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1 depression diagnosis maximally affecting the cingulum.
2 and an ordering transition at the chimpanzee cingulum.
3 r longitudinal fasciculi and in the anterior cingulum.
4 arning deficits had hypoplasia or atresia of cingulum.
5 gulum; three patients had aberrant fibers of cingulum.
6 ronal structure and function in the anterior cingulum.
7 ith seizure burden in the bilateral PWMB and cingulum.
8 impaired axonal integrity of the hippocampal cingulum.
9 perior and posterior corona radiata, and the cingulum.
10 nferior fronto-occipital fasciculi and right cingulum.
11 fornix bilaterally and right dorsal-anterior cingulum.
12 SA in the orbitofrontal cortex and posterior cingulum.
13 uced mean and axial diffusivity in the right cingulum.
14  bundles, particularly in the left subgenual cingulum.
15 ations were not found in the parahippocampal cingulum, a comparison temporal association pathway.
16 and microstructure of connections within the cingulum, a major white matter tract and conduit of proj
17  reduced microarchitectural integrity of the cingulum, a white matter fiber that connects the entorhi
18 sults demonstrate that temporary blockade of cingulum activity at the time of nerve section reduces a
19 microglial activation in corpus callosum and cingulum along with severe astrogliosis and scar formati
20                                          For cingulum analysis from diffusion tensor MR imaging, trac
21 es in HS-TLE correlated with parahippocampal cingulum and anterior commissure atrophy, indicating an
22 calculating the DTI indices of the bilateral cingulum and cingulum hippocampal part for each subject.
23 y groups had bilateral atrophy of the dorsal cingulum and corpus callosum fibers, which we interpret
24 the white matter tracts of interest (fornix, cingulum and corpus callosum).
25 se error-corrected), mainly in the uncinate, cingulum and corpus callosum, whereas responders were in
26 bundles (forceps minor, uncinate fasciculus, cingulum and fronto-striatal fibers).
27                  Activations within anterior cingulum and insula correlated with better verbal and vi
28  Higher CRF was associated with higher FA in cingulum and lower MD in hippocampus and entorhinal cort
29  rostrum of the corpus callosum to enter the cingulum and merged with fibres of the lateral pathway w
30 gh 18F-flutemetamol retention (eg, posterior cingulum and precuneus, r = -0.72).
31 wed decreased activation particularly in the cingulum and thalamus during both the encoding and recal
32      In particular, the anterior part of the cingulum and the cingulate gyrus isthmus, as well as the
33 mentioned regions and, in addition, with the cingulum and the left hippocampus (cluster level, P < .0
34 hanges were regionally specific to the right cingulum and the right superior and inferior longitudina
35 and long segments of the arcuate fasciculus, cingulum and uncinate--predominantly in the left hemisph
36 er changes, which were most prominent in the cingulum and which correlated with disease severity.
37 st-injury, NFC was observed primarily in the cingulum, and appeared as swollen axons and terminal bul
38 nate fasciculi, anterior thalamic radiation, cingulum, and corticospinal tract.
39 ly myelinated white matter (corpus callosum, cingulum, and deep cortical white matter).
40 the callosal genu, thalamus, right posterior cingulum, and fornix crus (seven studies; largest cluste
41 oups in subdivisions of the corpus callosum, cingulum, and fornix were measured as indicators of trai
42                    Injured cortex, striatum, cingulum, and hippocampus also demonstrated significant
43 m in the striatum, as well as in the cuneus, cingulum, and parietal lobe, in all SCA17 patients and p
44 splenium of the corpus callosum, the fornix, cingulum, and superior and inferior longitudinal fascicu
45 normalities observed in the corpus callosum, cingulum, and temporal lobe likely constitute the neural
46 he splenium of the corpus callosum, the left cingulum, and the anterior part of the left arcuate fasc
47 ry networks: the fornix, the parahippocampal cingulum, and the uncinate fasciculus.
48 nferior longitudinal, superior longitudinal, cingulum, and uncinate) tracts were quantified using tra
49 o FA values in the corpus callosum and right cingulum; and eye-hand coordination sub-scores to FA val
50 synchronization in the thalamus; cerebellum; cingulum; and insular, prefrontal, and parieto-occipital
51  the cerebellum; basal ganglia; hippocampus; cingulum; and temporo-occipital, insular, frontal, and p
52 ing, because characteristics of the anterior cingulum are shown to be related to impulse, attention,
53  periodontal probing depth of 8 mm below the cingulum, associated with a developmental groove.
54  CD200R(+) /Iba1(+) ameboid microglia in the cingulum at P1-P5 were the only CD200R(+) cells in the n
55 n contrast, developmental differences in the cingulum at the level of the parahippocampal region were
56  that a temporary anesthetic blockade of the cingulum at the time of nerve section delayed the onset
57 s Test score by radial diffusivity along the cingulum (beta = -4.3 x 10(4); P < .01), and T2* in the
58 tracts, particularly in the corpus callosum, cingulum, bilateral superior and inferior longitudinal f
59 n fibers of the uncinate fasciculus (UF) and cingulum bundle (CB) among MDD subjects.
60                                          The cingulum bundle (CB) is one of the brain's major white m
61 sciculus (ILF), uncinate fasciculus (UF) and cingulum bundle (CB).
62  greater fractional anisotropy in the dorsal cingulum bundle and better performance on measures of re
63 e tracts (crossing between anterior parts of cingulum bundle and body of corpus callosum), which show
64 ildhood to early adulthood, higher FA of the cingulum bundle and inferior frontooccipital fasciculus
65  but also in 5-HT axonal bundles such as the cingulum bundle and medial forebrain bundle.
66                              Deficits in the cingulum bundle and mid-hippocampus and ventral prefront
67 (a measure of white matter integrity) in the cingulum bundle and uncinate fasciculus.
68 of a local anesthetic (bupivacaine) into the cingulum bundle at the time of nerve section could reduc
69 esults indicate that higher FA of the dorsal cingulum bundle may be an acquired feature of persistent
70                                          The cingulum bundle may play a critical role in protracted m
71 natomical regions such as the fornix and the cingulum bundle or corpus callosum.
72 right superior longitudinal fasciculi, right cingulum bundle projecting to the hippocampus, left infe
73  a specific fiber tract, the corpus callosum/cingulum bundle that conveys reciprocal connections betw
74                                    FA of the cingulum bundle was correlated with functional connectiv
75 sterior, and parahippocampal portions of the cingulum bundle were reconstructed separately using dete
76 g impairments and in the hippocampal part of cingulum bundle which accounted for long-term memory bin
77 culus) and to the cingulate cortex (via left cingulum bundle), whereas behaviorally salient but nonbe
78 d microstructural integrity of the posterior cingulum bundle, as measured by diffusion tensor imaging
79 rations in white matter (in corpus callosum, cingulum bundle, corona radiata, and superior fronto-occ
80 pared to matched controls in the left dorsal cingulum bundle, splenium of the corpus callosum, right
81                   The dorsal and hippocampal cingulum bundle, stria terminalis, and fornix were inves
82       This change was more marked within the cingulum bundle, the tract connecting the parahippocampa
83 asciculus; and from the cingulate gyrus, the cingulum bundle.
84 re extensively damaged on the dorsal part of cingulum bundle.
85  of AF64A on the cholinergic elements of the cingulum bundle.
86 ibition functions typically subserved by the cingulum bundle.
87  rostral and dorsal cingulate cortex via the cingulum bundle; and 3) subcortical nuclei.
88 he middle cerebellar peduncles (P<0.001), in cingulum bundles (P=0.002), and in the right orbitofront
89 ted positively with FA in the right and left cingulum bundles (r = .342, p = .052; r = .477, p = .005
90 h altered white matter microstructure in the cingulum bundles and uncinate fasciculi.
91  had 3% to 5% lower FA in the right and left cingulum bundles than FH- individuals (p = .012, p = .05
92  associated with reduced FA in the bilateral cingulum bundles, particularly in the left subgenual cin
93 te fasciculus and hippocampal portion of the cingulum bundles.
94 ecrease in fractional anisotropy in the left cingulum-callosal bundle.
95 as associated with decreased FA in the genu, cingulum cingulate gyri, centrum semiovale, inferior lon
96  corpus callosum, left fornix, and subgenual cingulum compared with control subjects.
97 sor imaging abnormalities of the cerebellum, cingulum, corpus callosum, internal capsule, thalamus, b
98 le, the NTRK1-T effect was replicated in the cingulum, corpus callosum, superior and inferior longitu
99 eta = -4.3 x 10(4); P < .01), and T2* in the cingulum cortical projection at 25% depth (beta = -1.7;
100 ities in parahippocampal gyrus and posterior cingulum, extending laterally into adjacent temporo-pari
101                                    Posterior cingulum fiber integrity predicted the degree of PCC dea
102 erior corona radiata, cortico-spinal tracts, cingulum fibre bundles, external capsule, forceps minor
103 mbic association tracts such as the anterior cingulum, fornix and uncinate fasciculus.
104 actions for FA were found in the hippocampal cingulum, fornix, and stria terminalis, posterior corona
105  coordination sub-scores to FA values in the cingulum, fornix, anterior commissure, corpus callosum a
106 have differential effects on the hippocampal cingulum, fornix, stria terminalis, posterior corona rad
107 he DTI indices of the bilateral cingulum and cingulum hippocampal part for each subject.
108 ion, as well as the WM integrity of the left cingulum hippocampal part.
109 white matter (WM) microstructure of the left cingulum hippocampal part.
110 uperior longitudinal fasciculi and the right cingulum-hippocampal projection compared with their coun
111 d significantly lower FA values in the right cingulum-hippocampal projection than their counterparts
112 ded cerebral cortex, lateral septal nucleus, cingulum, hippocampus, thalamus, amygdala, and vestibula
113  which allows us to optimize the location of cingulum in a global sense based on the diffusion measur
114 greater decrease in FA in the left posterior cingulum in bipolar disorder.
115 45 on neuropsychological performance and the cingulum integrity in Chinese Han population.
116                                              Cingulum is widely studied in healthy and psychiatric su
117 ociated with lower FA in the right posterior cingulum, left callosal splenium, right inferior fronto-
118              Specifically, greater bilateral cingulum length predicted lower PGBI-10M at follow-up.
119 ere related, additionally, to right anterior cingulum microstructure.
120 a strong decrease of oligodendrocytes in the cingulum of Cx43/Cx32dKO mice.
121 lesions in limbic system structures (eg, the cingulum) on the right than did subjects who did not mee
122 cts, such as the callosal genu and splenium, cingulum, optic radiations, and the superior longitudina
123 , and was correlated with FIQ and PIQ in the cingulum, optic radiations, superior fronto-occipital fa
124  SP MS group had abnormal recruitment of the cingulum or precuneus.
125 TSD patients had increasing FA of the dorsal cingulum over time, and at reassessment these FA values
126 ns in the microarchitecture of the posterior cingulum (PC), a white matter tract proximal to the hipp
127 odifications of the activity of the anterior cingulum, PCC and/or precuneus, left dorsolateral PFC, a
128 on other tracts, notably the parahippocampal cingulum (PHC).
129 ntervention group had an increased FC in the cingulum, precuneus, and bilateral parietal cortex and a
130  with alterations in diffusivity in the left cingulum (r = -0.66, P = .01) and superior longitudinal
131  .005, respectively), and the left subgenual cingulum (r = .500, p = .003).
132 fornix crus [AD, beta = 0.02 (P = .046)] and cingulum [RD, beta = -0.01 (P = .02); MD, beta = -0.01 (
133 l volume effect, and extract the skeleton of cingulum robustly and reliably.
134 osed method provides an approach to localize cingulum robustly, which is a very important feature for
135 tensors' information throughout the tract of cingulum simultaneously, which is quite different from t
136 he greatest change within right paracallosal cingulum (sporadic bvFTD, FA: -6.7%/yr, p < 0.001; MD: 3
137 nate fasciculus, superior cingulum, temporal cingulum, superior longitudinal fasciculus, arcuate fasc
138 lowing tracts: uncinate fasciculus, superior cingulum, temporal cingulum, superior longitudinal fasci
139 rs was examined by applying DiI to the right cingulum; the labeled fibers ran throughout the CC and r
140  patients had defects within fornices and/or cingulum; three patients had aberrant fibers of cingulum
141 tural connectivity produced by damage to the cingulum tract explained the compensatory increases in f
142 related to the level of injury to the dorsal cingulum tract, which connects medial frontal and pariet
143 0.002) cingulum tracts, bilateral descending cingulum tracts (P < 0.001) and left uncinate tracts (P
144 descending (left P < 0.001; right P = 0.003) cingulum tracts, and uncinate tracts (left P < 0.001; ri
145 terior (P = 0.003) and posterior (P = 0.002) cingulum tracts, bilateral descending cingulum tracts (P
146 fic fibre tracts (including corpus callosum, cingulum, uncinate and corticospinal tracts) as well as
147  Fractional anisotropy (FA) was computed for cingulum, uncinate and superior longitudinal fasciculi.
148 racts in emotional regulation circuitry (ie, cingulum, uncinate fasciculus, and forceps minor) and (1
149 oduce an approach to extract the skeleton of cingulum using active contour model, which allows us to
150                     Structurally, the dorsal cingulum volume and hindrance-modulated orientational an
151 crostructural variation in the left anterior cingulum was closely related to interindividual control
152 aled that fractional anisotropy of the right cingulum was inversely correlated with AD PRSs (p = .009
153 usivity in the parahippocampal region of the cingulum was negatively associated with verbal memory de
154 ty in the left parahippocampal region of the cingulum was negatively associated with visuospatial mem
155 d by fractional anisotropy) of the posterior cingulum was observed in participants with PTSD (p<0.05)
156            For more accurate localization of cingulum, we attempt to define it by skeleton extraction
157 ffusivity (MD) within the right paracallosal cingulum were greatest (FA: -6.8%/yr, p < 0.001; MD: 2.9
158  temporal pole, amygdala, insula, and dorsal cingulum, were aberrant in FXS and iAUT as compared with
159 white matter integrity in the left posterior cingulum, which may contribute to cognitive impairment d
160                                      Altered cingulum white matter architecture is implicated in the
161 uggest that abnormal uncinate fasciculus and cingulum WM structure may underlie emotional, but not be
162              Left and right rostral anterior cingulum WM volume loss correlated with changes in neuro

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