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1 bolic products in T. triangulare leaves upon water deprivation.
2 in systemic blood pressure during periods of water deprivation.
3 ges1(-/-) mice at baseline and after 12 h of water deprivation.
4 ve sodium balance and a better adaptation to water deprivation.
5 e LHA that was not evident after 24 hours of water deprivation.
6 n includes the neurons that are activated by water deprivation.
7 ed stimulus (CS) through different levels of water deprivation.
8 26A7 are differentially regulated in OMCD in water deprivation.
9 proximately 55% (P < 0.05 versus control) in water deprivation.
10 ained polyuric after DDAVP administration or water deprivation.
11 thalamo-neurohypophysial system (HNS) during water deprivation.
12 +/- 59 mOsm) did not change from that before water deprivation.
13 tion), but a beneficial effect in countering water deprivation.
14 food) or furosemide; or (2) antidiuretic by water deprivation.
15 le to concentrate their urine in response to water deprivation.
16 mmunohistological assessment of reactions to water deprivation.
17 leus) suppressed water intake following 24 h water deprivation.
18 selves activated by glutamate increases with water deprivation.
19 incubator (37 degrees C) for 30 min/h during water deprivation.
20 into how plants regulate their responses to water deprivation.
21 egulation of AE1 and SLC26A7 was examined in water deprivation, a condition known to increase the osm
22 nents of task performance, such as handling, water deprivation, access to water used as a reward, or
26 n in the subesophageal zone, is activated by water deprivation and is specific to thirsty seeking.
28 neurones are synaptically influenced during water deprivation, and that these neurones differentiall
32 and heterozygous mice remained active after water deprivation, body weight decreased by 20-22%, seru
34 io, and second, characterization factors for water deprivation (CFWD) are calculated, integrating the
35 ing stage to a range of water limitation and water deprivation conditions and then evaluated physiolo
38 < 0.025), whereas urine osmolalities before water deprivation did not differ among the genotypes.
39 renal osmotic gradient by submitting mice to water deprivation, diuretic administration, or high-Na(+
41 NKCC2A-/- compared with wild-type mice, but water deprivation elevated urine osmolarity to similar l
42 creased basal Purea in initial IMCD, whereas water deprivation for 1 d increased AVP-stimulated Purea
47 ulated Purea in the IMCD3 subsegment; 1 d of water deprivation had no effect on basal or AVP-stimulat
48 ere up-regulated in responses to stresses of water deprivation, heat and oxidative, ABA-induced signa
52 abeling to characterize neurons activated by water deprivation in the hypothalamic median preoptic nu
53 tion upon increased salt and water intake or water deprivation, indicating that this posttranslationa
54 nchanged in the kidney cortex and stomach in water deprivation, indicating the specificity of SLC26A7
57 whether the PVH-RVLM projection activated by water deprivation is glutamatergic and/or contains vasop
60 mRNA expression in rat kidney revealed that water deprivation markedly increases the relative abunda
62 determine the effects of 24- and 72-hours of water deprivation on nNOS protein expression within the
65 peripheral hyperosmolality caused by either water deprivation or injections of hypertonic saline.
66 s) suppressed drinking following either 22 h water deprivation or intragastric injection of hypertoni
67 urinary concentrating ability in response to water deprivation or treatment with a vasopressin analog
68 increase in urine osmolality in response to water deprivation or vasopressin administration, however
69 involved in oxidation reduction, response to water deprivation, plastid biogenesis, protein biogenesi
70 en these animals are normally active, 6 h of water deprivation produced near-maximal increases in the
75 indicators of sugar export, measured during water deprivation, suggested sugar export maintained by
76 derive midpoint characterization factors for water deprivation taking into account downstream cascade
77 I can be challenging and is done either by a water deprivation test or by hypertonic saline stimulati
78 istant to high concentrations of NaCl and to water deprivation than the isogenic wild-type strains.
79 se mice have a daily cycle of sensitivity to water deprivation that is demonstrated by both behaviora
80 o-8-d-arginine-vasopressin administration or water deprivation, the AQP3 null mice were able to conce
82 ring the day, it required as much as 12 h of water deprivation to produce increases in Fos-LIR cells
86 n-2 protein in inner and outer medulla after water deprivation were significantly lower in CD-KO mice
87 s response (e.g., to salt, osmotic stress or water deprivation) were the most relatively abundant gro
89 to either subcutaneous hypertonic saline or water deprivation with partial rehydration than did vehi