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1 induced EEG silence during transient global cerebral hypoperfusion.
2 chieving EEG silence during transient global cerebral hypoperfusion.
3 ative low cardiac output are associated with cerebral hypoperfusion.
4 hat oestradiol augments the PGHS response to cerebral hypoperfusion.
5 ment or otherwise modify the Fos response to cerebral hypoperfusion.
6 us and that it modulates the Fos response to cerebral hypoperfusion.
7 ithout evidence of occlusive vasculopathy or cerebral hypoperfusion.
8 is lost and regained in the setting of acute cerebral hypoperfusion.
9 resulting from intracranial hypertension and cerebral hypoperfusion.
10 pressure target leads to potentially harmful cerebral hypoperfusion.
11 HD population and identify those at risk for cerebral hypoperfusion.
12 limited, spontaneously terminating period of cerebral hypoperfusion.
13 microvascular sensory web and contribute to cerebral hypoperfusion.
14 oxygen in face of hypocapnia (34% to 53%) or cerebral hypoperfusion (34% to 57%) to compensate for re
16 cells, a rarefaction of brain microvessels, cerebral hypoperfusion, a disrupted blood-brain barrier
19 between biochemical markers and mediators of cerebral hypoperfusion and BBB leakiness, and Abeta and
21 alters brain cytokine levels and exacerbates cerebral hypoperfusion and blood-brain barrier leakiness
22 n duration-dependent increase in severity of cerebral hypoperfusion and extension of ischaemic pathol
23 mechanism that causes repetitive episodes of cerebral hypoperfusion and neuroinflammation during migr
25 with anti-tau antibodies, despite persistent cerebral hypoperfusion and neurovascular dysfunction.
31 n the present study, we tested the effect of cerebral hypoperfusion and/or estradiol on the expressio
32 on with dabigatran prevented memory decline, cerebral hypoperfusion, and toxic fibrin deposition in t
33 present data provide evidence of widespread cerebral hypoperfusion associated with pathogenic angiog
34 anial pressure monitoring alone in detecting cerebral hypoperfusion at the bedside in patients with s
35 demonstrate that CE in DKA is accompanied by cerebral hypoperfusion before treatment and suggest that
37 ts of the posterior cerebral circulation and cerebral hypoperfusion could partially explain the patho
39 curacy of intracranial monitoring to predict cerebral hypoperfusion (defined as an oligemic regional
40 ed with hemodialysis (HD) may be at risk for cerebral hypoperfusion due to HD-induced BP decline in t
43 mine the independent impact of hypocapnia or cerebral hypoperfusion (following INDO) on cerebral oxyg
46 position of alpha-synuclein, (2) OH-mediated cerebral hypoperfusion impairs cognition and (3) the two
48 question, we developed an oligemic model of cerebral hypoperfusion in the 3xTg-AD mouse model of AD.
51 ork in this laboratory has demonstrated that cerebral hypoperfusion increases the expression of prost
53 ontributes to the pathophysiology of chronic cerebral hypoperfusion-induced brain injury and may ther
54 Comprehensive analyses revealed that chronic cerebral hypoperfusion induces a complex temporal expres
55 Comprehensive analyses revealed that chronic cerebral hypoperfusion induces a complex temporal expres
56 s cognitive impairment through hypertension, cerebral hypoperfusion, inflammation, arrhythmia, emboli
57 uggested mechanisms for the disorder include cerebral hypoperfusion, inflammation, gene polymorphisms
63 ypotension (OH) is common, and its resulting cerebral hypoperfusion is linked to adverse outcomes inc
66 of the PGHS-2 gene expression in response to cerebral hypoperfusion/ischemia in neurons, we used a ce
70 ables were significant only in AHF (signs of cerebral hypoperfusion, low serum sodium, chronic obstru
71 the posterior circulation and the associated cerebral hypoperfusion may be a factor in triggering hyp
72 nsible, but recent data instead suggest that cerebral hypoperfusion may be involved and that activati
74 preliminary findings suggest that a relative cerebral hypoperfusion may underlie depression in elderl
75 ted a pilot investigation of whether chronic cerebral hypoperfusion might affect genomic distribution
76 e aimed to investigate the effect of chronic cerebral hypoperfusion on cerebral hemodynamics and peri
77 ing and its association with tachycardia and cerebral hypoperfusion on standing in 28 patients with p
78 previous studies, demonstrating an effect of cerebral hypoperfusion on the expression of both isoform
80 l syncope, including reduced cardiac output, cerebral hypoperfusion, pupil dilation and eye-roll.
81 ar fibrillation, especially with symptoms of cerebral hypoperfusion, should then be considered to be
84 implications for pathologies associated with cerebral hypoperfusion such as stroke, dementia and hype
85 This review focuses on the intradialytic cerebral hypoperfusion that can occur during routine hem
86 injury and the relationship of intradialytic cerebral hypoperfusion to cognitive outcomes will help i
89 perventilatory-induced hypocapnia (and hence cerebral hypoperfusion) was prevented; and (2) that phar
90 Significant increases in the severity of cerebral hypoperfusion were observed after 60 min compar