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1 hippocampal gyrus, insula, temporal pole and superior frontal gyrus.
2 ctional connectivity within the neonate left superior frontal gyrus.
3 al cortex, parahippocampal gyrus, insula and superior frontal gyrus.
4 dorsal anterior cingulate cortex and in the superior frontal gyrus.
5 x/supplementary motor cortex and left medial superior frontal gyrus.
6 he thalamus, substantia nigra, brainstem and superior frontal gyrus.
7 nferior frontal gyrus and the left posterior superior frontal gyrus.
8 as, including supplementary motor cortex and superior frontal gyrus.
9 fusivity measures in the white matter of the superior frontal gyrus.
10 fibres that project from the thalamus to the superior frontal gyrus.
11 ompassing the posterior cingulate cortex and superior frontal gyrus.
12 ior hub of the default network and the right superior frontal gyrus.
13 uding the posterior cingulate cortex and the superior frontal gyrus.
14 ose in visual cortex, and 5% of those in the superior frontal gyrus.
15 in the anterior cingulate gyrus but not the superior frontal gyrus.
16 ateral prefrontal cortex, fusiform gyrus and superior frontal gyrus-583 subjects) yielded similar res
17 owed weaker functional connectivity with the superior frontal gyrus, a component of the task-positive
18 ship between cortical thickness in the right-superior frontal gyrus and BMI, which was fully mediated
19 ask-specific relationship between the medial superior frontal gyrus and both anterior cingulate and t
20 ociated with cerebral perfusion in the right superior frontal gyrus and cingulate gyrus, regions asso
21 rior parietal lobule, as well as between the superior frontal gyrus and cingulate gyrus, were positiv
22 frontal gamma power, source-localized to the superior frontal gyrus and dorsal cingulate cortex), acc
23 l prefrontal cortex (dmPFC) as well as right superior frontal gyrus and left and right occipital regi
26 us exhibiting quadratic trajectories and the superior frontal gyrus and putamen exhibiting cubic traj
27 ri; and (3) a sentence-final pattern in left superior frontal gyrus and right orbitofrontal cortex.
28 rally in the medial frontal lobes, including superior frontal gyrus and rostral cingulate gyrus; the
29 ed from typically developing controls in the superior frontal gyrus and superior temporal gyrus, regi
30 Furthermore, close effects were found in the superior frontal gyrus and the inferior frontal gyrus th
31 l frontal gyrus (BA9), spreading to the left superior frontal gyrus and the left middle frontal gyrus
32 time, reduced connectivity characterized the superior frontal gyrus and the temporal lobe regions.
33 ation of white matter tracts directed to the superior frontal gyrus and the thalamus is associated wi
34 ted that the strength of connectivity to the superior frontal gyrus and the thalamus were positively
35 e targets for neuromodulation in obesity (ie superior frontal gyrus) and a quantifiable mediator of t
36 topolar regions, sweeping toward the mid and superior frontal gyrus) and medial (descending down the
37 eductions in frontal regions (medial OFC and superior frontal gyrus) and primary and higher-order vis
38 rs orbitalis, rostral anterior cingulate and superior frontal gyrus, and a faster increase in the mid
41 rs orbitalis, rostral anterior cingulate and superior frontal gyrus, and faster age-related growth in
42 bilateral caudate and thalamus, left middle/superior frontal gyrus, and left ACC, whereas controls h
43 lobule, left dorsolateral prefrontal cortex/superior frontal gyrus, and left medial orbitofrontal co
46 ns of cortical thickness in frontal pole and superior frontal gyrus, and similar effects were found i
47 The PACAP levels in cerebrospinal fluid, the superior frontal gyrus, and the middle temporal gyrus we
48 essed in the hippocampus, entorhinal cortex, superior-frontal gyrus, and postcentral gyrus across the
49 mmonly predictive areas included the insula, superior frontal gyrus, anterior cingulate cortex, and a
51 ral changes in the white matter of the right superior frontal gyrus are associated with late-life dep
52 lobule (area 40), left middle (area 10) and superior frontal gyrus (area 8), temporal pole, and visu
53 s (lateral dorsal, lateral posterior), right superior frontal gyrus (areas 32, 24, and 10), and right
54 ng left lateral frontal cortices [middle and superior frontal gyrus (BA 6)], medial frontal cortices
55 FCs between the visual cortex and the right superior frontal gyrus based on the conjunction of the f
57 itively covaried with metabolism in the left superior frontal gyrus, bilateral-parietal cortex, and l
58 profile the caudal entorhinal cortex and the superior frontal gyrus-brain regions where neurofibrilla
59 ion best predicted cognitive function in the superior frontal gyrus, but it was less predictive in th
60 (ACC) and posterior cingulate cortex (PCC), superior frontal gyrus, caudate nucleus, and substantia
61 ignal intensity in areas of the hippocampus, superior frontal gyrus, cerebellum, and superior parieta
62 reductions in the hippocampus, amygdala and superior frontal gyrus compared to the unexposed asympto
64 s were significantly altered with age in the superior-frontal gyrus, compared with 1,110 in the entor
65 ersal of sex differences in the right mesial superior frontal gyrus, consistent with disruption by CP
67 everal prefrontal sources, including lateral superior frontal gyrus, dorsal anterior cingulate gyrus,
68 rogen also increased activation in the right superior frontal gyrus during retrieval tasks, accompani
70 r postcentral gyri bilaterally, and enlarged superior frontal gyrus, gyrus rectus, cuneus, and precun
71 of the precentral gyri, postcentral gyri and superior frontal gyrus in JME (left and right p<0.0001),
72 ral frontal cortical regions, including left superior frontal gyrus (LSFG), and right middle frontal
74 f a stimulus held in WM enhanced activity in superior frontal gyrus, midtemporal, and occipital areas
75 rdinates: 51, -51, -11; t value, 4.83), left superior frontal gyrus ( MNI Montreal Neurological Insti
76 l gyrus of CEN, left precuneus and bilateral superior frontal gyrus of DMN, and right anterior insula
77 hysin concentration in entorhinal cortex and superior frontal gyrus of normal elderly control (ND) pa
78 pants with MSI had lower mean volumes in the superior frontal gyrus, orbitofrontal gyrus, superior pa
79 .04), frontal medial cortex (P < .001), left superior frontal gyrus (P < .001), and precuneus (P valu
80 < .001, family-wise error [FWE] corrected), superior frontal gyrus (p = .001, FWE corrected), and pr
85 creased betweenness centrality in the medial superior frontal gyrus, precentral gyrus, Rolandic operc
86 , showed increased activation in mid-insula, superior frontal gyrus, putamen, dorsal anterior cingula
87 ated regions such as the middle temporal and superior frontal gyrus, represented state- and trait-rel
88 ender nonconforming as children in the right superior frontal gyrus, right angular gyrus, right amygd
89 ctivity between the right amygdala and right superior frontal gyrus, right paracingulate/anterior cin
91 to the superior temporal gyrus), left medial superior frontal gyrus (SDM estimate = -0.163; P = .001)
92 ted with neonate ReHo values within the left superior frontal gyrus (SFG) (FWE-corrected p < 0.005).
93 rease in rsFC between the DLPFC and the left superior frontal gyrus (SFG) and anterior cingulate cort
94 ], that two specific cortical regions in the superior frontal gyrus (SFG) and the inferior frontal gy
95 cortex, posterior cingulate cortex and right superior frontal gyrus (SFG) during conflict anticipatio
96 ults, we showed that activation of the right superior frontal gyrus (SFG) during conflict anticipatio
97 ors were labeled autoradiographically in the superior frontal gyrus (SFG) from 9 RS patients and 10 f
98 trodorsal medial prefrontal cortex (rd-mPFC)/superior frontal gyrus (SFG) that was also sensitive to
99 n in the volumes of the hippocampus (HP) and superior frontal gyrus (SFG), and a reduction in glutath
100 y coactivation of a frontal-parietal system [superior frontal gyrus (SFG), middle frontal gyrus (MFG)
101 the dorsolateral prefrontal cortex (dlPFC), superior frontal gyrus (SFG), posterior parietal cortex
102 l peduncle and left hemispheric masks of the superior frontal gyrus (SFG), precentral gyrus (PcG), mi
103 d white matter surface area (WM(sa)) for the superior frontal gyrus (SFG), supramarginal gyrus (SMG),
107 erebellum (lobules IV/V and VIII), bilateral superior frontal gyrus (SFG, medial rostral part), right
110 In particular, the anterior cingulate and superior frontal gyrus showed more restricted activation
111 e two bands were found in fusiform gyrus and superior frontal gyrus (slow-4> slow-5), and in basal ga
112 rs34997829 showed reduced power of the left superior frontal gyrus (t=-3.386, p=9.56 x 10(-4)) and i
114 nd white matter region proximate to the left superior frontal gyrus (Tailerach coordinates -24, 57, 2
115 tex/angular gyrus, medial prefrontal cortex, superior frontal gyrus, temporal lobe, and parahippocamp
116 In particular, intracranial volume and left superior frontal gyrus thickness exhibit significant and
117 ed deactivations in the cerebellum and right superior frontal gyrus together with reduced activation
118 late cortex (vACC) and adjacent ventromedial superior frontal gyrus (vmSFG), the right ventromedial p
119 , which, in turn, were associated with lower superior frontal gyrus volume (ie, an indirect effect) (
122 al connectivity of the left IPS and the left superior frontal gyrus was positively associated with nu
123 ght insula, right precentral gyrus and right superior frontal gyrus were also associated with higher
124 volumes of the anterior cingulate gyrus and superior frontal gyrus were computed from contiguous 1.5
125 of the middle frontal gyrus and dorsolateral superior frontal gyrus were correlated to disease durati
127 e frontal gyrus, inferior frontal gyrus, and superior frontal gyrus were significantly lower in DE pa
128 ants, showed greater activation in the right superior frontal gyrus when passively viewing negative s
129 higher rate than control participants in the superior frontal gyrus when responding to upright faces.
130 parietal cortex, middle temporal gyrus, and superior frontal gyrus, whereas people with greater B12
131 er fractional anisotropy values in the right superior frontal gyrus white matter of depressed patient