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Showing 1 - 20 results of 475 for search '(( via ((teer decrease) OR (larger decrease)) ) OR ( via largest decrease ))', query time: 0.43s Refine Results
  1. 1
    GXM decreases the trans-endothelial electrical resistance (TEER) and transmigration of <i>C</i>. <i>neoformans</i> through HBECs in a blood brain barrier (BBB) model.

    GXM decreases the trans-endothelial electrical resistance (TEER) and transmigration of <i>C</i>. <i>neoformans</i> through HBECs in a blood brain barrier (BBB) model. by Hiu Ham Lee (15374677)

    Published 2023
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  2. 2
    Exploring the Potential of Metal–Organic Frameworks for Cryogenic Helium-Based Gas Gap Heat Switches via High-Throughput Computational Screening

    Exploring the Potential of Metal–Organic Frameworks for Cryogenic Helium-Based Gas Gap Heat Switches via High-Throughput Computational Screening by Lingxiao Qin (18181961)

    Published 2024
    “…Structure–performance analysis reveals that 1/<i>v</i><sub>sor</sub> consistently increases first and then decreases with pore limiting diameter, largest cavity diameter, available pore volume, accessible surface area, helium void fraction, and bulk density. …”
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  3. 3
    The top 10 putative metabolites with the largest negative fold change between normal and thin cows.

    The top 10 putative metabolites with the largest negative fold change between normal and thin cows. by Bhuripit Saraphol (20855573)

    Published 2025
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  4. 4
    The top 10 putative metabolites with the largest positive fold change between normal and thin cows.

    The top 10 putative metabolites with the largest positive fold change between normal and thin cows. by Bhuripit Saraphol (20855573)

    Published 2025
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  5. 5
    Discovery of Selective Dopamine Receptor Ligands Derived from (−)-Stepholidine via C‑3 Alkoxylation and C‑3/C‑9 Dialkoxylation

    Discovery of Selective Dopamine Receptor Ligands Derived from (−)-Stepholidine via C‑3 Alkoxylation and C‑3/C‑9 Dialkoxylation by Hari K. Namballa (13363787)

    Published 2023
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  6. 6
    Discovery of Selective Dopamine Receptor Ligands Derived from (−)-Stepholidine via C‑3 Alkoxylation and C‑3/C‑9 Dialkoxylation

    Discovery of Selective Dopamine Receptor Ligands Derived from (−)-Stepholidine via C‑3 Alkoxylation and C‑3/C‑9 Dialkoxylation by Hari K. Namballa (13363787)

    Published 2023
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  7. 7
    S1 data_Hazen Main and Blister 2017 absolute diatom counts from Contrasting the ecological effects of decreasing ice cover versus accelerated glacial melt on the High Arctic's largest lake

    S1 data_Hazen Main and Blister 2017 absolute diatom counts from Contrasting the ecological effects of decreasing ice cover versus accelerated glacial melt on the High Arctic's larg... by Neal Michelutti (688828)

    Published 2020
    “…Lake Hazen, the High Arctic's largest lake, has received an approximately 10-fold increase in glacial meltwater since its catchment glaciers shifted from net mass gain to net mass loss in 2007 CE, concurrent with recent warming. …”
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  8. 8
    Cell-to-cell mtDNA variability for larger mtDNA populations.

    Cell-to-cell mtDNA variability for larger mtDNA populations. by Robert C. Glastad (10692277)

    Published 2023
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  9. 9
    MST1 upregulates CD36 expression via PPARγ.

    MST1 upregulates CD36 expression via PPARγ. by Jianyang Li (461703)

    Published 2024
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  10. 10
    Image 1_Using sodium glycodeoxycholate to develop a temporary infant-like gut barrier model, in vitro.pdf

    Image 1_Using sodium glycodeoxycholate to develop a temporary infant-like gut barrier model, in vitro.pdf by Francesca Bietto (21511316)

    Published 2025
    “…</p>Results<p>Our research demonstrates that GDC decreases Caco-2/HT29-MTX Trans-Epithelial Electrical Resistance (TEER) and increases paracellular permeability, without inflammation or cytotoxicity. …”
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  11. 11
    Table 1_Using sodium glycodeoxycholate to develop a temporary infant-like gut barrier model, in vitro.docx

    Table 1_Using sodium glycodeoxycholate to develop a temporary infant-like gut barrier model, in vitro.docx by Francesca Bietto (21511316)

    Published 2025
    “…</p>Results<p>Our research demonstrates that GDC decreases Caco-2/HT29-MTX Trans-Epithelial Electrical Resistance (TEER) and increases paracellular permeability, without inflammation or cytotoxicity. …”
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  12. 12
    Image 5_Using sodium glycodeoxycholate to develop a temporary infant-like gut barrier model, in vitro.pdf

    Image 5_Using sodium glycodeoxycholate to develop a temporary infant-like gut barrier model, in vitro.pdf by Francesca Bietto (21511316)

    Published 2025
    “…</p>Results<p>Our research demonstrates that GDC decreases Caco-2/HT29-MTX Trans-Epithelial Electrical Resistance (TEER) and increases paracellular permeability, without inflammation or cytotoxicity. …”
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  13. 13
    Image 4_Using sodium glycodeoxycholate to develop a temporary infant-like gut barrier model, in vitro.pdf

    Image 4_Using sodium glycodeoxycholate to develop a temporary infant-like gut barrier model, in vitro.pdf by Francesca Bietto (21511316)

    Published 2025
    “…</p>Results<p>Our research demonstrates that GDC decreases Caco-2/HT29-MTX Trans-Epithelial Electrical Resistance (TEER) and increases paracellular permeability, without inflammation or cytotoxicity. …”
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  14. 14
    Image 2_Using sodium glycodeoxycholate to develop a temporary infant-like gut barrier model, in vitro.pdf

    Image 2_Using sodium glycodeoxycholate to develop a temporary infant-like gut barrier model, in vitro.pdf by Francesca Bietto (21511316)

    Published 2025
    “…</p>Results<p>Our research demonstrates that GDC decreases Caco-2/HT29-MTX Trans-Epithelial Electrical Resistance (TEER) and increases paracellular permeability, without inflammation or cytotoxicity. …”
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  15. 15
    Image 3_Using sodium glycodeoxycholate to develop a temporary infant-like gut barrier model, in vitro.pdf

    Image 3_Using sodium glycodeoxycholate to develop a temporary infant-like gut barrier model, in vitro.pdf by Francesca Bietto (21511316)

    Published 2025
    “…</p>Results<p>Our research demonstrates that GDC decreases Caco-2/HT29-MTX Trans-Epithelial Electrical Resistance (TEER) and increases paracellular permeability, without inflammation or cytotoxicity. …”
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  16. 16
    Inclusion and exclusion criteria delineated via the PCC (Population, Concept, Context) search framework.

    Inclusion and exclusion criteria delineated via the PCC (Population, Concept, Context) search framework. by Rabia Asghar (18840759)

    Published 2024
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  17. 17
    Room-Temperature Self-Healable Glassy Semicrystalline Polymers via Ionic Aggregations

    Room-Temperature Self-Healable Glassy Semicrystalline Polymers via Ionic Aggregations by Pengxiang Si (5676260)

    Published 2024
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  18. 18
    Room-Temperature Self-Healable Glassy Semicrystalline Polymers via Ionic Aggregations

    Room-Temperature Self-Healable Glassy Semicrystalline Polymers via Ionic Aggregations by Pengxiang Si (5676260)

    Published 2024
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  19. 19
    Room-Temperature Self-Healable Glassy Semicrystalline Polymers via Ionic Aggregations

    Room-Temperature Self-Healable Glassy Semicrystalline Polymers via Ionic Aggregations by Pengxiang Si (5676260)

    Published 2024
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  20. 20
    Room-Temperature Self-Healable Glassy Semicrystalline Polymers via Ionic Aggregations

    Room-Temperature Self-Healable Glassy Semicrystalline Polymers via Ionic Aggregations by Pengxiang Si (5676260)

    Published 2024
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