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1 n previously used in other ASD models (i.e., fragile X syndrome).
2 ies, including addiction, schizophrenia, and fragile X syndrome.
3 ressing neurons and in a Drosophila model of fragile X syndrome.
4 studies for the treatment of depression and fragile X syndrome.
5 ctrum disorder (ASD) associated with TSC and fragile X syndrome.
6 retardation 1 (Fmr1) knockout (KO) model of fragile X syndrome.
7 etogenesis and some developmental aspects of fragile X syndrome.
8 lts in silencing of the FMR1 gene and causes fragile X syndrome.
9 altered trajectory of synaptic maturation in fragile X syndrome.
10 g intergenerational transmissions leading to fragile X syndrome.
11 mily relationships with children affected by fragile X syndrome.
12 y regulates translation and which is lost in fragile X syndrome.
13 ribute to maladaptive auditory processing in fragile X syndrome.
14 y contribute to dendritic pathophysiology in Fragile X syndrome.
15 ated in autism spectrum disorders, including Fragile X syndrome.
16 ty in neuropsychiatric conditions, including fragile X syndrome.
17 ntellectual disability are Down syndrome and Fragile X syndrome.
18 may underlie perceptual deficits related to fragile X syndrome.
19 brain disorders including schizophrenia and fragile X syndrome.
20 RNA-binding protein whose deficiency causes fragile X syndrome.
21 organs that have been shown to be altered in Fragile X syndrome.
22 s of FXR2P or FMRP in vivo, a mouse model of fragile X syndrome.
23 aptic plasticity and cognition impairment in Fragile X syndrome.
24 their clinical implications for people with fragile X syndrome.
25 the treatment of individuals afflicted with Fragile X syndrome.
26 disorders, including Huntington disease and fragile X syndrome.
27 al and neuropsychiatric disorders, including fragile X syndrome.
28 mechanisms relevant to impaired cognition in fragile X syndrome.
29 butes to a form of human mental retardation, Fragile X Syndrome.
30 omised in a severe monogenic form of autism, Fragile X Syndrome.
31 e and behavioural phenotypes associated with fragile X syndrome.
32 lated in autism spectrum disorder as well as fragile X syndrome.
33 nal regulation of a distinct set of genes in fragile X syndrome.
34 iology in 16p11.2 microdeletion syndrome and fragile X syndrome.
35 ysfunctional prefrontal cortex processing in fragile X syndrome.
36 l of the developmental neurological disorder Fragile X syndrome.
37 s primary contributors to the development of fragile X syndrome.
38 tions, including nociception, addiction, and fragile X syndrome.
39 of intellectual disability and autism called fragile X syndrome.
40 uit and likely represents a major feature of fragile X-syndrome.
41 region, and monogenic causes, as in Rett and fragile-X syndromes.
47 l system habituation to face and eye gaze in fragile X syndrome, a disorder characterized by eye-gaze
48 sally associated with the pathophysiology of fragile X syndrome, a leading inherited cause of intelle
49 This form of plasticity is deregulated in Fragile X Syndrome, a monogenic form of autism in humans
50 comprehensive manner, we begin by selecting fragile X syndrome, a neurogenetic disease with cognitiv
51 velopment in the cortex are key hallmarks of fragile X syndrome, a prevalent neurodevelopmental disor
53 assical conditioning in 20 participants with Fragile X syndrome ages 17 to 77 years, and 20 age-match
54 or fly models of Alzheimer's disease and the Fragile X syndrome, allowing applications such as geneti
55 atial and temporal attention in infants with fragile X syndrome and age-matched neurotypically develo
59 lem in the Fmr1-knockout (KO) mouse model of Fragile X syndrome and describe potentially treatable un
60 DSCR1 is a novel regulator of FMRP and that Fragile X syndrome and Down syndrome may share disturban
61 ts with FMRP, a protein that is deficient in fragile X syndrome and is known to regulate the translat
63 g the pathogenic mechanisms of Hrp38-related Fragile X syndrome and PARP1-related retinal degeneratio
65 hysiology of Autism Spectrum Disorder (ASD), Fragile X Syndrome and Tuberous Sclerosis, the role of o
66 BPN14770 may be useful for the treatment of fragile-X syndrome and other disorders with decreased cA
70 ced repetitive behaviors in a mouse model of Fragile X syndrome, and Arbaclofen improved some clinica
71 evelopmental disorders, Rett syndrome (RTT), fragile X syndrome, and CDKL5 syndrome, also affects fem
72 erapeutic approaches for spinal cord injury, Fragile X syndrome, and genetic learning deficits more g
73 s play a role in diseases, such as cancer or fragile X syndrome, and may also occur as a function of
74 enes involved in Tuberous Sclerosis Complex, Fragile X syndrome, Angelman syndrome and several synapt
76 in myotonic dystrophy, and (CGG)n repeats in fragile X syndrome, are also subject to double-strand br
77 pression) relevant to the pathophysiology of fragile X syndrome as well as neural correlates of cogni
78 neurodevelopment disorders such as Rett and fragile X syndromes, as well as complex behavioral disor
79 nterest as a drug target in the treatment of fragile X syndrome, autism, depression, anxiety, addicti
80 normal development and in disorders such as Fragile X syndrome, autism, epilepsy, addiction, anxiety
82 kout (KO) mice recapitulate many features of Fragile X syndrome, but evidence for deficits in executi
83 aggerated mGluR-dependent LTD is featured in fragile X syndrome, but the mechanisms that regulate mGl
84 tion patterns at specific genomic regions in fragile X syndrome cells, and identified dysregulated ge
85 al disorders, including Alzheimer's disease, fragile X syndrome, Down's syndrome, autism, epilepsy an
87 these experiments revealed that infants with fragile X syndrome experience drastically reduced resolu
88 a comparison group of 25 individuals without fragile X syndrome (females, N=12) matched for general c
89 (ages 15-25 years) were 30 individuals with fragile X syndrome (females, N=14) and a comparison grou
93 ontrast the cognitive-behavioral features of fragile X syndrome (FraX) and Williams syndrome and to r
95 expansions, including those associated with fragile X syndrome, Friedreich's ataxia, and Huntington'
96 here that in mouse models PFC dysfunction in Fragile X Syndrome (FX) can be attributed to the continu
98 ptors (mGlu1/5) is a core pathophysiology of fragile X syndrome (FX); however, the differentially tra
102 is hypothesized to underlie the etiology of fragile X syndrome (FXS) and related autistic disorders.
103 oss and abnormal expression of FMRP occur in fragile X syndrome (FXS) and some forms of autism spectr
106 mark phenotypes reported in individuals with fragile X syndrome (FXS) are deficits in attentional fun
108 e behavioral and anatomical deficits seen in fragile X syndrome (FXS) are widely believed to result f
111 e X mental retardation protein (FMRP) causes fragile X syndrome (FXS) have largely focused on neurons
133 he inherited intellectual impairment disease fragile X syndrome (FXS) is neuronal hyperexcitability,
149 ssing deficits in FXS.SIGNIFICANCE STATEMENT Fragile X Syndrome (FXS) is the most common inheritable
159 specially in non-neuron glial cells, induces fragile X syndrome (FXS) phenotypes has just begun to be
165 le X mental retardation protein (FMRP) cause fragile X syndrome (FXS), a genetic disorder characteriz
167 ental retardation protein (FMRP) loss causes Fragile X syndrome (FXS), a major disorder characterized
168 mental retardation protein (FMRP) results in fragile X syndrome (FXS), an inherited form of intellect
169 autism spectrum disorders (ASDs), including fragile X syndrome (FXS), and frequently leads to tactil
170 f psychiatric diseases including depression, fragile X syndrome (FXS), anxiety, obsessive-compulsive
178 knock-out (ko) mice display key features of fragile X syndrome (FXS), including delayed dendritic sp
179 ty (ID) and autism spectrum disorders (ASD), Fragile X syndrome (FXS), is caused by loss of the mRNA-
180 trum disorder (ASD), including in those with fragile X syndrome (FXS), one of the most common genetic
182 othesize that this mechanism is defective in fragile X syndrome (FXS), the leading heritable cause of
184 ile X mental retardation 1 (FMR1) gene cause fragile X syndrome (FXS), the leading single-gene form o
186 Longitudinal neuroimaging investigation of fragile X syndrome (FXS), the most common cause of inher
189 X mental retardation protein (FMRP) leads to Fragile X syndrome (FXS), the most common form of inheri
190 GG repeats; full mutation) and methylated in fragile X syndrome (FXS), the most common form of inheri
194 get for diseases affecting synapses, such as fragile X syndrome (FXS), the most common heritable auti
197 mental retardation protein (FMRP) linked to fragile X syndrome (FXS), the most common heritable ment
198 llectual disability and other afflictions of fragile X syndrome (FXS), the most common inherited caus
200 al development can lead to autism, including fragile X syndrome (FXS), which is presently the most co
201 lts in a spectrum of cognitive deficits, the fragile X syndrome (FXS), while aging individuals with d
202 e X mental retardation protein (FMRP) causes fragile X syndrome (FXS), yet the mechanisms underlying
219 th distinct molecular pathologies, including fragile X syndrome (FXS; full mutation range, greater th
222 ation (and significant sensitization) in the fragile X syndrome group was found in the cingulate gyru
224 that occurs in a mouse model (Fmr1(-/-)) of fragile X syndrome, group I mGluR-activated translation
225 gh incidence of autistic behaviours, such as fragile X syndrome, has the potential to identify genes
228 processing constitute prominent symptoms of fragile X syndrome; however, little is known about how d
229 entiated to dorsal forebrain cell fates, our fragile X syndrome human pluripotent stem cell lines exh
231 expansions in diseases such as hemophilia A, fragile X syndrome, Hunter syndrome, and Friedreich's at
232 omeres, and trinucleotide repeats (linked to fragile X syndrome, Huntington disease, etc.), account f
233 have implications for the pathophysiology of fragile X syndrome, in which plasticity is altered.
234 isturbed in the Fmr1 knock-out (KO) model of fragile X syndrome, in which stabilization of both actin
235 nd circuit hyperexcitability associated with Fragile X syndrome, including patients with complete del
236 ical disabilities affecting individuals with fragile X syndrome irrespective of age, intelligence lev
238 the Drosophila model into the mouse model of Fragile X syndrome is an important advance, in that this
245 This finding is of high relevance because Fragile X syndrome is the most common monogenetic cause
249 ause amyotrophic lateral sclerosis (ALS) and fragile X syndrome, is challenging for short-read whole-
250 esis has been implicated in the pathology of fragile X syndrome, it remains unknown whether group I m
251 man's syndrome (34%), CHARGE syndrome (30%), fragile X syndrome (male individuals only 30%; mixed sex
252 ndicating that therapeutic interventions for fragile X syndrome may benefit patients with SYNGAP1 hap
254 zation therapy, which may help patients with fragile X syndrome modulate anxiety and arousal associat
255 to mGluR5 dysfunction and phenotypes in the fragile X syndrome mouse model, Fmr1 knockout (Fmr1(-/y)
256 tion has been most well characterized in the fragile X syndrome mouse model, the Fmr1 knock-out (KO)
258 e revealed maladaptive auditory responses in fragile X syndrome patients and Fmr1 KO mice, suggesting
263 bility that at least some of the symptoms of fragile X syndrome reflect impaired homeostatic plastici
266 of disorders where it is disrupted, such as Fragile X syndrome, Rett syndrome, epilepsy, major depre
267 ith neurological diseases, including FMRP in fragile X syndrome; TDP-43, FUS (fused in sarcoma), angi
268 ulated gene- and network-level correlates of fragile X syndrome that are associated with developmenta
269 We then describe what we have learned from fragile X syndrome that may be applicable to other psych
271 Rett syndrome, Neurofibromatosis Type 1 and Fragile X syndrome, the classical Drosophila genetic sys
280 ity has been implicated in neuropathology of fragile X syndrome, the most common inheritable cause of
281 ome disorders of neurodevelopment, including fragile X syndrome, the most common inherited form of in
282 n (FMRP), an RNA-binding protein, results in Fragile X syndrome, the most common inherited form of in
284 phosphorylation in Fmr1 KO mice, a model of fragile X syndrome, the most common monogenetic cause of
286 ucleotide repeats, which are associated with fragile X syndrome, the most widespread inherited cause
287 rinucleotide repeats has been shown to cause fragile-X syndrome, the most widespread inherited cause
289 s known about their functional properties in Fragile X syndrome: the most common form of inherited co
290 he impairment in spinogenesis, a hallmark in Fragile X syndrome, thereby linking the regulation of ac
291 elopmental and psychiatric disorders such as fragile X syndrome, this work uncovers a unique translat
292 rtex of Fmr1 knock-out (KO) mice, a model of Fragile-X Syndrome, to test the E/I imbalance theory.
293 identified as a phenotypic feature common to fragile X syndrome, tuberous sclerosis complex 1 and 2,
294 2 (both linked to FMR1, which is involved in fragile X syndrome), VIP (involved in social-cognitive d
296 ted in several psychiatric disorders such as Fragile X syndrome, where neurons show a high density of
297 nsion is the primary pathogenic signature of fragile X syndrome, which is the most common form of inh
298 oid signalosome as a molecular substrate for fragile X syndrome, which might be targeted by therapy.
300 onic dystrophy, spinal muscular atrophy, and fragile X syndrome, with broader implications for other
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