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1 dbrain boundary, spinal cord and dorsal root ganglia.
2 o calcium mobilization in murine dorsal root ganglia.
3 ent, giving off varicose endings in multiple ganglia.
4 ifelong latent infection in peripheral nerve ganglia.
5 s in receipt of inputs from the nodose vagal ganglia.
6 onditions associated with the mPFC and basal ganglia.
7 r 90% of latent virus from superior cervical ganglia.
8 nces in neuronal gene expressions in sensory ganglia.
9  systems residing in the brain, in our basal ganglia.
10 tal trajectories of tissue iron in the basal ganglia.
11 y the corresponding systems within the basal ganglia.
12 elated and motivational signals in the basal ganglia.
13  neurons form a key network within the basal ganglia.
14 on of tissue iron concentration in the basal ganglia.
15 s learning and action selection in the basal ganglia.
16 n the striatum, the central hub of the basal ganglia.
17 , yet an understudied component of the basal ganglia.
18  in sensory, sympathetic and parasympathetic ganglia.
19 the distal colon is devoid of enteric neural ganglia.
20 ine nerve cell bodies were labeled in nodose ganglia.
21 ptosis and microglial activation in infected ganglia.
22 entrally positioned network within the basal ganglia.
23 tum is the main input structure of the basal ganglia.
24 d in the dorsal root, autonomic, and enteric ganglia.
25 ry neurons of the dorsal root and trigeminal ganglia.
26 rebral cortex, the cerebellum, and the basal ganglia.
27 ntion-related visual processing in the basal ganglia.
28 es are the target cells for EBOV in affected ganglia.
29  50-100 nl) were made into L3-L5 dorsal root ganglia.
30 esses cFos expression in the gut sympathetic ganglia.
31 profiling, that localized to either TL or LS ganglia.
32 ing white matter-enhancing lesions and basal ganglia abnormalities that could be related to severe ac
33                                        Basal ganglia abnormalities were seen in four other patients (
34 e permitted or triggered by changes in basal ganglia activity through gating- or rebound-like mechani
35  normal and pathological patterning of basal ganglia activity.
36                            Within trigeminal ganglia, afferents innervating craniofacial muscles inte
37 pa1(+)EECs directly stimulates vagal sensory ganglia and activates cholinergic enteric neurons by sec
38                              Human myenteric ganglia and adjacent smooth muscle were isolated by lase
39 sal premotor cortex, as well as in the basal ganglia and anterior cerebellum.
40 RT(+) neurons send axons to the prevertebral ganglia and are polysynaptically connected to the liver
41  (learning and memory that rely on the basal ganglia and associated circuitry) can explain numerous b
42 direct pathways running from cortex to basal ganglia and between basal ganglia and cerebellum in the
43 te that a population of neurons in the vagal ganglia and brainstem are activated via the gut-brain ax
44    Hypomyelination with atrophy of the basal ganglia and cerebellum (H-ABC) is a neurodegenerative di
45 luding Hypomyelination with Atrophy of Basal Ganglia and Cerebellum (H-ABC), a rare hypomyelinating l
46 om cortex to basal ganglia and between basal ganglia and cerebellum in the pathophysiology of movemen
47 ionship between neuronal firing in the basal ganglia and cortical gamma activity during movement, we
48 xpression of Tbx3 from the SAN and (cardiac) ganglia and in neonatal lethality.
49 btype 2 showed increased volume in the basal ganglia and internal capsule, and otherwise normal brain
50  and stable anatomy, except for larger basal ganglia and internal capsule, not explained by antipsych
51 expression patterns and found that the basal ganglia and medium spiny neurons were most enriched for
52 transcriptional profiling of human myenteric ganglia and mouse EN provides a rich foundation for deve
53 perdirect and indirect pathways of the basal ganglia and movement control.
54 d patients demonstrate the role of the basal ganglia and other interconnected structures, such as the
55  with blunted reward activation in the basal ganglia and other regions such as the medial prefrontal
56 he frontal and occipital white matter, basal ganglia and pons was used to obtain a global cerebral sm
57  demonstrate that EBOV can infect peripheral ganglia and results in ganglionopathy in rhesus macaques
58 synaptic vagal sensory input from the nodose ganglia and spinal sensory input from the dorsal horn.
59 y and multi-network integration in the basal ganglia and thalamus of individual human subjects.
60 , myelin and iron concentration of the basal ganglia and thalamus were estimated from 182 MRI dataset
61 ize the functional interaction between basal ganglia and thalamus, we demonstrated that patients with
62  both via ascending projections to the basal ganglia and through descending projections to brainstem
63  of 132 colon afferents (from NG, TL, and LS ganglia) and 128 bladder afferents (from TL and LS gangl
64 be, the diencephalon, cerebral cortex, basal ganglia, and cerebellum.
65 tions of nervous system white matter tracts, ganglia, and nerves, and an enhanced series of 10 flatma
66  nerve endings in circular muscle, myenteric ganglia, and submucosa.
67 neurons innervated mucosal crypts, myenteric ganglia, and submucosa.
68 sterior cingulate and parietal cortex, basal ganglia, and temporal cortex.
69                                    The basal ganglia are a collection of nuclei in vertebrates that e
70                                    The basal ganglia are a group of subcortical nuclei that contribut
71                              SGCs in sensory ganglia are activated by numerous types of nerve injury
72 of beta frequency band activity in the basal ganglia are associated with slowing of voluntary movemen
73                                    The basal ganglia are implicated in a range of perceptual function
74                                    The basal ganglia are important for movement and reinforcement lea
75 decision processes and learning in the basal ganglia are modulated by the motivation.
76 n slices we show that within each bird basal ganglia Area X-projecting (HVC(X)) neurons share similar
77 nnected with the prefrontal cortex and basal ganglia, areas which have been implicated in interval ti
78 as used to show distal colon without enteric ganglia, as well as a transition zone and proximal pull-
79 ns whose cell bodies are located in multiple ganglia associated with the brainstem and spinal cord.
80                         By profiling sensory ganglia at single-cell resolution, we find that all soma
81 -specific CD8(+) T cells that infiltrate the ganglia at the onset of latency and contract to a stable
82 einforcement learning models treat the basal ganglia (BG) as an actor-critic network.
83  treatments that decrease pathological basal ganglia (BG) beta oscillations (10-17 Hz in primates), s
84 nigra pars reticulata (SNr), where the basal ganglia (BG) direct and indirect pathways converge, cont
85 PD are generally attributed to altered Basal Ganglia (BG) function.
86  behavioral protocol to understand how basal ganglia (BG) is affected by cannabinoids.
87                            As a rodent basal ganglia (BG) output nucleus, the substantia nigra pars r
88                                 In the basal ganglia (BG), anatomically segregated and topographicall
89 d in the neocortex and cortical lobes, basal ganglia (BG), hippocampi, and thalami.
90 ticulata (SNr), the main output of the basal ganglia, blocks signaled active avoidance, while inhibit
91 s. 32%, 24%, and 38% with (68)Ga-PSMA-11 for ganglia, bone, and unspecific lymph nodes, respectively)
92 he hypothesis that pulsatile output from the ganglia can synchronize islet behavior.
93         Most of our images were of myenteric ganglia, captured using a 20x objective lens.
94 cated in the following areas: level of basal ganglia (caudate nucleus, putamen, corpus callosum, post
95                      In contrast, some basal ganglia, cerebellar, and limited cortical areas showed e
96 reated HIV, except a MRS alteration in basal ganglia choline.
97                      Therefore, the M2-basal ganglia circuit is critical for the assembly of the moto
98                             Within the basal ganglia circuit, the external globus pallidus (GPe) is c
99 us (GPe) is a critical node within the basal ganglia circuit.
100 manner as the hyperdirect and indirect basal ganglia circuitry.
101 y in HVC and occurred independently of basal ganglia circuitry.
102  glutamatergic transmission in cortico-basal ganglia circuits and represents a major target of L-DOPA
103 ial attention, then the involvement of basal ganglia circuits should incorporate the subject's expect
104  critically relies on frontal cortex - basal ganglia circuits.
105 g cognitive, motor, and limbic cortico-basal ganglia circuits.
106 ng prefrontal, anterior cingulate, and basal ganglia connections linked to the limbic system.
107 on for these diverse roles is that the basal ganglia control the level of commitment to particular mo
108 ) developed T1 hyperintensities of the basal ganglia, corresponding to accumulated lipid phagocytes o
109 ephalic signaling center important for basal ganglia development known in other vertebrates (i.e., th
110 eases are associated with dysregulated basal ganglia direct-pathway activity.
111 PNs) are thought to contribute to many basal ganglia disorders, including early-onset neurodevelopmen
112 sing in-situ contact angle measurements, oil ganglia distribution analysis, and three-dimensional vis
113 D and Dystonia are likely amplified by basal ganglia downstream structures.
114 m in molecular signatures of the dorsal root ganglia (DRG) and spinal cord response, not observed at
115 lin-dependent kinase 5 (Cdk5) in dorsal root ganglia (DRG) and spinal dorsal horn.
116 tion of VIP in the corresponding dorsal root ganglia (DRG) and the dorsal horn of the spinal cord.
117 h PC12 cells and chick embryonic dorsal root ganglia (DRG) bodies, as well as the migration of Schwan
118                              The dorsal root ganglia (DRG) contain the somas of first-order sensory n
119 s assessed by von Frey assay and dorsal root ganglia (DRG) expression of Calca and Tac1 genes.
120                              The dorsal root ganglia (DRG) house the primary afferent neurons respons
121         Resident GFAP(+) glia in dorsal root ganglia (DRG) known as satellite glial cells (SGCs) pote
122 protein levels in fibroblasts in dorsal root ganglia (DRG) meninges and in the epi/perineurium of the
123 erived exosomes communicate with dorsal root ganglia (DRG) neurons.
124 ases the regenerative ability of dorsal root ganglia (DRG) sensory neurons compared to EE or a condit
125 drives pathologic changes in the dorsal root ganglia (DRG) through inflammation, altered metabolism,
126  in primary culture and in mouse dorsal root ganglia (DRG), as determined by the characteristic senes
127 :LUC fusion protein, we isolated dorsal root ganglia (DRG), the primary sensory cell body for periphe
128                               In dorsal root ganglia (DRG), there is an increase in CGRP(+), TH(+), a
129                                  Dorsal root ganglia (DRG), which contain the somata of primary senso
130 ent neurons, with cell bodies in dorsal root ganglia (DRG).
131 y receptor alpha1 (GFRalpha1) in dorsal root ganglia (DRG).
132 round injured sensory neurons in dorsal root ganglia (DRG).
133 e predominantly in thoracolumbar dorsal root ganglia (DRG).
134 ifelong latent infections in the dorsal root ganglia (DRG).
135 alpha6beta4, an nAChR subtype in dorsal root ganglia (DRG).
136 undles, and the transcriptome of dorsal root ganglia (DRGs) provide possible explanations for the inc
137       Transcriptome profiling of dorsal root ganglia (DRGs) revealed 138 differentially regulated gen
138  the distal nerve and axotomized dorsal root ganglia (DRGs).
139     TRPC4 is highly expressed in dorsal root ganglia (DRGs).
140 f tissue iron concentration across the basal ganglia during adolescence and provide evidence that dim
141 e increase in beta oscillations in the basal ganglia during sleep paralleled decreased NREM sleep, in
142 d directed medial prefrontal cortex to basal ganglia effective connectivity is abnormally increased o
143                                        Basal ganglia encephalitis (BGE), representing a subset of AE
144                                    The basal ganglia, especially the caudate nucleus 'head' (CDh) of
145              There were no changes in nodose ganglia excitability in TNX deficient mice, suggesting t
146                      VANs, located in nodose ganglia, express receptors for various gut-derived pepti
147 nd executive function, mediated by the basal ganglia, extended amygdala, and frontal cortex, respecti
148 hat establish lifelong latency in peripheral ganglia following the initial infection at mucosal surfa
149 modes of information processing in the basal ganglia for different motor and nonmotor functions and o
150 erminating in the celiac-superior mesenteric ganglia form varicose-like structures surrounding indivi
151  the basal ganglia in PD and models of basal ganglia function and dysfunction were proposed.
152 GNIFICANCE STATEMENT Current models of basal ganglia function are often based on a distinction of two
153 ys provides striking predictions about basal ganglia function that have been used to develop deep bra
154 n the striatum play a critical role in basal ganglia function, such as reinforcement and motor learni
155 amine, both of which are essential for basal ganglia function.
156  of either sex, we found that the main basal ganglia GABAergic output in the midbrain, the substantia
157 wever, is increased motor cortical and basal ganglia gamma synchrony.
158 my of the medial prefrontal cortex and basal ganglia has been extensively studied and the former has
159 ntral pallidum, located in the ventral basal ganglia, has long been recognized as an obligatory node
160                              While autonomic ganglia have been extensively studied in rats instead of
161                                    The basal ganglia have been implicated in action selection and tim
162            While prefrontal cortex and basal ganglia have been implicated in interval timing in the s
163  protein with age in several cortices, basal ganglia, hippocampus, and midbrain, a decrease with age
164 ndomly distributed among neuronal subsets in ganglia, implying that improved delivery to all neuronal
165 e white matter in children, and in the basal ganglia in adults.
166 es of patients with Hirschsprung disease had ganglia in multiple layers and thick nerve fiber bundles
167 of potential volumetric changes of the basal ganglia in patients with PD who underwent staged STN DBS
168 iological changes that occurred in the basal ganglia in PD and models of basal ganglia function and d
169 Recent work has implicated the primate basal ganglia in visual perception and attention, in addition
170  fibrils (PFFs) into the stellate and celiac ganglia induces spreading of alpha-Syn pathology only th
171 he integration of limbic, sensory, and basal ganglia information to guide effective response strategi
172  firing rate for understanding cortico-basal ganglia information transfer.
173 uggest that the broken balance between basal ganglia inhibition and thalamus synchronization can info
174 xamine this hypothesis, rats received nodose ganglia injections of an adeno-associated virus (AAV) ex
175                        Few neurons in nodose ganglia innervate the uterus.
176                                Cortico-basal ganglia interactions continuously shape the way we move.
177 ontocerebellar Hypoplasia with typical basal ganglia involvement on neuroimaging.
178  normative developmental trajectory of basal ganglia iron concentration during adolescence and its as
179  results suggest a prolonged period of basal ganglia iron enrichment that extends into the mid-twenti
180     Atypical iron concentration in the basal ganglia is associated with neurodegenerative disorders i
181  of herpes simplex virus 1 in the trigeminal ganglia, leading to dissemination of virus to, and infec
182 ec; right, 1.15 x10(3)mum(2)/sec), and basal ganglia (left, 1.26 x10(3)mum(2)/sec; right, 1.23 x10(3)
183 +/- 0.32; right, 1.45 years +/- 0.33), basal ganglia (left, 1.79 years +/- 0.31; right, 1.70 years +/
184 ed inflammatory processes in the dorsal root ganglia, likely by activating stress-response proteins,
185 nectivity between the habenula and the basal ganglia, limbic, and sensory systems was already present
186     Viscera receive innervation from sensory ganglia located adjacent to multiple levels of the brain
187 r excess activity of inhibitory corticobasal ganglia loops is unclear.
188  demonstrate that activity through the basal ganglia may play an important and distinct role among th
189 iatum is the main input nucleus of the basal ganglia, mediating motor and cognitive functions.
190 sease, leading to abnormal function of basal ganglia motor circuits and the accompanying characterist
191   PSD-95 was reduced in the brainstem, basal ganglia, neocortex, and cerebellum within 13 dpi, indica
192  action or inhibition recruit a fronto-basal-ganglia network just like stopping.
193  nogo signal recruited the same fronto-basal-ganglia network which is usually assigned to stopping.
194  like global stopping recruit a fronto-basal-ganglia network.
195 y of actions can be implemented in the basal ganglia network.
196 ous findings on the essential role for basal ganglia networks in absence seizures, in particular the
197 beta bursting, both locally and across basal ganglia networks, impacts on motor performance in this c
198 beta bursting, both locally and across basal ganglia networks, may impact on motor performance.SIGNIF
199 promise information coding capacity in basal ganglia networks.
200 tion linked to abnormalities in corticobasal ganglia networks.
201 l methods to detail the progression of basal ganglia neuron type-specific pathology and the deficits
202  receptor (nAChR) is enriched in dorsal root ganglia neurons and is an attractive non-opioid therapeu
203                                      Jugular ganglia neurons wire into a central circuit that is nota
204 ato mice label 80% of nodose and dorsal root ganglia neurons.
205   Early in this pathway, in the lateral line ganglia, neurons respond almost exclusively to the simpl
206 acolumbar (TL), lumbosacral (LS), and nodose ganglia (NG) in male and female mice.
207                                  Dorsal root ganglia nociceptors protect against STm colonization, in
208 The thalamus also receives inputs from basal ganglia nuclei (BG) involved in value-based decision mak
209 ontrol the flow of information through basal ganglia nuclei that eventually project back to the mPFC
210 und that beta dynamics differed across basal ganglia nuclei.
211  Beta dynamics therefore differ across basal ganglia nuclei.
212                                    Myenteric ganglia occupied 34% +/- 4% of myenteric plexus.
213 ubstance P and S100beta density in myenteric ganglia of HFD mice were increased at week 8, but not at
214 ntribute to the pain state in the trigeminal ganglia of injured mice.
215 ASYMP HLA transgenic rabbits, the trigeminal ganglia of non-protected SYMP HLA transgenic rabbits had
216 of beta frequency band activity in the basal ganglia of patients with Parkinson's disease (PD) are as
217 tures of a cell bridge linking two autonomic ganglia of the neck, namely, the nodose ganglion (NG) an
218 ns improved with lesions involving the basal ganglia or thalamus.
219 iesterase 10A (PDE10A) activity in the basal ganglia orchestrates the control of coordinated movement
220              Herein, we generate dorsal root ganglia organoids (DRG organoids) by in vitro differenti
221 ed single-unit activity from connected basal ganglia output and thalamic nuclei (globus pallidus-inte
222 ergence, illuminating how synchrony of basal ganglia output during motor learning or in pathological
223 he ventral thalamus, a major target of basal ganglia output, is often assumed to be permitted or trig
224 and resulted in reduced direct pathway basal ganglia output.
225 e impact of the subthalamic nucleus on basal ganglia output; then, at ~160 ms, suppression was detect
226 nal medulla or in sympathetic, paravertebral ganglia outside the medulla.
227 was sympathetic hyperinnervation in stellate ganglia (p = 0.02) but not ventricles (p = 0.2) of PVC-C
228                       Further study of basal ganglia pathophysiology is required to better understand
229 ting this complex balancing act is the basal ganglia pathway, but its roles have not yet been examine
230 d upon the direct but not the indirect basal ganglia pathway.
231                                    The basal ganglia play an important role in decision making and se
232 o the subthalamic nucleus (STN) of the basal ganglia, play a key role in inhibiting impulsive respons
233                                       Neural ganglia regeneration and structure, bowel motility, epit
234 ignals in the ventral pallidum (VP), a basal ganglia region functionally linked to reward-seeking beh
235                                        Basal ganglia regions may be relatively preserved in TS owing
236 tion using R2* relaxometry within four basal ganglia regions, including the caudate, putamen, nucleus
237 cross patients, but not in cortical or basal ganglia regions.
238 tween the medial prefrontal cortex and basal ganglia related to depression.
239 linergic stimulation of islets by pancreatic ganglia resets these endocrine units, producing synchron
240 ly, explant of latently infected dorsal root ganglia revealed a decreased and delayed reactivation ph
241 bal transcriptional profiling of dorsal root ganglia revealed differential expression, notably in reg
242  and spinal cord glia as well as dorsal root ganglia satellite glia have been identified important- i
243 ch project to the celiac-superior mesenteric ganglia, significantly increase splenic nerve activity a
244                    We also observed that oil ganglia size was reduced under tertiary mode of low sali
245                                              Ganglia-specific transcriptional profiles were identifie
246 ocomotion by releasing dopamine in the basal ganglia, spinal networks, and the mesencephalic locomoto
247  related to the smaller volume of some basal ganglia structures.
248 plex virus 1 (HSV-1) from neurons in sensory ganglia such as the trigeminal ganglia (TG) is influence
249                 The nodose and jugular vagal ganglia supply sensory innervation to the airways and lu
250 ortex with reward prediction errors in basal ganglia support exploration of latent task representatio
251 The temporal evolution of cortical and basal ganglia synchronization is cell type-selective, which co
252               The current model of the basal ganglia system based on the 'direct', 'indirect' and 'hy
253 eta band, restrict the capacity of the basal ganglia system to encode physiologically relevant inform
254 s providing a novel perspective on the basal ganglia system.
255                                  In isolated ganglia, T cells showed phase-dependent IPSPs during dop
256 rus during acute infection in the trigeminal ganglia (TG) and brain stem compared to the control-vacc
257  cavities, sensory neurons within trigeminal ganglia (TG) are an important site for latency.
258 ns in sensory ganglia such as the trigeminal ganglia (TG) is influenced by virus-specific CD8(+) T ce
259 ) in naturally VZV-infected human trigeminal ganglia (TG).
260 latency is sensory neurons within trigeminal ganglia (TG).
261 oaches and ganglion types [DRG vs trigeminal ganglia (TG)].
262 re demonstrated bilaterally within the basal ganglia, thalami, corpus callosum, occipital, temporal,
263 tion and iron concentration within the basal ganglia-thalamic circuit over 2 years post-SCI.
264 nd reorganizational changes across the basal ganglia-thalamic circuitry occur early after SCI and pro
265 ally increased beta bursts in cortical-basal ganglia-thalamic circuits are associated with rigidity a
266 ated within dopamine-modulated cortico-basal ganglia-thalamic circuits in schizophrenia.
267 o-thalamic connectivity within cortico-basal-ganglia-thalamic circuits.
268            Thus, in the healthy state, basal ganglia-thalamic communication during learned movement i
269 ) is a critical component of a cortico-basal ganglia-thalamo-cortical loop regulating limbic and cogn
270 PD), gamma oscillatory activity in the basal ganglia-thalamo-cortical network is altered and the LTP-
271  gamma oscillations are altered in the basal ganglia-thalamo-cortical network.
272              We will then describe the basal ganglia-thalamocortical circuit, the major locus of PD-r
273  a key component of the limbic cortico-basal ganglia-thalamocortical loop.
274 tive of the interactive pathways among basal ganglia, thalamus and cortex, to explore the imprinting
275 l lesions found on neuroimaging in the basal ganglia, thalamus, and brainstem and by a loss of motor
276                                    The basal ganglia, thalamus, and cerebral cortex form an interconn
277 ronization in the insular, cerebellum, basal ganglia, thalamus, operculum, frontoparietal cortices, a
278 nt hippocampal inhibition of amygdala, basal-ganglia, thalamus, orbital frontal cortex, inferior fron
279 changes in interactive profiles of the basal ganglia-thalamus network in the current history group ma
280 th the thalamocortical network and the basal ganglia-thalamus network with resting state functional M
281 to the classic indirect pathway of the basal ganglia that also targets the STN.
282 show that a major input station of the basal ganglia, the caudate nucleus, plays a causal role in int
283                         In the primate basal ganglia, the caudate tail (CDt) encodes the historical v
284      These include the striatum of the basal ganglia, the dorsolateral prefrontal cortex (DLPFC), the
285                             Within the basal ganglia, the globus pallidus pars externa (GPe) has been
286                               Atypical basal ganglia tissue iron levels have been linked to impaired
287  PTGER2 (also called EP2) in the dorsal root ganglia to promote visceral hypersensitivity.
288     Despite clear evidence linking the basal ganglia to the control of outcome insensitivity (i.e., h
289 d worsening was identified in post-ATI basal ganglia total choline MRS, suggesting an alteration in n
290 n and pain are found in afferents across all ganglia types, suggesting that conscious sensation and h
291 benign lesions most frequently observed were ganglia, unspecific lymph node, and bone lesions, at a r
292 gray matter as well as hippocampal and basal ganglia volumes in NMDARE children.
293 uronal tracer (DiI) and dye uptake in nodose ganglia was examined.
294                    In this study, peripheral ganglia were collected from 12 rhesus macaques that succ
295 a) and 128 bladder afferents (from TL and LS ganglia) were analyzed.
296  role in this process is played by the basal ganglia, where neural activity and plasticity are modula
297 ugh their ascending projections to the basal ganglia, which in turn project to the mesencephalic loco
298 lso expressed strongly in the adult thoracic ganglia while sema1a.1 was only weakly expressed and ple
299 lly or caudally along many rows of myenteric ganglia with little circumferential displacement, giving
300 ngs together models of learning in the basal ganglia with the incentive salience theory in a single s

 
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