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1 ed serine protease, is also proepileptic and excitotoxic.
2 ted lateral hemisections with or without the excitotoxic ablation of intrinsic spinal cord neurons.
4 ceptor, and that has anti-apoptotic and anti-excitotoxic actions, reducing brain damage in adult anim
5 NR2B-containing NMDARs, but, in contrast to excitotoxic activation of extrasynaptic NMDARs, produced
7 uggest that the kidney may be susceptible to excitotoxic agonists, and renal effects should be consid
8 effects within the IT cortex in monkeys with excitotoxic amygdala lesions (n = 3) with those in intac
9 ive lesion techniques, monkeys with complete excitotoxic amygdala lesions performed object reversal l
10 lopmental neuroscience also suggest that the excitotoxic and inflammatory processes that probably con
15 eurons to the kinds of metabolic, oxidative, excitotoxic, and proteotoxic stresses involved in the pa
16 lencing of calpain protected neurons against excitotoxic apoptosis but did not influence excitotoxic
17 sitivity to bax-gene deletion, (2) underwent excitotoxic apoptosis, characterized by recovery of NMDA
18 entify when calpains became activated during excitotoxic apoptosis, we monitored calpain activation d
19 esence of compact myelin is not required for excitotoxic axon damage, and its absence may increase vu
20 tau(-/-)) mice are profoundly protected from excitotoxic brain damage and neurological deficits follo
23 we found evidence for early contributions of excitotoxic Ca(2+) and Zn(2+) accumulation in both CA1 a
24 results--showing that the various routes of excitotoxic Ca(2+) entry converge on a common pathway in
25 hereas most studies address contributions of excitotoxic Ca(2+) entry, it is apparent that Zn(2+) als
27 er, the overactivation of NMDARs can lead to excitotoxic cell damage/death, and as such, they play a
28 unique role for copper in axonal extension, excitotoxic cell death and synaptic plasticity in the ce
30 of the primary causes of secondary injury is excitotoxic cell death due to dysregulation of extracell
32 age, Ku70-Bax interaction, and Bax-dependent excitotoxic cell death in kainic acid-treated primary co
33 Glutamate is a central tenant in provoking excitotoxic cell death in striatal neurons already weake
34 matrix (ECM) protein laminin contributes to excitotoxic cell death in the hippocampus, but the mecha
37 (2+) level is thought to be a major cause of excitotoxic cell death, but the mechanisms that control
38 t DNA-PKcs links DNA damage to Bax-dependent excitotoxic cell death, by phosphorylating Ku70 on serin
39 ich renders neurons transiently resistant to excitotoxic cell death, can also induce Zn(2+)-dependent
40 tive disease and increased susceptibility to excitotoxic cell death, suggesting a critical but undefi
41 led to a dramatic reduction in the extent of excitotoxic cell death, with slightly greater effects ob
53 d resulted in loss of cortical neurons after excitotoxic challenge, indicating that neuronal apoE4 pr
54 underlie afferent terminal damage following excitotoxic challenge, suggesting that limiting Ca(2+) l
56 play a central role in the inflammatory and excitotoxic component of various acute and chronic neuro
58 ell survivability by approximately 50% under excitotoxic condition, cell loss in Cx45 knock-out mouse
63 protein levels and signaling activity under excitotoxic conditions, which are characteristic of brai
65 These findings support a noncell autonomous, excitotoxic contribution from proprioceptive sensory neu
66 port capacity in ALS spinal cord supports an excitotoxic contribution to motor neuron (MN) damage in
67 the CNS, and induce neuroprotection against excitotoxic damage due to excessive glutamate (Glu) expo
70 ents a key chemical reaction contributing to excitotoxic damage in stroke and potentially other neuro
72 fl/f) mice, which were more resistant to the excitotoxic damage induced by intraventricular injection
74 her hair-cell loss was a secondary effect of excitotoxic damage to innervating neurons, I exposed neu
81 o an episode of NMDA receptor activity, with excitotoxic death pathways requiring higher levels than
82 te via the system Xc(-) transporter, causing excitotoxic death to mature myelin-producing oligodendro
83 ory neurotransmitters causes them to undergo excitotoxic death via multiple synergistic injury mechan
84 composition seem to govern glutamate-induced excitotoxic death, but there is much uncertainty concern
89 cultures increased neuronal vulnerability to excitotoxic dendritic damage following a burst of synapt
92 22 years after the FDA approval of the anti-excitotoxic drug Riluzole before another drug was found
93 cytes to adequately protect neurons from the excitotoxic effects of glutamate, and increases intracel
94 nhibitory effect on glutamate release, block excitotoxic effects of glutamate, and potentiate postsyn
95 nto the cochlea could potentiate the already excitotoxic effects of glutamate, producing: [1] hyperac
97 ions of interstitial glutamate exert further excitotoxic effects on healthy tissue surrounding the in
98 very of IL-1beta was associated with several excitotoxic effects, including NMDA receptor-dependent n
104 N exerted comparable efficacy in attenuating excitotoxic glutamate (200 microM)-induced intracellular
105 duced promotion of neuronal survival against excitotoxic glutamate (200 microM)-induced neurotoxicity
106 logical stimuli such as hypoxia-ischemia and excitotoxic glutamate and identify PK2 as a deleterious
107 ing metabolic challenge, where the source of excitotoxic glutamate buildup may be largely synaptic.
108 ong body of research has defined the role of excitotoxic glutamate in animal models of brain ischemia
109 lutamate exchanger is an important source of excitotoxic glutamate in response to ischemia induced by
112 nsitizing vulnerable neuronal populations to excitotoxic glutamate signaling and inducing an excitoto
114 ells towards the oxidizer, arsenite, and the excitotoxic glutamate/glycine is demonstrated by the dos
115 been presented "where" and "when." Rats with excitotoxic hippocampal lesions showed the familiarity-d
119 EN) is a delayed step causatively leading to excitotoxic (in vitro) and ischemic (in vivo) neuronal i
120 e transporter-1 (GLT-1), which would prevent excitotoxic-induced neuronal death, we proposed that GPR
121 articipate in central NMDA-receptor-mediated excitotoxic inflammation; and [5] kappa-opioid receptor
122 ntly developed in the rat where a unilateral excitotoxic injection into the globus pallidus leads to
124 in bax exerted broad neuroprotection against excitotoxic injury and oxygen/glucose deprivation in mou
126 le of calpain activation during NMDA-induced excitotoxic injury in embryonic (E16-E18) murine cortica
127 nd, by doing so, promotes the progression of excitotoxic injury in the central nervous system in path
128 em, and protected cortical neurons from slow excitotoxic injury in vitro, without influencing NMDA-in
131 ow that increased synaptic activity prior to excitotoxic injury protects, in a transcription-dependen
132 ical conditions and that kainic acid-induced excitotoxic injury results in a profound increase in neu
133 mbrane potential (Deltapsim) analysis during excitotoxic injury revealed that bax-deficient neurons s
136 with activated microglia, which can promote excitotoxic injury via activation of receptors for plate
137 e metabolic profile of the mouse brain after excitotoxic injury, a mechanism of neurodegeneration imp
138 osing mouse hippocampal slices to NMDA as an excitotoxic injury, in combination with simultaneous pat
139 ia-mediated protection includes reduction of excitotoxic injury, since an absence of microglia leads
144 lations that mimic features of glutamatergic excitotoxic insult and also to determine whether memanti
145 icity can be effectively stimulated after an excitotoxic insult has been delivered, and may identify
147 s in a state of persistent susceptibility to excitotoxic insult mediated by neurovirulent virus effec
150 idic devices in order to deliver a localized excitotoxic insult, we replicate secondary spreading tox
151 rotected hippocampal neuronal cells from the excitotoxic insult, while efavirenz (EFV) did not contra
155 containing NMDA receptors (GluN2B-NMDARs) in excitotoxic-insult-induced neurodegeneration and amyloid
157 e (NMDA) offers good neuroprotection against excitotoxic insults, but is potentially limited by the r
167 in reversal learning, marmosets received an excitotoxic lesion of the VLPFC, OFC, or a sham control
168 he posteriodorsal medial amygdala (MePD) via excitotoxic lesion studies as a necessary nucleus in Met
169 te early gene imaging (c-Fos), fiber-sparing excitotoxic lesion, and reversible inactivation in rats,
171 mpared the effects of selective LPFC and OFC excitotoxic lesions and 5,7-DHT-induced PFC serotonin de
172 with dorsal anterior cingulate cortex (dACC) excitotoxic lesions and pharmacological disinhibition; h
174 vioral paradigms to determine the effects of excitotoxic lesions in the anterior cingulate cortex on
175 uestion was addressed by combining localized excitotoxic lesions in the PFC of a nonhuman primate and
178 social threat was induced, independently, by excitotoxic lesions of either the anterior orbitofrontal
179 We investigated the effects of selective excitotoxic lesions of either the vlPFC or anterior orbi
182 herefore evaluated the effects of selective, excitotoxic lesions of the amygdala in rhesus monkeys on
185 sham-lesioned controls, rats with bilateral excitotoxic lesions of the basolateral amygdala (BLA) fa
186 e behavior of rats that received pretraining excitotoxic lesions of the bed nucleus of the stria term
189 The current study assessed the influence of excitotoxic lesions of the insular cortex (IC) on taste-
191 d, the present study compared the effects of excitotoxic lesions of the medial striatum (MS), amygdal
192 study investigated the effects of selective excitotoxic lesions of the nucleus accumbens shell or co
194 in several cost-benefit decision tasks after excitotoxic lesions of the RMTg or temporally specific o
195 scending control was also observed following excitotoxic lesions of the RVM in adult and P21 rats.
198 ment of dorsal striatal function with either excitotoxic lesions or transgenic inhibition of the tran
199 sus monkeys (Macaca mulatta) with restricted excitotoxic lesions targeting either Walker's areas 11/1
201 objects), we examined the effects of crossed excitotoxic lesions to the POR and the contralateral PER
203 thophysiologic setting of cerebral ischemia, excitotoxic levels of glutamate contribute to neuronal c
213 t detect significant calpain activity during excitotoxic necrosis or in neurons that were tolerant to
214 ) murine cortical neurons that (1) underwent excitotoxic necrosis, characterized by immediate deregul
216 These findings demonstrate that SSC drives excitotoxic neurodegeneration in MoCD and introduce NMDA
219 eonatal and adult rodent cortical neurons to excitotoxic neurodegeneration with in vitro IL-1beta sen
224 es examining AMPAR-dependent potentiation of excitotoxic neuron death and dysfunction caused by TNFal
225 We propose that this activity contributes to excitotoxic neuron death because TNFalpha potentiation o
227 he essential NMDAR subunit NR1 protects from excitotoxic neuronal cell death in vivo and from traumat
230 oinhibitory function may result in unopposed excitotoxic neuronal damage in amyotrophic lateral scler
233 ompanied by neurotoxicity, and Abeta induces excitotoxic neuronal death by increasing calcium influx
234 ebellar granule cells; 2) protection against excitotoxic neuronal death in mixed cultures of cortical
235 te (NMDA) -type glutamate receptors leads to excitotoxic neuronal death in stroke, brain trauma, and
245 ctivation in the inferior olive resulting in excitotoxic neuronal injury in the cerebellum is the und
251 xogenous glutamate analogs, like the classic excitotoxic neurotoxins kainic acid, domoic acid, and NM
252 on signaling, purinergic receptor signaling, excitotoxic neurotransmitter signaling, perturbations in
253 nizes the GABA(A) receptor and behaves as an excitotoxic neurotransmitter that causes blood brain bar
254 bosis via the Rose Bengal method, as well as excitotoxic NMDA lesions, we show that dnSNARE animals e
255 dose-dependently mouse cortical neurons from excitotoxic NMDA-mediated neuritic bead formation and ap
256 disconnected from each other with unilateral excitotoxic (NMDA) lesions on either the same or opposit
260 ors as a valuable therapeutic target against excitotoxic pathologies including acute and chronic neur
261 fy MCP-1 as a key downstream effector in the excitotoxic pathway triggered by plasmin and identify pl
266 agonist, which combines antioxidant and anti-excitotoxic properties, to block axonal damage and reduc
269 TNFalpha-induced AMPAR trafficking to early excitotoxic secondary injury after CNS trauma in vivo, a
271 gs, such as kainate and domoate, which cause excitotoxic shellfish poisoning, induce nondesensitizing
273 e nNOS:NOS1AP interaction and involvement in excitotoxic signaling may provide future opportunities f
274 is a component of the NMDA-receptor-mediated excitotoxic signaling pathway, which plays a key role in
277 iched phosphatase (STEP), a component of the excitotoxic-signaling pathway that plays a role in neuro
281 s transduced with TrkB.T when present during excitotoxic stimulation with glutamate, in contrast with
288 neuronal Ca(2+)homeostasis in response to an excitotoxic stimulus; this was accompanied by a prolonge
290 phic support and increased mitochondrial and excitotoxic stress have been reported in HD striatal and
297 g via mu-opioid receptors, exacerbates these excitotoxic Tat effects at the same subcellular location
298 ignals are able to induce the release of the excitotoxic transmitter glutamate from these glia, we as
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