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1 ess in the left hemisphere pars opercularis (Broca's area).
2 occurred in the left inferior frontal gyrus (Broca's area).
3 anguage activation only in the RH homolog of Broca's area.
4 nsula and lateral premotor cortex and not of Broca's area.
5 subjects with PTSD showed decreased rCBF in Broca's area.
6 The pars triangular is a portion of Broca's area.
7 activation of the ventral temporal lobes and Broca's area.
8 nalysis, we focus on a 4 -cm3 portion of the Broca's area.
9 sequencing, a role traditionally ascribed to Broca's area.
10 , in close topographical relationship to the Broca's area.
11 inated by a more ventral system posterior to Broca's area.
12 en language and action, and the evolution of Broca's area.
13 more particularly in key regions such as the Broca's area.
14 have been exploited during the evolution of Broca's area.
15 gen level-dependent activity patterns within Broca's area.
16 o ventral premotor cortex, not the classical Broca's area.
17 racy in the left ventral premotor cortex and Broca's area.
18 correlation between left striate cortex and Broca's area.
19 dle temporal gyrus and the dorsal portion of Broca's area.
20 cortical networks, neither of which involves Broca's area.
21 lood oxygen level-dependent (BOLD) signal in Broca's area.
22 reas with premotor/motor areas, and not with Broca's area.
23 ongitudinal fasciculi connect Wernicke's and Broca's areas.
24 power in both Sylvian-parietal-temporal and Broca's areas.
25 logic cell counting in postmortem samples of Broca's area 44 in 9 schizophrenic patients and 14 norma
27 y identified by Broca and what is now called Broca's area, a finding with significant ramifications f
28 is discovery of language-specific regions in Broca's area advances our understanding of the cortical
30 ded during awake neurosurgical operations in Broca's area and in the dominant temporal lobe with the
31 tex in relation to bulbar disability, and in Broca's area and its homologue in relation to verbal flu
32 vation relative to the unaffected members in Broca's area and its right homolog, as well as in other
33 chronous delays led to increased activity in Broca's area and its right homologue, whereas disruptive
34 tion: storage for verbal materials activates Broca's area and left-hemisphere supplementary and premo
35 st explained by the combination of damage to Broca's area and neighbouring regions including the unde
38 Heschl's gyrus, the parietal operculum, left Broca's area and the left arcuate fasciculus (similar to
39 s between FFG and phonology-related regions (Broca's area and the left inferior parietal lobule), and
41 ral prefrontal cortex (areas 45, 46 and 47), Broca's area and the right temporal (area 21) and right
42 ract that lies deep to posterior portions of Broca's area and the sensory-motor cortex, is a robust p
43 owed smaller volumes and worse metabolism in Broca's area and the striatum at baseline and after 4 ye
44 abnormal inhibitory control network between Broca's area and the striatum underpinning stuttering in
45 of the most substantial differences-between Broca's area and the supplementary motor area-was found
46 the input language resulted in activation of Broca's area and the supramarginal gyri, areas associate
48 ing was restricted to left inferior frontal (Broca's area) and bilateral posterior perisylvian (Werni
49 ic activations in the left inferior frontal (Broca's area) and posterior superior temporal (Wernicke'
50 or prefrontal regions bilaterally (including Broca's area) and superior temporal regions bilaterally
51 rea, and the left inferior frontal gyrus, or Broca's area) and their homologous right-hemisphere area
53 the left inferior frontal cortex, canonical Broca's area, and inversely related to speech envelope c
54 ask-relevant anatomic regions (sensorimotor, Broca's area, and superior temporal gyrus), these behavi
55 ft posterior middle temporal/fusiform gyrus, Broca's area, and/or Wernicke's area accounted for most
56 us cannot be explained by a disconnection of Broca's area; and (iii) the prior association between pe
57 ions including frontopolar cortex (area 10), Broca's area (area 45), frontoinsular cortex (area FI),
58 inal patients and the increasing reliance on Broca's area as a major speech centre, we thought it imp
60 assical theories of brain organization (e.g. Broca's area as speech output region) and provide a dist
61 imaging studies often rely on activation in Broca's area as verification that tasks have successfull
62 d by left-hemisphere speech areas, including Broca's area as well as the premotor and supplementary m
63 no contribution from the degree of damage to Broca's area (as confirmed with Bayesian statistics).
64 n the left posterior inferior frontal gyrus (Broca's area) as a key region for motor planning of spee
65 al computation of syllable structure engages Broca's area, as its stimulation disrupts sensitivity to
66 ur findings strongly indicate that a part of Broca's area (BA 44, pars opercularis) is critically imp
68 BA 44 (part of Broca's area), BA 45 (part of Broca's area), BA 21 (inferior temporal cortex), BA 37 (
69 (including Wernicke's area), BA 44 (part of Broca's area), BA 45 (part of Broca's area), BA 21 (infe
71 ge cannot be explained by a disconnection of Broca's area, because speech production scores were wors
72 Repetition of single words did not activate Broca's area but activity in three left-lateralised regi
75 rior temporal) as well as motor brain areas (Broca's area, cerebellum) in response to speech, and equ
77 reviously obtained cytoarchitectonic maps of Broca's area confirmed lack of homology between activati
78 ect fMRI, we find that both ideas are right: Broca's area contains two sets of subregions lying side
80 roduction propose a single system centred on Broca's area coordinating all the vocal articulators fro
82 whether the electrophysiological activity of Broca's area correlates with the sound of the utterances
83 persistent speech production impairments and Broca's area damage can be explained by co-occurring whi
84 de evidence for three novel conclusions: (i) Broca's area damage does not contribute to long-term spe
85 m speech production outcome in patients with Broca's area damage is best explained by the combination
86 vity in the left ventral premotor cortex and Broca's area exhibited effective phoneme categorization
87 ith resting fMRI signals in the thalamus and Broca's area extending to Wernicke's area, supporting th
88 utational systems, and a common substrate in Broca's area for hierarchical processing has recently be
90 Here, we dissociate the effect of damage to Broca's area from the effect of damage to surrounding ar
92 llustrate the interindividual variability of Broca's area homologue in the chimpanzee and support the
93 ly prior study documenting the morphology of Broca's area homologue in the chimpanzee, we report grea
95 that the region of cortex commonly known as Broca's area (i.e., the posterior LIFG) serves to bias c
97 ntegrated high-resolution cellular census of Broca's area in a human postmortem specimen, within a wh
99 Contrary to classic notions of the role of Broca's area in speech, while motor cortex is activated
101 ominant distribution of activation involving Broca's area in the generation tasks and a more bilatera
102 ions dorsal to the traditional boundaries of Broca's area in the inferior frontal sulcus and the post
105 issociation of language lateralization (e.g. Broca's area in the left, and Wernicke's area in the rig
107 r fMRI examinations showed activation of the Broca's area in the right hemisphere in 3/4 cases of low
108 gnificant cytoarchitectonic abnormalities in Broca's area in the same brains in which the dlPFC exhib
112 showed significantly increased activation in Broca's area, in addition to the well known visuospatial
115 n evidence has challenged both the idea that Broca's area is involved in motor speech coordination an
120 t ventrolateral prefrontal cortex (including Broca's area), left premotor cortex, and left and right
121 mal naming network and as such indicate that Broca's area may be a suitable candidate site for tDCS i
123 as the recurrence of the tumor near the left Broca's area might be the factors leading to reorganizat
125 e primary auditory cortex (p </= .001), left Broca's area (p </= .001), and cingulate gyrus (p </= .0
126 dings to reflect preferential recruitment of Broca's area, part of the neural substrate supporting si
127 independent datasets strongly indicate that Broca's area participates in categorical speech percepti
128 e whether the posterior, superior portion of Broca's area performs operations on phoneme segments spe
131 ize (RR, 2.0; 95% CI, 1.2-3.2) and injury to Broca's area (RR, 2.5; 95% CI, 1.3-5.0), internal capsul
132 the frontal-lobe language-sensitive regions (Broca's area), second languages acquired in adulthood ('
134 PF), left superior temporal region (ST), and Broca's area showed sustained activation during the memo
135 al cortex, the suggested monkey homologue of Broca's area, signal the volitional initiation of vocali
136 audate, as well as primary motor cortex, the Broca's area, superior temporal gyrus, insula, and claus
138 arcuate fasciculus with relative sparing of Broca's area than after damage to Broca's area with rela
139 mental distinction between two subregions of Broca's area that likely play computationally distinct r
140 area; the inferior lateral premotor cortex (Broca's area); the anterior insula; and the cerebellum.
142 implicate anterior cortical regions such as Broca's area, the left anterior insula, and deep white m
143 ed a persistent network "core" consisting of Broca's area, the pre-supplementary motor area, and the
144 d by left-hemisphere speech areas, including Broca's area, the premotor area, and the supplementary m
145 ntoparietal motor-related network (including Broca's area, the premotor region, the intraparietal sul
146 g the Sylvian fissure bilaterally including "Broca's area," the primary language area, by disrupting
147 uage network on epicentres in Wernicke's and Broca's areas; the explicit memory/emotion network on ep
148 patients are due entirely to dysfunction in Broca's area, thereby attributing all aspects of the dis
150 Brodmann areas 44 and 45 (together known as Broca's area), ventral premotor cortex, primary motor co
151 lization index was calculated separately for Broca's area versus its right-hemisphere homolog and Wer
152 t the AF connects posterior brain areas with Broca's area via a relay station in the premotor/motor a
160 ectly involved in language generation, or in Broca's area when the participants were executing a repe
161 ries of human cognition prominently feature 'Broca's area', which causally contributes to a myriad of
162 is supported by a cortical network involving Broca's area, which comprises Brodmann Areas 44 and 45 (
164 sparing of Broca's area than after damage to Broca's area with relative sparing of the anterior arcua
165 iculus, a long associative bundle connecting Broca's area with Wernicke's area, and other language re