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1 poE4 impairs microglial function and impedes astrocytic Abeta clearance in brain, but the direct neur
2  of neuronal uPA to astrocytic uPAR promotes astrocytic activation and that astrocytes activated by u
3 g of neuronal uPA to astrocytic uPAR induces astrocytic activation by a mechanism that does not requi
4                                 Furthermore, astrocytic activation decreased the firing rate of CeM n
5 rtite synapses, and we provide evidence that astrocytic activation enhances PSD95 expression.
6 but with putative evidence of microglial and astrocytic activation in the high immune subgroup.
7 inding is necessary and sufficient to induce astrocytic activation in the ischemic brain and that ast
8    In summary, we show that uPA/uPAR-induced astrocytic activation mediates a cross talk between astr
9 ) model, with an additional layer simulating astrocytic activation.
10          However, it remains unclear how the astrocytic activities in the DMS differentially affect t
11 lial fibrillary acidic protein, a marker for astrocytic activity, was elevated in the IC of MeHg-expo
12                           To investigate the astrocytic activity-driven neuronal synaptic events and
13                 Importantly, mice lacking an astrocytic adenosine transporter, ENT1 (equilibrative nu
14 ircuit whereby noradrenergic transmission at astrocytic alpha1ARs activates wake-promoting vPAG(DA) n
15 gs define a metabolic mechanism regulated by astrocytic alpha2-Na/K ATPase that triggers episodic mot
16                               Interestingly, astrocytic alphaBc overexpression was neuroprotective ag
17 pe and revealing how it can be influenced by astrocytic alterations, but also reveal potential target
18 1-AS/BACE1 axis in Tat-mediated induction of astrocytic amyloidosis, which could be targeted as adjun
19 njury (SCI) is characterized by formation of astrocytic and fibrotic scars, both of which are necessa
20 sion, lymphocyte infiltration, and neuronal, astrocytic and microglial markers.
21  neural circuit function, it seems as though astrocytic and neuronal biology continue to advance in p
22 y, overexpression of astrocyte Ezrin rescued astrocytic and neuronal dysfunctions and fully corrected
23 the gene expression profiles associated with astrocytic and neuronal EAAT2 deletion are substantially
24   Here, we show that conditional deletion of astrocytic and neuronal EAAT2 results in age-related cog
25 hemistry revealed GFP expression in cells of astrocytic and neuronal morphology.
26 ations in the mRNA and protein expression of astrocytic and neuronal proteins necessary for optimal e
27 for the clinical care of adult patients with astrocytic and oligodendroglial gliomas, including gliob
28 nalysis reveals altered constituents of both astrocytic and RGC lineages, suggesting a requirement fo
29 to undergo in-depth autoimmune screening for astrocytic antibodies.
30 models, we show that increased expression of astrocytic apoE4, but not apoE3, during the seeding stag
31 athophysiological outcomes of IgG binding to astrocytic AQP4 are poorly understood.
32 gnificantly attenuated astrocyte activation, astrocytic aromatization, and decreased hippocampal E2 l
33                                      Lastly, astrocytic association of excitatory synapses decreases.
34 or Lrp4, in response to agrin, in modulating astrocytic ATP release and synaptic transmission.
35                          Importance: A novel astrocytic autoantibody has been identified as a biomark
36 t the possible existence of yet undiscovered astrocytic autoimmune targets.
37  to human diseases that have a known primary astrocytic basis.
38            Nonetheless, whether mHtt affects astrocytic BDNF in the HD brain remains unknown.
39 , there was a positive feedback loop whereby astrocytic BDNF induced cancer cell BDNF translation.
40                The first attempts to develop astrocytic biomarkers and targeted therapies are emergin
41 the necrotic core, which is surrounded by an astrocytic border.
42                     Glioblastoma (GBM) is an astrocytic brain tumor with median survival times of <15
43 urotrophic factor in the IC, suggesting that astrocytic brain-derived neurotrophic factor is a potent
44                                              Astrocytic, but not neuronal EAAT2, deletion leads to ea
45 ss, elevation of anaphylatoxin C5a receptor, astrocytic-C3, and microglial-TLR4 expression in the bra
46 ing neurovascular coupling (NVC) via several astrocytic Ca(2+) -dependent signalling pathways such as
47 ological meaning of these dynamic changes in astrocytic Ca(2+) activity has remained a major challeng
48             Here we simultaneously monitored astrocytic Ca(2+) and cAMP and demonstrate that astrocyt
49 ndent manner, promoting further increases in astrocytic Ca(2+) and resulting in a positive-feedback l
50 events in NAcSh astrocytes, while decreasing astrocytic Ca(2+) blocks cocaine-induced generation of s
51 l alpha1-adrenergic receptors triggers rapid astrocytic Ca(2+) elevation and facilitates synaptic pla
52 in noradrenaline release and large cytosolic astrocytic Ca(2+) elevations, cAMP changes were not dete
53 nceptual challenges in the interpretation of astrocytic Ca(2+) events and their spatio-temporal patte
54 s Oct-TyrR and Wtrw as key components of the astrocytic Ca(2+) signalling machinery, provides direct
55                                 We find that astrocytic calcium activity precedes spontaneous circuit
56 nous MrgA1Rs expressed in astrocytes tripled astrocytic calcium oscillation frequency in both the pre
57 ic neuron, orchestrated by endocannabinoids, astrocytic calcium signaling, and presynaptic N-methyl-D
58                                         This astrocytic Cav1.2 knock-out mouse was tested in the cupr
59 l (blood-brain barrier), ATPase activity and astrocytic cell functions contribute to MDD and suicide,
60              Here, using murine neuronal and astrocytic cell lines, we find that ANG triggers the act
61 l 3-kinase (PI3K) pathways were evaluated in astrocytic cell models in the presence and absence of LR
62 s expressed at the surface of cultured human astrocytic cells and rat cortical astrocytes.
63 rol in excitatory and inhibitory neurons and astrocytic cells to these behaviors remains unknown.
64                                          SVG astrocytic cells were pretreated with TIMBD or resveratr
65 rn, males and females show increased GFAP(+) astrocytic cells; however, only males demonstrate an inc
66                                        These astrocytic changes do not cause loss of motor neurons in
67 roups that can be correlated to neuronal and astrocytic classifications and lipid classes.
68                      These results show that astrocytic clearance of extracellular glutamate is slowe
69                                              Astrocytic clocks achieve this by reinstating clock gene
70                              Blockade of the astrocytic CN/NFAT pathway in rats using adeno-associate
71                              The blockade of astrocytic CN/NFAT signaling in a common mouse model of
72                       However, the impact of astrocytic CN/NFAT signaling on neural function/recovery
73                           The results reveal astrocytic CN/NFAT4 as a key pathologic mechanism for dr
74 termediary molecule between the neuronal and astrocytic compartment in the regulation of GABAergic in
75 al epilepsy and found the involvement of the astrocytic compartment.
76                          Here we report that astrocytic complement activation also regulates Abeta dy
77 ted activity-dependent upregulation of major astrocytic components of the astrocyte-neuron lactate sh
78        This indicates that Cx43, a typically astrocytic connexin, is the main connexin forming functi
79 t microbial taxa are related to neuronal and astrocytic consequences of cirrhosis-associated brain dy
80 strocyte reactivity, what is known about the astrocytic contribution to remyelination, and highlight
81                                              Astrocytic contributions to Alzheimer's disease (AD) pro
82 ocytes are unknown despite the fact that the astrocytic CREB is also activity-driven and neuroprotect
83                                          The astrocytic cystine/glutamate antiporter system x(c)(-) r
84 in mice results in a switch from neuronal to astrocytic d-serine release.
85 sion demonstrates that neuronal, rather than astrocytic d-serine, modulates synaptic plasticity.
86        Astrocyte-specific elimination of the astrocytic d-serine-synthesizing enzyme serine racemase
87                                    Impairing astrocytic delivery of energy substrates by reducing ast
88 nism, suggesting upstream impairment, likely astrocytic-dependent.
89   The SCZ glial chimeras also showed delayed astrocytic differentiation and abnormal astrocytic morph
90      The mHTT hGPCs also manifested impaired astrocytic differentiation and developed abnormal fiber
91  and dysconnectivity, whereas the failure of astrocytic differentiation results in abnormal glial cov
92                         By contrast, retinal astrocytic differentiation was accelerated by the exposu
93                                        While astrocytic differentiation was not impaired in FTD NPCs
94 gen from the retinal circulation may promote astrocytic differentiation, in part by triggering oxygen
95 nal vascular development but also suppressed astrocytic differentiation, reducing the abundance of di
96     YAP in NSCs was required for neocortical astrocytic differentiation, with no apparent role in sel
97 ors, and undergo less proliferation and less astrocytic differentiation.
98 MP2 induction and stabilization of SMAD1 and astrocytic differentiation.
99                                              Astrocytic EAAT2 buffers basal glutamate activation of A
100                                              Astrocytic EAAT2 deficiency also shows transcriptomic ov
101 dysregulation of the kynurenine pathway, and astrocytic EAAT2 deficiency results in dysfunction of in
102 se data shed new light on the important role astrocytic EAAT2 plays on buffering nTS excitation and o
103 ws that in addition to the widely recognized astrocytic EAAT2, neuronal EAAT2 plays a role in hippoca
104  (CSF) both at the choroid plexus and at the astrocytic end feet and defects in the synthesis of cere
105 n the choroid plexus but is expressed in the astrocytic end feet and ependymal cells.
106 w that AQP4 polarization in the perivascular astrocytic end feet was impaired after TBI, which was mo
107 ater-permeable channel aquaporin-4 (AQP4) to astrocytic endfeet is dependent on interactions between
108 ane that seperates the endothelial cells and astrocytic endfeet that comprise the blood-brain barrier
109             We conclude that NO can modulate astrocytic energy metabolism in the short term, reversib
110 creating a barrier for neuronal access to an astrocytic energy reservoir in the hippocampus and neoco
111                 We provide new evidence that astrocytic ephrin-B1 differentially regulates developmen
112 iature IPSC amplitude were reduced following astrocytic ephrin-B1 loss.
113                               The ability of astrocytic ephrin-B1 to influence both excitatory and in
114                               The ability of astrocytic ephrin-B1 to influence both excitatory and in
115 utamate concentration occurs in part through astrocytic excitatory amino acid transporters (EAATs).
116                                              Astrocytic exosomes carry heat shock proteins that can r
117                     Furthermore, addition of astrocytic exosomes in neuronal cultures resulted in a s
118                     Conversely, injection of astrocytic exosomes into the striatum of HD140Q KI mice
119         We found that mHtt is not present in astrocytic exosomes, but can decrease exosome secretion
120 ng oligodendrocytes (OLs) while promoting an astrocytic fate in vitro.
121 with intact axons and instead divert into an astrocytic fate.
122 ization requires AQP4-bound IgG to engage an astrocytic Fcgamma receptor (FcgammaR).
123          The influence that neurons exert on astrocytic function is poorly understood.
124 t chemical pathways that preserve beneficial astrocytic functions in response to AD pathology.
125 ocytes and demonstrate that they perform key astrocytic functions in vitro, including trophic support
126 t dopaminergic neurons by blocking excessive astrocytic GABA could be an effective therapeutic strate
127                                 Blocking the astrocytic GABA synthesis recapitulates the therapeutic
128 n is enhanced by the loss-of-function of the astrocytic GABA transporter GAT-1 that does not necessar
129 eport a previously unrecognized role for the astrocytic GABA transporter, GAT-3.
130 inhibition, which is attributed to excessive astrocytic GABA.
131               These proneurotoxic effects of astrocytic GAP43 knockdown were accompanied by attenuate
132      In sum, the present study suggests that astrocytic GAP43 mediates glial plasticity during astrog
133       Genomic analysis has connected altered astrocytic gene expression with synaptic deficits in a n
134  uncovers a wide programme of neuron-induced astrocytic gene expression, involving Notch signalling,
135                      Separately, hundreds of astrocytic genes are acutely regulated by synaptic activ
136                      Moreover, the groups of astrocytic genes induced by neurons or neuronal activity
137 iously found that Mertk and its ligand Gas6, astrocytic genes involved in phagocytosis, are upregulat
138                Interestingly, BMP4 increased astrocytic GFAP expression, and BMP4-treated astrocytes
139 icity in vivo, at least in part, by reducing astrocytic GLAST/GLT-1.
140 lood-brain barrier (BBB) and then across the astrocytic glia limitans (GL).
141 yma may acquire protection from the reactive astrocytic Glia Limitans not only during neuroinflammati
142                                              Astrocytic glial cells interact with synapses throughout
143                   Immunohistochemistry using astrocytic (glial fibrillary acidic protein) and microgl
144 ecting neurodegeneration, demyelination, and astrocytic gliosis in the injured cervical cord.
145 suggest the pharmacological relevance of NTS astrocytic GLP-1R activation for food intake and body we
146 ollectively, data demonstrate a role for NTS astrocytic GLP-1R signaling in energy balance control.
147                                        Thus, astrocytic Glu transport remains a promising target for
148        Treatment of WT preparations with the astrocytic Glu uptake blocker TFB-TBOA (100 nm) mimicked
149 ention.SIGNIFICANCE STATEMENT Alterations in astrocytic Glu uptake can play a role in synaptic plasti
150 tle, leading to a CREB-dependent increase in astrocytic glucose metabolism and elevated lactate expor
151                   However, the mechanisms of astrocytic glutamate release have been debated.
152 abolic enzyme levels in the VMH, 4) examined astrocytic glutamate reuptake mechanisms, and 5) used (1
153 d glutamate was also associated with reduced astrocytic glutamate transport in the VMH.
154 utamate levels are tightly controlled by the astrocytic glutamate transporter EAAT2, influencing syna
155 Glioblastoma brain tumor stem cells with low astrocytic glutamate transporter expression are dependen
156 xFAD mice led to increased expression of the astrocytic glutamate transporter GLT-1 and to attenuated
157 ized glutamate signaling dynamics, increased astrocytic glutamate transporter levels and alleviated m
158 phic factors, BDNF and IGF-1, as well as the astrocytic glutamate transporter, GLT-1.
159 negatively correlated with expression of the astrocytic glutamate transporters EAAT1 and EAAT2.
160                              Mn dysregulates astrocytic glutamate transporters, GLT-1 and GLAST, and
161 developmental disorders, while alteration in astrocytic glutamate uptake is a core feature of multipl
162                                           As astrocytic glutamate uptake is a fundamental and essenti
163                             Insufficiency of astrocytic glutamate uptake is a major element in the pa
164 ered EAAT expression, our findings show that astrocytic glutamate uptake is dynamic on a fast time-sc
165 el experimentally by showing that inhibiting astrocytic glutamate uptake using TFB-TBOA nearly quadru
166  weeks of life, coincident with increases in astrocytic glutamate uptake.
167 y stimulation before and after inhibition of astrocytic glutathione and PgE2 synthesis.
168  expression using chemogenetic activation of astrocytic Gq signaling or in vivo morpholinos and deter
169              However, stimulation of retinal astrocytic growth by intravitreal delivery of PDGF-A was
170 r telangiectasia type 2 and solitary retinal astrocytic hamartoma in one patient.
171 , macular telangiectasia type 2 and solitary astrocytic hamartoma was detected as a unique and rare o
172                                      Retinal astrocytic hamartomas (RAH) is a benign vascularized gli
173  h significantly inhibited the expression of astrocytic HIF-1alpha, and the downstream genes GLUT-1,
174                                    Moreover, astrocytic IL-1beta plays a role in the enhanced synapti
175 unknown, and it is unclear whether impairing astrocytic infiltration of the neuropil alters synaptic
176  corresponding mechanisms of seizure-induced astrocytic injury have not been documented.
177                            Our data indicate astrocytic injury occurs in some patients with double-Ab
178 by biomarker evidence of ongoing neuronal or astrocytic injury/activation or induction of dementia-re
179  astrocytes, in line with a primary role for astrocytic inputs in their activation.
180                         To determine whether astrocytic insulin sensing plays a role in the regulatio
181     Here we explore the relationship between astrocytic intracellular pH dynamics and the synchronous
182 ect the circuit deficits by synapse type and astrocytic involvement will be crucial for understanding
183  directly CNS glucose levels in mice lacking astrocytic IRs indicates a role in glucose transport acr
184                                              Astrocytic l-serine was proposed to regulate NMDAR activ
185 gs suggest that NO modulates the size of the astrocytic lactate reservoir involved in neuronal fuelin
186                                        Local astrocytic lactate shuttling was not required.
187                            We found that the astrocytic layer of the olfactory bulb is a distinct bar
188  preferentially in PSDs, and in perisynaptic astrocytic leaflets, provides morphologic evidence that
189 ed in hyperactive neurons are transferred to astrocytic lipid droplets by ApoE-positive lipid particl
190  addition to the traditional presynaptic and astrocytic locations.
191                                Intriguingly, astrocytic LPL deficiency also triggered increased ceram
192                                    Likewise, astrocytic LPL deletion reduced the accumulation of lipi
193        Together, our study demonstrates that astrocytic LRP4 plays an important role in Abeta patholo
194 (CF) to PC synapses, while both neuronal and astrocytic MAGL significantly contributes to the termina
195 ation into neurons, proper expression of the astrocytic marker GFAP and corticogenesis.
196 g of neurons and increased expression of the astrocytic marker GFAP in the cortex of 7-day old pups.
197 rease in the transcription of microglial and astrocytic markers in schizophrenia cases and MIA offspr
198 Notch signalling, which drives and maintains astrocytic maturity and neurotransmitter uptake function
199 ll death of patient-derived motor neuron and astrocytic-mediated neurotoxicity in co-culture assays.
200           Transcriptomic profiles from mouse astrocytic membralin KO motor cortex indicated significa
201 vating FcgammaR's gamma subunit and involves astrocytic membrane loss of an inhibitory FcgammaR, CD32
202 gammaR engagement for internalization of two astrocytic membrane proteins critical to CNS homeostasis
203 s gating of synaptic plasticity in stress by astrocytic metabolic networks indicates a broader role o
204 , (b) brain glucose uptake and neuronal- and astrocytic metabolism, and (c) synaptic plasticity.
205                        Lastly, inhibition of astrocytic miR-223 abrogated the exosomal-mediated reduc
206  cerebral ischaemia in mice induced entry of astrocytic mitochondria into adjacent neurons, and this
207 ayed astrocytic differentiation and abnormal astrocytic morphologies.
208                     This study suggests that astrocytic Mt-derived HN could act as a beneficial secre
209  properties of pial ILA and confirming their astrocytic nature.
210 E3 knockout reduces functional expression of astrocytic NBCe1.
211 y gene expressions, low permeability, and 3D astrocytic network with reduced reactive gliosis and pol
212 1, potentially by engagement of the enmeshed astrocytic network.
213 ring glucose and lactate trafficking through astrocytic networks.
214 and time within single astrocytes and across astrocytic networks.
215 ignalling events in single astrocytes and in astrocytic networks.
216  from interdependent and mutually supportive astrocytic-neuronal signaling.
217         Notably, ossification of vessels and astrocytic neurotoxic response is associated with specif
218 nal dependencies for astrocytes and identify astrocytic NFIA as a key transcriptional regulator of hi
219               Furthermore, in the absence of astrocytic NL2, the formation and function of cortical e
220                                              Astrocytic Norrin appears to regulate dendrites and spin
221                    Furthermore, we show that astrocytic NRCAM interacts transcellularly with neuronal
222                            Moreover, loss of astrocytic NRCAM markedly decreases inhibitory synaptic
223                                 Depletion of astrocytic NRCAM reduces numbers of inhibitory synapses
224 ased reader will follow our argumentation on astrocytic or microglial P2X7Rs being the primary target
225 (CSF), or both that yielded a characteristic astrocytic pattern of mouse tissue immunostaining; (2) c
226 pression of the water channel aquaporin-4 at astrocytic perivascular endfeet of the BBB.
227                                        Rapid astrocytic pH changes are highly temporally correlated w
228 AM phagocytic receptors, which were the main astrocytic phagocytic receptors for cell debris in the a
229 r short and long sleep loss, suggesting that astrocytic phagocytosis may represent the brain's respon
230 r damage.SIGNIFICANCE STATEMENT We find that astrocytic phagocytosis of synaptic elements, mostly of
231                                         This astrocytic phagocytosis was also observed in Irf8-defici
232                                              Astrocytic phagocytosis, mainly of presynaptic component
233                            In neonatal mice, astrocytic PHD2 deficiency led to elevated HIF-2alpha pr
234 o identify a nuclear marker pathognomonic of astrocytic phenotype, we assessed differential RNA expre
235             We now report that inhibition of astrocytic Phgdh suppressed the de novo synthesis of l-a
236               The effects of AE3 knockout on astrocytic pHi homeostasis in MAc-related assays require
237                        Recent work examining astrocytic physiology centers on fluorescence imaging, d
238                                By histology, astrocytic plaques are diagnostic of CBD(7,8); by SDS-PA
239                  The early prominence of the astrocytic plaques in relation to sparse neuronal lesion
240 els enable the high conductance state of the astrocytic plasma membrane, which ensures the driving fo
241 nsity and distribution of cholesterol in the astrocytic plasmalemma, consequently modulating a host o
242 2-dependent HIF-2alpha degradation in nearby astrocytic precursors, thus limiting their further growt
243 g oxygen dependent HIF-2alpha degradation in astrocytic precursors.
244 apses were always located within 1 mum of an astrocytic process, but none were ensheathed by those pr
245  elicited a reduction in the total length of astrocytic processes and an increase in the expression o
246 t caused a delayed loss of mitochondria from astrocytic processes and increased colocalization of mit
247                                 Perisynaptic astrocytic processes are an integral part of central ner
248                                         Fine astrocytic processes are in tight contact with neurons a
249 ume measurements of synapses and surrounding astrocytic processes in mouse frontal cortex after 6-8 h
250 ere coordinated with changes in perisynaptic astrocytic processes in the border region between head a
251                                        Total astrocytic processes length, number of endpoints, the ex
252 s of neurons in area CA1 and mitochondria in astrocytic processes were blocked by ionotropic glutamat
253 ecently, mitochondria have been localized to astrocytic processes where they shape Ca(2+) signaling;
254 otransmission: the extracellular space, fine astrocytic processes, and neuronal terminals.
255 equired to restrict neuropil infiltration by astrocytic processes.
256 ead of differentiated astrocytes, but behind astrocytic progenitor cells (APCs) and immature astrocyt
257 However, YAP in astrocytes was necessary for astrocytic proliferation.
258                We tested the hypothesis that astrocytic prostaglandin E2 (PgE2) plays a key role for
259 inal hydrolase (UCH-L1) and glial fibrillary astrocytic protein (GFAP) in acute stroke patients and h
260  brain, increased plasma levels of S100B, an astrocytic protein, and down-regulation of tight junctio
261                      Our study suggests that astrocytic Rab3a is a potential therapeutic target for H
262                            Here we show that astrocytic rather than neuronal beta2ARs in the hippocam
263              Here, we show the importance of astrocytic reactivity on the pathogenesis of AD using Gi
264 ss, direct evidence of the role of LRRC8A in astrocytic regulatory volume decrease remains to be prov
265 p-me signal that activates a neuroprotective astrocytic response, which fails in ALS, and therefore r
266                                   Preventing astrocytic scar formation significantly reduced this sti
267 scar-forming astrocytes, or ablating chronic astrocytic scars all failed to result in spontaneous reg
268 rocytic Ca(2+) and cAMP and demonstrate that astrocytic second messengers are regulated in a temporal
269 activity state in astrocytes that alters the astrocytic secretome, leading to loss of synaptogenic fu
270  these data suggest that mGlu3 can influence astrocytic signaling and modulate betaAR-mediated effect
271                Our findings suggest distinct astrocytic signaling pathways can integrate noradrenergi
272  a unidimensional process involving neuronal-astrocytic signaling to local blood vessels to a multidi
273 l networks at presynaptic, postsynaptic, and astrocytic sites to the time window of t-LTD induction.
274 ochondrial epilepsy by the application of an astrocytic-specific aconitase inhibitor, fluorocitrate,
275 dent transient astrocytic volume changes and astrocytic structural elaboration.
276  of Schwann cells on inhibitory aggrecan and astrocytic substrates.
277 ring pathological cell swelling, deletion of astrocytic Swell1 attenuated glutamate-dependent neurona
278 hway in vivo corrected several HD-associated astrocytic, synaptic, and behavioral phenotypes, with ac
279 in in the absence of neuronal tau pathology, astrocytic tau pathology did not.
280 y also identifies BMP2 as an effector of the astrocytic terminal differentiation mediated by SNRPN.
281 e hypoxic injury via a mechanism mediated by astrocytic thrombospondin-1 (TSP1) and synaptic low-dens
282 d by ERK1/2-regulated STAT3 phosphorylation, astrocytic thrombospondin-1 (TSP1) and synaptic low-dens
283                                              Astrocytic TIMP-1 was demonstrated to play a pivotal rol
284 , neurons and neuronal activity regulate the astrocytic transcriptome with the potential to shape ast
285 ing of extracellular glutamate, we find that astrocytic transients in glutamate co-occur with shifts
286 lize glutamate uptake but also restore other astrocytic transporter activities afflicted with HD.
287 caine administration and examine the role of astrocytic TSP-alpha2delta-1 signaling in cocaine-induce
288 f other cellular clocks, the cell-autonomous astrocytic TTFL alone can drive molecular oscillations i
289 activation in the form of a reactive retinal astrocytic tumor.
290 c injury and that binding of neuronal uPA to astrocytic uPAR induces astrocytic activation by a mecha
291     We found that binding of neuronal uPA to astrocytic uPAR promotes astrocytic activation and that
292                                     Although astrocytic VEGF-A was also increased, anti-VEGF failed t
293 uring demyelination; and that attenuation of astrocytic voltage-gated Ca(2+) influx may be an effecti
294 nisms that included AQP4-dependent transient astrocytic volume changes and astrocytic structural elab
295  swelling and receptor stimulation activated astrocytic VRAC, which requires its only obligatory subu
296 lox/flox) mice to generate a region-specific astrocytic YY1 conditional knockout (cKO) mouse model.
297                                              Astrocytic YY1 deletion also attenuated the Mn-induced d
298 tors into the SN resulted in region-specific astrocytic YY1 deletion and attenuation of Mn-induced im
299             Here, we investigated if in vivo astrocytic YY1 deletion mitigates Mn-induced dopaminergi
300                  These results indicate that astrocytic YY1 plays a critical role in Mn-induced neuro

 
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