戻る
「早戻しボタン」を押すと検索画面に戻ります。 [閉じる]

コーパス検索結果 (1語後でソート)

通し番号をクリックするとPubMedの該当ページを表示します
1 d by exposure to hypotonic solutions (10-33% hypotonicity).
2  full activation of the cotransporter during hypotonicity.
3 ifferential extracellular ATP release during hypotonicity.
4 the renin-angiotensin-aldosterone system and hypotonicity.
5 4, VR-OAC, TRP12, and VRL-2) is activated by hypotonicity.
6 pyrimidine uridine triphosphate (UTP) and by hypotonicity.
7             Exposure of either MSC or MLC to hypotonicity (190 mOsm) rapidly increased cell volume an
8                     ICl(swell) activation by hypotonicity (240 mosm) was only partially inhibited by
9                                              Hypotonicity (25 %) failed to evoke any change in membra
10                                              Hypotonicity (50%) and mechanical stretch increased ATP
11 M) decreased both the inward and the outward hypotonicity-activated chloride current.
12                                              Hypotonicity also activated Ca2+ entry, which was requir
13            The response of ERK activation to hypotonicity also required Ca2+ entry and depended on ty
14 ed Ca2+ entry and loss of RVD in response to hypotonicity, although the extent of cell swelling was s
15 g site, rendered the channel unresponsive to hypotonicity and heat but responsive to 4alpha-phorbol 1
16  and negatively affect channel activation by hypotonicity and heat.
17                                              Hypotonicity and high glucose increased intracellular Ca
18 rtain early CUS lesions were associated with hypotonicity and lower attention around term-equivalent
19 nEBP displayed nuclear export in response to hypotonicity and nuclear import in response to hypertoni
20 duction by EtOH of MT-I mRNA is secondary to hypotonicity, and (3) that hyperosmotic/hypertonic expos
21      WMD was associated with poor attention, hypotonicity, and poor quality of movement.
22 ncreased transepithelial flux in response to hypotonicity are unknown.
23 , a key molecular model, can be activated by hypotonicity, but the mechanism of activation is unclear
24 ies and that AQP5 reduction by extracellular hypotonicity can be mediated by TRPV4.
25 id 4 (TRPV4), a cation channel responsive to hypotonicity, can also be activated by warm temperatures
26 eta-cells to hypotonic solutions (10 and 33% hypotonicity) caused an immediate increase in cell volum
27 l conditions and in response to secretin and hypotonicity, cysts from PCK rats expanded to a greater
28 om a hypertonic to isotonic medium (relative hypotonicity) decreased the membrane abundance of Slc26a
29 rtantly, point mutation of Tyr-253 abolished hypotonicity-dependent channel activity.
30 on of wild-type Lyn dramatically potentiated hypotonicity-dependent TRPV4 tyrosine phosphorylation wh
31  demonstrate that (i) activation of TRPV4 by hypotonicity depends on AQP5, not on cell swelling per s
32                                              Hypotonicity elicited a regulatory volume decrease (RVD)
33 xposure of salivary gland cells and acini to hypotonicity elicited an increase in cell volume and act
34         Lastly, knocking down TRPV4 impaired hypotonicity-evoked airway epithelial ATP release.
35                                 Importantly, hypotonicity-evoked ATP release from freshly excised tra
36                                 We find that hypotonicity facilitates TRPM7 at elevated intracellular
37 of HIV-transmitting leukocytes by its unique hypotonicity; however, the successful oral transmission
38 ormone analogue, dDAVP, resulted in systemic hypotonicity in trpv4-/- mice, despite the fact that the
39                                 Furthermore, hypotonicity increased the association and surface expre
40               This finding was attributed to hypotonicity increasing uEV size (more EVs reach the NTA
41                                  Glucose and hypotonicity induced cell swelling stimulate insulin rel
42                                    Yoda1 and hypotonicity induced insulin release were significantly
43  a gain-of-function screen for modulators of hypotonicity-induced ATP release using HEK-293 cells and
44 ulate cellular cholesterol, as modulators of hypotonicity-induced ATP release.
45 chanosensitive ion channel blockers dampened hypotonicity-induced ATP release.
46  to hypertonicity-induced cell shrinkage and hypotonicity-induced cell swelling.
47 n by ClC-3 siRNA prevented the activation of hypotonicity-induced chloride currents, and arrested cel
48 nic acid (DIDS, 100 microM) also blocked the hypotonicity-induced current in a reversible manner.
49 mily with unknown function, as essential for hypotonicity-induced iodide influx.
50 V4 and that these channels were activated by hypotonicity-induced membrane stretch.
51 cells, which dominate our cultures, mediated hypotonicity-induced nucleotide release.
52 satrienoic acid is primarily responsible for hypotonicity-induced responses.
53 facilitates the time course and amplitude of hypotonicity-induced swelling and regulatory volume decr
54 ion channels (VRAC), as a vital regulator of hypotonicity-induced, but not DAMP-induced, NLRP3 inflam
55 s expressed on cholangiocyte cilia, and that hypotonicity induces an increase in intracellular Ca(2+)
56    For the hypotonic solution, we found that hypotonicity inhibited CFTR-mediated chloride secretion
57 ecomes dephosphorylated during incubation in hypotonicity, leading to a dramatic increase in KCC3 fun
58                     Apart from its gating by hypotonicity, little is known about TRPV4 regulation.
59 rence, -0.233; 95% CI, -0.423 to -0.044) and hypotonicity (mean difference, 0.240; 95% CI, 0.014 to 0
60 fference, -0.346; 95% CI, -0.609 to -0.083), hypotonicity (mean difference, 0.358; 95% CI, 0.055 to 0
61 F, we investigated the effects of hyper- and hypotonicity on ion transport processes.
62                    The stimulatory effect of hypotonicity on K(+) flux is absent in wnk, fray, or Ncc
63               The influence of extracellular hypotonicity on the relationship between cell volume (V(
64 channels can be strongly activated by either hypotonicity or exposure to the potent agonist 4alphaPDD
65  higher, and it was not further increased by hypotonicity or inhibited by WNK3.
66                                              Hypotonicity potentiated ATP release into the apical and
67                                              Hypotonicity-promoted ATP release and dye uptake in prim
68 CCs are inactive and phosphorylated, whereas hypotonicity promotes their dephosphorylation and activa
69 ay increase sodium removal at the expense of hypotonicity, reduced blood volume refilling, and intrad
70                    Admixtures with excessive hypotonicity (sodium = 103 mEq/L), in contrast, decrease
71 3-T991A/T1048A could be further activated by hypotonicity, suggesting that additional phosphorylation
72 RVD) over a period comparable to that of the hypotonicity-triggered increase in Isc.
73                     The tracheobronchial ASL hypotonicity was hypothesized to reflect collection-indu
74 iggered by increased tubular flow or by bath hypotonicity, were approximately three-fold greater when
75 ctional manner; TonEBP activity decreases in hypotonicity, whereas it increases in hypertonicity.
76 on-selective channel is gated by exposure to hypotonicity within the physiological range.