    Image_3_Host autophagy limits Toxoplasma gondii proliferation in the absence of IFN-γ by affecting the hijack of Rab11A-positive vesicles.TIF by Lingtao Pan (9433257)

    Published 2022
    “…Further, after T. gondii infection, the abundance of Rab11A remained stable in wild-type HeLa cells but decreased in atg5<sup>−/−</sup> mutant. …”
  2. 9662

    Table_1_Host autophagy limits Toxoplasma gondii proliferation in the absence of IFN-γ by affecting the hijack of Rab11A-positive vesicles.docx by Lingtao Pan (9433257)

    Published 2022
    “…Further, after T. gondii infection, the abundance of Rab11A remained stable in wild-type HeLa cells but decreased in atg5<sup>−/−</sup> mutant. …”
  3. 9663

    Image_1_Host autophagy limits Toxoplasma gondii proliferation in the absence of IFN-γ by affecting the hijack of Rab11A-positive vesicles.TIF by Lingtao Pan (9433257)

    Published 2022
    “…Further, after T. gondii infection, the abundance of Rab11A remained stable in wild-type HeLa cells but decreased in atg5<sup>−/−</sup> mutant. …”
  4. 9664

    Image_4_Host autophagy limits Toxoplasma gondii proliferation in the absence of IFN-γ by affecting the hijack of Rab11A-positive vesicles.TIF by Lingtao Pan (9433257)

    Published 2022
    “…Further, after T. gondii infection, the abundance of Rab11A remained stable in wild-type HeLa cells but decreased in atg5<sup>−/−</sup> mutant. …”
  5. 9665

    Image_2_Host autophagy limits Toxoplasma gondii proliferation in the absence of IFN-γ by affecting the hijack of Rab11A-positive vesicles.TIF by Lingtao Pan (9433257)

    Published 2022
    “…Further, after T. gondii infection, the abundance of Rab11A remained stable in wild-type HeLa cells but decreased in atg5<sup>−/−</sup> mutant. …”
  6. 9666

    Data Sheet 1_Impact of atopic dermatitis on renal dysfunction: insights from patient data and animal models.pdf by Arisa Ikeda (20912510)

    Published 2025
    “…In addition, the gene expression of slit diaphragm- and podocyte-related proteins such as nephrin, podocin, and synaptopodin decreased, whereas the gene expression of inflammatory mediators such as S100A8 and S100A9 increased.…”
  7. 9667

    Image_5_Host autophagy limits Toxoplasma gondii proliferation in the absence of IFN-γ by affecting the hijack of Rab11A-positive vesicles.TIF by Lingtao Pan (9433257)

    Published 2022
    “…Further, after T. gondii infection, the abundance of Rab11A remained stable in wild-type HeLa cells but decreased in atg5<sup>−/−</sup> mutant. …”
  8. 9668

    Data Sheet 1_Knockdown of annexin A2 enhances the host cell apoptosis induced by Eimeria tenella.zip by Jixia Wang (1685902)

    Published 2025
    “…<p>Annexin A2 (ANXA2) is a multifunctional protein involved in host-pathogen interactions during viral and parasitic infections. …”
  9. 9669

    Data_Sheet_1_Host autophagy limits Toxoplasma gondii proliferation in the absence of IFN-γ by affecting the hijack of Rab11A-positive vesicles.docx by Lingtao Pan (9433257)

    Published 2022
    “…Further, after T. gondii infection, the abundance of Rab11A remained stable in wild-type HeLa cells but decreased in atg5<sup>−/−</sup> mutant. …”
  10. 9670

    <i>as-</i>APF increases p53 expression by modulating USP2a and MDM2 in TRT-HU1, immortalized human normal bladder epithelial cells. by Jayoung Kim (153487)

    Published 2013
    “…(<b>B</b>) Endogenous USP2a level is rapidly decreased in response to <i>as</i>-APF treatment in TRT-HU1 cells. …”
  11. 9671

    The relative velocity change of cell migration in A549 and H460 cells transfected with Flag-LSD1 or LSD1 siRNA plasmid, respectively. by Tangfeng Lv (327103)

    Published 2013
    “…The migration rate gradually increased after transfection of Flag-LSD1 plasmid into the A549 cells, which was significantly different from the velocity at 24 h and 48 h (*<i>P</i><0.05). …”
  12. 9672

    Data Sheet 6_Mechanistic study of the hsa_circ_0074158 binding EIF4A3 impairing sepsis-induced endothelial barrier.zip by Haiyan Liao (6100043)

    Published 2025
    “…Mechanistically, RNA pull-down and RNA RIP assays demonstrated that hsa_circ_0074158 directly binds to the RNA-binding protein (RBP) EIF4A3, which decreases the stability of CTNNA1 (mRNA) and the production of α-catenin, subsequently impairing endothelial barrier function in sepsis. …”
  13. 9673

    Data Sheet 1_Mechanistic study of the hsa_circ_0074158 binding EIF4A3 impairing sepsis-induced endothelial barrier.docx by Haiyan Liao (6100043)

    Published 2025
    “…Mechanistically, RNA pull-down and RNA RIP assays demonstrated that hsa_circ_0074158 directly binds to the RNA-binding protein (RBP) EIF4A3, which decreases the stability of CTNNA1 (mRNA) and the production of α-catenin, subsequently impairing endothelial barrier function in sepsis. …”
  14. 9674

    Data Sheet 7_Mechanistic study of the hsa_circ_0074158 binding EIF4A3 impairing sepsis-induced endothelial barrier.zip by Haiyan Liao (6100043)

    Published 2025
    “…Mechanistically, RNA pull-down and RNA RIP assays demonstrated that hsa_circ_0074158 directly binds to the RNA-binding protein (RBP) EIF4A3, which decreases the stability of CTNNA1 (mRNA) and the production of α-catenin, subsequently impairing endothelial barrier function in sepsis. …”
  15. 9675

    Data Sheet 3_Mechanistic study of the hsa_circ_0074158 binding EIF4A3 impairing sepsis-induced endothelial barrier.zip by Haiyan Liao (6100043)

    Published 2025
    “…Mechanistically, RNA pull-down and RNA RIP assays demonstrated that hsa_circ_0074158 directly binds to the RNA-binding protein (RBP) EIF4A3, which decreases the stability of CTNNA1 (mRNA) and the production of α-catenin, subsequently impairing endothelial barrier function in sepsis. …”
  16. 9676

    Table 1_Mechanistic study of the hsa_circ_0074158 binding EIF4A3 impairing sepsis-induced endothelial barrier.xlsx by Haiyan Liao (6100043)

    Published 2025
    “…Mechanistically, RNA pull-down and RNA RIP assays demonstrated that hsa_circ_0074158 directly binds to the RNA-binding protein (RBP) EIF4A3, which decreases the stability of CTNNA1 (mRNA) and the production of α-catenin, subsequently impairing endothelial barrier function in sepsis. …”
  17. 9677

    Data Sheet 2_Mechanistic study of the hsa_circ_0074158 binding EIF4A3 impairing sepsis-induced endothelial barrier.zip by Haiyan Liao (6100043)

    Published 2025
    “…Mechanistically, RNA pull-down and RNA RIP assays demonstrated that hsa_circ_0074158 directly binds to the RNA-binding protein (RBP) EIF4A3, which decreases the stability of CTNNA1 (mRNA) and the production of α-catenin, subsequently impairing endothelial barrier function in sepsis. …”
  18. 9678

    Image 1_Mechanistic study of the hsa_circ_0074158 binding EIF4A3 impairing sepsis-induced endothelial barrier.tif by Haiyan Liao (6100043)

    Published 2025
    “…Mechanistically, RNA pull-down and RNA RIP assays demonstrated that hsa_circ_0074158 directly binds to the RNA-binding protein (RBP) EIF4A3, which decreases the stability of CTNNA1 (mRNA) and the production of α-catenin, subsequently impairing endothelial barrier function in sepsis. …”
  19. 9679

    Data Sheet 4_Mechanistic study of the hsa_circ_0074158 binding EIF4A3 impairing sepsis-induced endothelial barrier.zip by Haiyan Liao (6100043)

    Published 2025
    “…Mechanistically, RNA pull-down and RNA RIP assays demonstrated that hsa_circ_0074158 directly binds to the RNA-binding protein (RBP) EIF4A3, which decreases the stability of CTNNA1 (mRNA) and the production of α-catenin, subsequently impairing endothelial barrier function in sepsis. …”
  20. 9680

    Data Sheet 5_Mechanistic study of the hsa_circ_0074158 binding EIF4A3 impairing sepsis-induced endothelial barrier.zip by Haiyan Liao (6100043)

    Published 2025
    “…Mechanistically, RNA pull-down and RNA RIP assays demonstrated that hsa_circ_0074158 directly binds to the RNA-binding protein (RBP) EIF4A3, which decreases the stability of CTNNA1 (mRNA) and the production of α-catenin, subsequently impairing endothelial barrier function in sepsis. …”