Search alternatives:
nm decrease » nn decrease (Expand Search), _ decrease (Expand Search), gy decreased (Expand Search)
we decrease » _ decrease (Expand Search), nn decrease (Expand Search), teer decrease (Expand Search)
a decrease » _ decrease (Expand Search), _ decreased (Expand Search), _ decreases (Expand Search)
Showing 1,001 - 1,020 results of 101,399 for search '(( 5 ((nm decrease) OR (a decrease)) ) OR ( 5 ((we decrease) OR (mean decrease)) ))', query time: 1.55s Refine Results
  1. 1001
    AQP1 abundance.

    AQP1 abundance. by Sophie Constantin Lütken (689916)

    Published 2015
    Subjects:
    Save to List
    Saved in:
  2. 1002
    AQP4 abundance.

    AQP4 abundance. by Sophie Constantin Lütken (689916)

    Published 2015
    Subjects:
    Save to List
    Saved in:
  3. 1003
    (Pro)renin receptor abundance.

    (Pro)renin receptor abundance. by Sophie Constantin Lütken (689916)

    Published 2015
    Subjects:
    Save to List
    Saved in:
  4. 1004
    Type 1<sub>A</sub> angiotensin II receptor abundance.

    Type 1<sub>A</sub> angiotensin II receptor abundance. by Sophie Constantin Lütken (689916)

    Published 2015
    Subjects:
    Save to List
    Saved in:
  5. 1005
    Gsα subunit abundance.

    Gsα subunit abundance. by Sophie Constantin Lütken (689916)

    Published 2015
    Subjects:
    Save to List
    Saved in:
  6. 1006
    Meta data to S5 Fig.

    Meta data to S5 Fig. by Xiaowen Jiang (8291814)

    Published 2024
    “…Using the zebrafish pectoral fin bud as a model for early vertebrate fin/limb development, we found that K<sup>+</sup> channels also scale this anatomical structure, and we determined how one K<sup>+</sup>-leak channel, Kcnk5b, integrates into its developmental program. …”
    Save to List
    Saved in:
  7. 1007
    Meta data to Fig 5.

    Meta data to Fig 5. by Xiaowen Jiang (8291814)

    Published 2024
    “…Using the zebrafish pectoral fin bud as a model for early vertebrate fin/limb development, we found that K<sup>+</sup> channels also scale this anatomical structure, and we determined how one K<sup>+</sup>-leak channel, Kcnk5b, integrates into its developmental program. …”
    Save to List
    Saved in:
  8. 1008
    Alkaline Phosphatase, Soluble Extracellular Adenine Nucleotides, and Adenosine Production after Infant Cardiopulmonary Bypass

    Alkaline Phosphatase, Soluble Extracellular Adenine Nucleotides, and Adenosine Production after Infant Cardiopulmonary Bypass by Jesse A. Davidson (3158913)

    Published 2016
    “…Inhibition of alkaline phosphatase led to a marked decrease in 13C5-adenosine production (11.9μmol/L vs 2.7μmol/L; p<0.0001). …”
    Save to List
    Saved in:
  9. 1009
    Data_Sheet_1_Secondhand Smoke Decreased Excitability and Altered Action Potential Characteristics of Cardiac Vagal Neurons in Mice.PDF

    Data_Sheet_1_Secondhand Smoke Decreased Excitability and Altered Action Potential Characteristics of Cardiac Vagal Neurons in Mice.PDF by Junqing Sun (4688998)

    Published 2021
    “…Perfusion with apamin (20 nM) magnified these SHS-induced effects, suggesting reduced SK channel activity may serve to minimize the SHS-induced decreases in CVNs excitability. …”
    Save to List
    Saved in:
  10. 1010
    Decreased BK responsiveness of p38 activation is evident in both PS-1 and PS-2 FAD mutant AD fibroblasts.

    Decreased BK responsiveness of p38 activation is evident in both PS-1 and PS-2 FAD mutant AD fibroblasts. by Graziella Mendonsa (374346)

    Published 2013
    Save to List
    Saved in:
  11. 1011
    Distinct effects on calcium channel activation of <i>CACNA1I</i> disease-associated amino acid substitutions A398E/V and M1425V/I.

    Distinct effects on calcium channel activation of <i>CACNA1I</i> disease-associated amino acid substitutions A398E/V and M1425V/I. by Yousra El Ghaleb (22075892)

    Published 2025
    Subjects:
    Save to List
    Saved in:
  12. 1012
    Fig 5 -

    Fig 5 - by Maha Rehman (17114332)

    Published 2025
    Save to List
    Saved in:
  13. 1013
    Inner medullary expression of AQP2 and p-AQP2.

    Inner medullary expression of AQP2 and p-AQP2. by Sophie Constantin Lütken (689916)

    Published 2015
    Subjects:
    Save to List
    Saved in:
  14. 1014
    Inner medullary expression of AQP1.

    Inner medullary expression of AQP1. by Sophie Constantin Lütken (689916)

    Published 2015
    Subjects:
    Save to List
    Saved in:
  15. 1015
    Pretreatment echocardiagraphic parameters.

    Pretreatment echocardiagraphic parameters. by Sophie Constantin Lütken (689916)

    Published 2015
    Subjects:
    Save to List
    Saved in:
  16. 1016
    Inner medullary expression of AQP3 and Na-K-ATPase.

    Inner medullary expression of AQP3 and Na-K-ATPase. by Sophie Constantin Lütken (689916)

    Published 2015
    Subjects:
    Save to List
    Saved in:
  17. 1017
    Inner medullary expression of AQP4.

    Inner medullary expression of AQP4. by Sophie Constantin Lütken (689916)

    Published 2015
    Subjects:
    Save to List
    Saved in:
  18. 1018
    Inner medullary expression of the type 1<sub>A</sub> angiotensin II receptor.

    Inner medullary expression of the type 1<sub>A</sub> angiotensin II receptor. by Sophie Constantin Lütken (689916)

    Published 2015
    Subjects:
    Save to List
    Saved in:
  19. 1019
    Inner medullary expression of the Gsα subunit.

    Inner medullary expression of the Gsα subunit. by Sophie Constantin Lütken (689916)

    Published 2015
    Subjects:
    Save to List
    Saved in:
  20. 1020
    Inner medullary expression of the (pro)renin receptor.

    Inner medullary expression of the (pro)renin receptor. by Sophie Constantin Lütken (689916)

    Published 2015
    Subjects:
    Save to List
    Saved in:

Search Tools: