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1 cerebral blood flow to neuronal metabolism (neurovascular coupling).
2 associated with increased neuronal activity (neurovascular coupling).
3 aECs, but not in neighbouring SMCs, impaired neurovascular coupling.
4 e been proposed to play a role in functional neurovascular coupling.
5 V4 channels are engaged in and contribute to neurovascular coupling.
6 endfoot microdomain and assess their role in neurovascular coupling.
7 e synthase is involved in astrocyte-mediated neurovascular coupling.
8 erent conditions of neuronal stimulation and neurovascular coupling.
9 ells (aECs) have an active role in mediating neurovascular coupling.
10 ha, and ultimately lead to the impairment of neurovascular coupling.
11 rocytes, and arterioles-causing inversion of neurovascular coupling.
12 l and impose constraints on future models of neurovascular coupling.
13 one of the key players in coordinating this neurovascular coupling.
14 f this glial cell-K+ siphoning hypothesis of neurovascular coupling.
15 only indirectly, by way of hemodynamics and neurovascular coupling.
16 zed changes in blood flow, a response termed neurovascular coupling.
17 retina does not contribute significantly to neurovascular coupling.
18 vasoconstriction and a general disruption of neurovascular coupling.
19 nd may help to refine quantitative models of neurovascular coupling.
20 x in real time, revealing the hidden duet of neurovascular coupling.
21 ings shed light on the complex regulation of neurovascular coupling.
22 ebrovascular reactivity, autoregulation, and neurovascular coupling.
23 t differences in neural activity rather than neurovascular coupling.
24 imaging, suggesting potential disruptions in neurovascular coupling.
25 ation signals through the vasculature during neurovascular coupling.
26 tivity drive changes in local blood flow via neurovascular coupling.
27 blood oxygenation despite relatively intact neurovascular coupling.
28 ural activity and therefore not a product of neurovascular coupling.
29 ing molecule that plays an important role in neurovascular coupling.
30 sulin receptors in astrocytes participate in neurovascular coupling.
31 ed pathway in aECs is a major contributor to neurovascular coupling.
32 ng neural activity can modulate CSF flow via neurovascular coupling.
33 l role in regulating cerebral blood flow and neurovascular coupling.
34 sion, a response that disrupted light-evoked neurovascular coupling.
35 Isovolumic haemodilution did not alter neurovascular coupling.
36 a longer time span and is less dependent on neurovascular coupling.
37 derstand temporal correlations that describe neurovascular coupling.
38 t release Ca(2+) from stores does not affect neurovascular coupling.
39 y visual cortex to investigate the limits of neurovascular coupling.
40 hese networks, over and above the effects on neurovascular coupling.
41 ishing astrocytes as potential regulators of neurovascular coupling.
42 ulation, endothelial-mediated signaling, and neurovascular coupling.
43 nge in cerebral blood flow, a process termed neurovascular coupling.
44 ggesting that pericytes could have a role in neurovascular coupling.
45 gs, as well as a more principled modeling of neurovascular coupling.
46 tigators to probe the role of capillaries in neurovascular coupling.
47 rlying neuronal activity by a process termed neurovascular coupling.
48 Roy and Sherrington, 1890), a process termed neurovascular coupling.
49 can also disrupt astrocytes, which modulate neurovascular coupling-a process that regulates cerebral
50 conditioning experiments, and to investigate neurovascular coupling across multiple cortical regions.
54 trated that retinal fUS could measure robust neurovascular coupling alterations between wild-type rat
57 perties of the neurovascular system (such as neurovascular coupling and blood-brain barrier permeabil
60 tant vascular diseases, or medication on the neurovascular coupling and consequently the functional M
64 amic response is important for understanding neurovascular coupling and elucidating the physiological
65 mutase (CuZnSOD) prevented the alteration in neurovascular coupling and endothelium-dependent respons
66 ts and controversies in the understanding of neurovascular coupling and finish by discussing current
70 ron, a direction opposite to that of classic neurovascular coupling and referred to here as vasculo-n
71 activity, but it relies on the physiology of neurovascular coupling and requires extensive signal pro
72 ults indicate that glial cells contribute to neurovascular coupling and suggest that regulation of bl
73 nitrite were not enough to entirely restore neurovascular coupling and supra-physiological concentra
74 ting local blood vessels, a mechanism termed neurovascular coupling and the basis of BOLD functional
75 phate co-transmitter is an important step in neurovascular coupling and the regulation of cerebrovasc
76 esponses to investigate cocaine's effects on neurovascular coupling and to differentiate its effects
79 hemodynamic responses, protected IP-TNTs and neurovascular coupling, and enhanced retinal neuronal fu
80 , vascular smooth muscle cell contractility, neurovascular coupling, and intraparenchymal interstitia
82 d with release of arachidonic acid, impaired neurovascular coupling, and reduced cerebral blood flow
85 001), indicating that cocaine did not affect neurovascular coupling at rest and that the reduction in
86 The investigation of mechanisms underlying neurovascular coupling at the capillary level requires a
87 red hippocampal cytoarchitectonics; impaired neurovascular coupling; attenuated prepulse inhibition (
91 rstanding the complex signalling pathways of neurovascular coupling, but issues such as the contribut
96 amine neuronal activity that is invariant to neurovascular coupling changes induced by hypertension.
97 both adults and neonates, and a reduction in neurovascular coupling could deprive active neurons of a
98 red blood flow regulation at rest and during neurovascular coupling, defects in mural cell activity,
99 ked neuronal activity.SIGNIFICANCE STATEMENT Neurovascular coupling, defined as the tight relationshi
101 nse, showing that the degree and polarity of neurovascular coupling depends on astrocytic endfoot Ca(
103 min after cocaine injection, indicating that neurovascular coupling during stimulation was temporaril
104 he present study assessed CBF regulation and neurovascular coupling during submaximal cycling exercis
108 potential and fMRI signals validates strong neurovascular coupling, enabling cross-scale brain mappi
109 p junctions serve as a signaling highway for neurovascular coupling, enabling flexible and efficient
111 future investigations on the impairments of neurovascular coupling from vascular diseases such as di
112 orts a conceptual shift in the mechanisms of neurovascular coupling, from a unidimensional process in
116 mechanism is essential to preserving healthy neurovascular coupling; however, to our knowledge, no st
117 ral blood flow that range from physiological neurovascular coupling (hyperaemia) to pathological inve
118 change in internal carotid artery blood flow Neurovascular coupling (i.e. the relationship between lo
119 transcriptional regulator of SEMA3E-mediated neurovascular coupling in a mouse model of oxygen-induce
120 sis, and activity-induced neurometabolic and neurovascular coupling in adult (6 months) and aged (12
122 Here we address this issue by examining neurovascular coupling in both ex vivo and in vivo rat r
127 2Y12 receptor (P2Y12R) substantially impairs neurovascular coupling in mice, which is reiterated by c
129 transcriptional regulator of SEMA3E-mediated neurovascular coupling in pathological retinal angiogene
130 nd a suite of in vivo imaging tools to study neurovascular coupling in rat primary somatosensory cort
131 estigated the contribution of glial cells to neurovascular coupling in the acutely isolated mammalian
132 hyperglycemia has a detrimental influence on neurovascular coupling in the brain-an effect linked to
134 Our study examines the association between neurovascular coupling in the middle cerebral artery and
135 The deficiencies of flow regulation and neurovascular coupling in the retina appear to precede n
136 Here, we investigate spatial correlations of neurovascular coupling in three dimensions, by applying
137 -dependent Ca(2+) signaling does not mediate neurovascular coupling in visual cortex of awake, lightl
138 gs demonstrate that hyperoxia does not alter neurovascular coupling in vivo, ensuring that active neu
140 article, potential alternative functions of neurovascular coupling include supplying oxygen for neur
143 ystem, the olfactory glomerulus, to show how neurovascular coupling involves an elaborate dance betwe
151 or functional brain imaging(2), and impaired neurovascular coupling is implicated in neurodegeneratio
152 location within the microvascular tree where neurovascular coupling is initiated, and the role of mur
160 lity and consequences of conditions in which neurovascular coupling may be altered, including during
165 may fail in situations interfering with the neurovascular coupling mechanisms (drugs, anesthesia).
167 the need to revisit the current knowledge of neurovascular coupling mechanisms and the association be
168 is needed for improving our understanding of neurovascular coupling mechanisms and the related measur
170 standing of the signalling events underlying neurovascular coupling mechanisms in the brain is a cruc
172 ivity of the brain, is met by an ensemble of neurovascular coupling mechanisms that link neuronal act
174 gulating synaptic plasticity, and defects in neurovascular coupling mediating cerebral blood flow.
175 d changes in the BOLD response could reflect neurovascular coupling modifications rather than simply
179 ecent study established a novel non-invasive neurovascular coupling (NVC) assessment in newborns usin
181 inical models, yet the mechanisms underlying neurovascular coupling (NVC) in humans have yet to be el
182 G (aEEG) outputs impact the determination of neurovascular coupling (NVC) in newborns with encephalop
188 nimal models and the translation to critical neurovascular coupling (NVC) patterns for human fMRI.
189 a proof of concept study aiming to quantify neurovascular coupling (NVC) using wavelet analysis of t
190 They play an important role in mediating neurovascular coupling (NVC) via several astrocytic Ca(2
191 cular dysfunction in AD includes deficits in neurovascular coupling (NVC), a mechanism that ensures r
193 several key topics in brain research such as neurovascular coupling (NVC), glymphatic pathway, and GB
194 imuli [including carbon dioxide (CO(2))]; 3) neurovascular coupling (NVC), i.e., the CBF response to
196 sodilatory prostaglandins play a key role in neurovascular coupling (NVC), the tight link between neu
202 blood flow response to neuronal activation [neurovascular coupling (NVC)] in a model of AD precedes
206 , we determined whether pathological inverse neurovascular coupling occurred as a mechanism of second
208 concept from the current electrochemical and neurovascular coupling principles used for brain imaging
209 -1 inhibition restores tPA activity, rescues neurovascular coupling, reduces amyloid deposition aroun
215 regulation of cerebral blood flow (CBF) and neurovascular coupling remains, however, under debate.
216 nitric oxide synthase inhibitor reduced the neurovascular coupling response by ~30%, indicating that
217 ling lead to a switch in the polarity of the neurovascular coupling response from vasodilation to vas
218 t improvement in cerebral blood flow and the neurovascular coupling response, as well as increased ex
219 ies such as Alzheimer's disease, would alter neurovascular coupling responses to sensory stimulation.
220 erebrovascular reactivity and whisker-evoked neurovascular coupling responses were measured at end po
222 in slices, 100% O(2) has been shown to alter neurovascular coupling, suppressing activity-dependent v
223 measurements indicate that the mechanism of neurovascular coupling systematically affects the vascul
224 simultaneous PET/fMRI for investigations of neurovascular coupling that correlate neurochemistry wit
226 ated that nitric oxide is a key component of neurovascular coupling; this has yet to be translated to
227 e microcirculatory blood flow and coordinate neurovascular coupling through interpericyte tunneling n
228 Ca(2+) signaling within the endfoot mediates neurovascular coupling; thus, these functional microdoma
229 three patients exhibited dynamic changes in neurovascular coupling to depolarizations throughout the
231 ebral blood flow is dynamically regulated by neurovascular coupling to meet the dynamic metabolic dem
236 s, and reveal a second vascular component of neurovascular coupling upon very strong stimulation.
237 its newly recognized precursor, nitrite, in neurovascular coupling using a well-established rat mode
245 in awake mice recovered from brain surgery, neurovascular coupling was too fast and efficient to rev
247 usal state impacts cerebral hemodynamics and neurovascular coupling, we monitored neural activity, be
248 show that blood flow, blood oxygenation and neurovascular coupling were decreased in the hippocampus
249 While sensory stimulus-evoked dilations (neurovascular coupling) were amplified at higher BP leve
250 , indicating that although O(2) can modulate neurovascular coupling when raised sufficiently high, th
251 both caveolae and eNOS completely abolished neurovascular coupling, whereas the single mutants exhib
252 ynaptic transmission, vascular dynamics, and neurovascular coupling, which are central to AD pathogen
253 nctional near-infrared spectroscopy) rely on neurovascular coupling, which is a useful but indirect m
254 tial to give rise to both neurometabolic and neurovascular couplings, which form the basis for the de
255 idance, this Protocol facilitates studies of neurovascular coupling with the neurochemical basis of l
257 A1 is necessary for functional hyperemia and neurovascular coupling within the somatosensory cortex o