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1 gnoses and 690 with non-PDD diagnoses (e.g., language disorder).
2 factor causes a severe monogenic speech and language disorder.
3 doreductase Subunit A11 (NDUFA11) for speech/language disorder.
4 ctual disability, coordination disorder, and language disorder.
5 chronic serous otitis media, and expressive language disorder.
6 first known monogenic cause of a speech and language disorder.
7 s in adulthood with an isolated, progressive language disorder.
8 ion of the FOXP2 protein causes an inherited language disorder.
9 pmental verbal dyspraxia, a human speech and language disorder.
10 entify a consistent neural substrate for the language disorder.
11 t be central to the FOXP2-related speech and language disorder.
12 umans cause an autosomal-dominant speech and language disorder.
13 at mutations in human FOXP2 produce a severe language disorder.
14 have AD, while the female sib has expressive language disorder.
15 sive aphasia beyond the lens of an exclusive language disorder.
16 nding and perhaps ameliorating developmental language disorders.
17 ically robust risk markers for developmental language disorders.
18 severe, persistent, developmental speech and language disorders.
19 associated with an increased risk of speech/language disorders.
20 lioration and/or prevention of developmental language disorders.
21 tor that plays a role in the pathogenesis of language disorders.
22 pment of standardized clinical assessment of language disorders.
23 ave reported an involvement of this tract in language disorders.
24 o determine its potential as a biomarker for language disorders.
25 ical evaluation to advance identification of language disorders.
26 pathways that may be disturbed in speech and language disorders.
27 actor on 7q31 contributes to both autism and language disorders.
28 ophrenia who had a high rate of prepsychotic language disorders.
29 protein P2 (FOXP2) is associated with human language disorders.
30 EAS), a spectrum of epileptic, cognitive and language disorders.
31 early screening and delineating the roots of language disorders.
32 (95% CI, 0.88-1.16) for developmental speech/language disorder, 0.79 (95% CI, 0.54-1.17) for developm
33 2; intellectual disorder 1.00, 0.93 to 1.07; language disorder 1.05, 1.02 to 1.09; and epilepsy 1.03,
34 ellectual disorder (1.07, 0.98 to 1.15), and language disorder (1.04, 1.00 to 1.08) in the sibling an
35 disability (DD/ID, 17/21), epilepsy (10/21), language disorders (16/21), movement disorders (12/21),
36 rocessing disorder, expressive and receptive language disorders (71% of individuals >3 years old with
37 earning disability, 1.2% and 0.6%; speech or language disorder, 8.4% and 4.5%; developmental coordina
38 n factors--age, cognitive level, and type of language disorder--account for variability in the report
39 enotyping Tool for Identifying Developmental Language Disorder algorithm of the Vanderbilt University
40 ing our understanding of factors that signal language disorder and delay has the potential to improve
41 memory impairment, personality alterations, language disorder and facial paralysis have all been app
42 Dyslexia is the most common developmental language disorder and is marked by deficits in reading a
45 understanding of the etiology of speech and language disorders and enable us to better understand th
46 that has been implicated in human speech and language disorders and plays important roles in the plas
47 one's differential diagnosis for speech and language disorders and understanding the link between ea
51 a transcription factor implicated in speech/language disorders, and that this interaction is disrupt
52 ealed significant differences (speech and/or language disorder: AOR, 5.83 [95% CI, 4.31-7.89]; behavi
54 idea that some individuals with reading and language disorders are impaired in their perception of n
56 y progressive aphasia (PPA) is a progressive language disorder associated with atrophy of the dominan
57 of this gene causes a rare severe speech and language disorder but does not appear to be involved in
58 ription factor cause an inherited speech and language disorder, but how FoxP2 contributes to learning
59 neurological pathways underlying speech and language disorders, but such investigations are only jus
60 neralizable neural prostheses for speech and language disorders by leveraging large-scale intracrania
62 rs of the KE family suffer from a speech and language disorder caused by a mutation in the FOXP2 gene
63 ded if they had another premorbid speech and language disorder caused by a neurological deficit other
65 special senses, conduct disorder, receptive language disorder, chronic serous otitis media, and expr
66 ded oversimplified accounts of the nature of language disorders, classifying patients into syndromes
67 d a significant 37% increased risk of speech/language disorders compared with offspring in the unmedi
68 lines the landscape of paediatric speech and language disorders, confirming the phenotypic complexity
70 ity disorder, learning disability, speech or language disorder, developmental coordination disorder,
71 y disorder, learning disabilities, speech or language disorders, developmental coordination disorders
73 gh learning disorders (LD) and developmental language disorder (DLD) can be linked to overlapping psy
82 disorders of language include developmental language disorder, dyslexia, and motor-speech disorders
85 l prenatal cannabis use and child speech and language disorders (HR, 0.93; 95% CI, 0.84-1.03), global
86 truncation mutation, segregating with speech/language disorder in a second family, yields an unstable
88 d an in-depth characterization of speech and language disorders in 52 143 individuals, reconstructing
90 found significant comorbidity of speech and language disorders in neurodevelopmental conditions (30.
92 , intellectual disabilities (IDs) and speech/language disorder-in the ethnic minority of African Amer
93 nderlying biological nature of listening and language disorders, inform treatment strategies, and pro
94 uptions of the FOXP2 gene cause a speech and language disorder involving difficulties in sequencing o
95 n pedigree, KE, in which a severe speech and language disorder is transmitted as an autosomal-dominan
96 2, the first gene causally linked to a human language disorder, is implicated in song acquisition, pr
97 me 7 which co-segregates with the speech and language disorder (maximum lod score = 6.62 at theta = 0
102 ses of brain structure in genetic speech and language disorders provide an opportunity to identify ne
106 a unique family in which a severe speech and language disorder segregates in a monogenic fashion, at
108 ons between auditory processing deficits and language disorders such as dyslexia; but whether the for
110 fied as the basis of an inherited speech and language disorder suffered by members of the family know
111 imer's disease (AD) display a characteristic language disorder that resembles LPA, or if LPA is a cli
113 subjects with a neurodegenerative speech and language disorder were prospectively recruited and under
114 embers are affected with a severe speech and language disorder which appears to be transmitted as an
115 ncoded by SLC6A8), which leads to speech and language disorders with severe cognitive impairment.
116 framework for the examination of speech and language disorders, with additional implications for the