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1 nned, and had at least three valid post-dose MRI scans).
2 oved by the Food and Drug Administration for MRI scanning).
3 a magnetization-prepared rapid gradient echo MRI scan.
4 ymptoms completed a resting-state functional MRI scan.
5 Behavior Checklist within 6 months of their MRI scan.
6 (123)I-iodobenzovesamicol SPECT scan and an MRI scan.
7 ed medicine and varies considerably under an MRI scan.
8 o avoid shocks while undergoing a functional MRI scan.
9 ting physicians blinded to the result of the MRI scan.
10 ions and generated a lesion profile for each MRI scan.
11 e corresponding CT scan or on the subsequent MRI scan.
12 giography, MRI navigators, and a T1-weighted MRI scan.
13 ification of enhancing lesions on unenhanced MRI scans.
14 ith a median of 40 (IQR, 15-65) days between MRI scans.
15 n measurements derived from structural brain MRI scans.
16 cient (ADC) values were acquired from the DW-MRI scans.
17 oth (68)Ga-PSMA-11 PET/CT and (68)Ga-RM2 PET/MRI scans.
18 ith 188 Gd-enhancing lesions on 48 pre-aHSCT MRI scans.
19 resolution coupled with conventional cardiac MRI scans.
20 ignificant difference in catheterizations or MRI scans.
21 rement of HF subfields in the human brain on MRI scans.
22 nd healing were not evident clinically or on MRI scans.
23 se) availability while undergoing functional MRI scans.
24 Patients with MS also underwent annual brain MRI scans.
25 e difficult to assess on routine T1-weighted MRI scans.
26 ded visual assessment of their initial brain MRI scans.
27 ed) and cervical (axial T2- or T2*-weighted) MRI scans.
28 derwent more intensive assessments including MRI scans.
29 ral peduncles, midbrain, and/or brainstem in MRI scans.
30 ons that were associated with abnormal brain MRI scans.
31 rom multicontrast high-resolution postmortem MRI scans.
32 clinically acquired preoperative multimodal MRI scans.
33 one marrow edema was the combined reading of MRI scans.
34 after a baseline magnetic resonance imaging (MRI) scan.
35 state functional magnetic resonance imaging (MRI) scan.
36 h are visible on magnetic resonance imaging (MRI) scans.
37 tched healthy controls (n=68) also underwent MRI scanning.
38 individual illusion magnitude and structural MRI scanning.
39 irements of immobilization or anesthesia for MRI scanning.
40 went structural and resting-state functional MRI scanning.
41 who underwent both structural and functional MRI scanning.
42 healthy subjects with one or more structural MRI scans (1,197 in total), machine learning algorithms
45 had negative MRI scans and 120 had positive MRI scans), 122 orthopaedic trauma controls, and 209 hea
46 hange significantly from the first to second MRI scan (13.7 +/- 7.8 vs. 16.3 +/- 8.7 mm Hg, P = 0.239
48 baseline and postdose (18)F-JNJ-64413739 PET/MRI scans 4-6 h after the administration of a single ora
50 udy of Aging, 2037 of whom had undergone 3 T MRI scan, 985 amyloid PET scan with 11C-Pittsburgh compo
55 ildren (108 male; age range, 0-6 years) with MRI scans acquired from 2006 to 2013 at one large academ
56 graphy (PET) and magnetic resonance imaging (MRI) scans acquired in a total of 210 healthy individual
57 s calculated using single diffusion-weighted MRI scans (acute ischemic events that occurred within 10
60 rior to development of lesions observable on MRI scans, an endeavor that may be facilitated by newbor
61 ent (i) clinical evaluations; and (ii) brain MRI scans analysed using whole-brain voxel-based morphom
63 ealthy controls (HCs) completed a structural MRI scan and provided blood sample for kynurenine metabo
65 rmal head CT scans (of whom 330 had negative MRI scans and 120 had positive MRI scans), 122 orthopaed
66 , subjects received resting-state functional MRI scans and assessments of depressive symptoms using t
69 averaged proton density-weighted structural MRI scans and drive its functional activity with a dual
72 dies, patients completed baseline structural MRI scans and received either CBT or SSRI treatment.
73 o calculate hippocampal volume on all serial MRI scans and used linear mixed-effects regression model
75 postspaceflight magnetic resonance imaging (MRI) scans and generated centerline representations of t
76 ions of combined magnetic resonance imaging (MRI) scans and memory tests over a period of up to 11 ye
77 h recent orbital magnetic resonance imaging (MRI) scans and normal eye examinations were consented fr
78 ions of at least 3 mm on a T2-weighted brain MRI scan, and an Expanded Disability Status Scale score
79 Score of 70 or higher, were able to have an MRI scan, and had a complete resection of one to three b
80 At 12 weeks, patients underwent a follow-up MRI scan, and were categorized as either treatment remit
81 patients with FCD IIa/b were submitted to 7T MRI scanning, and then analyzed histologically and ultra
82 valuation of response to therapy compared to MRI scans, and can predict outcomes, particularly for pa
84 went structural and resting state functional MRI scans, and spatial neglect was measured using the Po
85 matter graphs were extracted from structural MRI scans, and whole-brain neuroanatomic organization wa
86 ed at the time of the first postradiotherapy MRI scan are prognostic for time to tumor recurrence and
88 ample, shape measurements derived from brain MRI scans are multidimensional geometric descriptions of
97 er than minimal cerebral disease detected on MRI scans at the time of an HSCT are at risk for severe,
98 ast-enhanced magnetic resonance imaging (DCE-MRI) scanning at baseline and 15 +/- 2 days after initia
101 searchers are often skeptical of post mortem MRI scans because of uncertainty about whether the fixat
102 jects (29.2 +/- 9.5 years) underwent DXA and MRI scans before and after a 10-week resistance training
103 thological diagnosis who had antemortem head MRI scans between Jan 1, 1999, and Dec 31, 2012, and who
104 assessed by blinded central review of brain MRI scans by the study neuroradiologist in the modified
106 heterogeneity extracted from registered DCE-MRI scans can improve early prediction of neoadjuvant tr
110 e calculated from the pre- and postoperative MRI scans coregistered with interictal (18) FDG-PET.
112 as performed on 1.5-T structural T1-weighted MRI scans derived from the International OCD Brain Imagi
113 data support that the system is safe and the MRI scan does not adversely affect electrical performanc
116 ection with ferumoxytol-enhanced T1-weighted MRI scans for anatomical orientation, similar to the con
119 xytol-enhanced whole-body diffusion-weighted MRI scans for tumour detection with ferumoxytol-enhanced
120 significantly improved prediction ability of MRI scans for upgrading of biopsy GS (p = 0.001, 95% CI
121 = 12.9 years, range =1-18) and a total of 82 MRI scans for volumetric MRI analyses compared to matche
123 work input consisted of 1970 multiparametric MRI scans from 1008 patients recruited from 2005 to 2009
128 icenter neuroimaging data, we analyzed brain MRI scans from 2028 schizophrenia patients and 2540 heal
129 n this retrospective study, multimodal brain MRI scans from 212 patients (mean age, 55 years +/- 17 [
130 fluid-attenuated inversion recovery (FLAIR) MRI scans from 262 participants in two phase 2 studies o
131 CNN training and retrospective analysis, 400 MRI scans from 367 patients (mean age, 48 years +/- 18;
133 yzed 1243 longitudinally acquired structural MRI scans from 623 youth (299 female/324 male) to invest
136 pBrainNet) using a large (n = 11 729) set of MRI scans from a highly diversified cohort spanning diff
139 three-dimensional T1-weighted gradient-echo MRI scans from patients who underwent gamma knife SRS fr
140 ctive study, 700 two-dimensional brain tumor MRI scans from the Brain Tumor Segmentation database wer
143 1-weighted brain magnetic resonance imaging (MRI) scans from 2148 MDD patients and 7957 healthy contr
144 lyze T1-weighted magnetic resonance imaging (MRI) scans from 624 participants at 3 time points, from
145 T), tau PET, and magnetic resonance imaging (MRI) scans from the population-based Mayo Clinic Study o
146 For anatomic imaging, 20 of 41 (49%) CT or MRI scans had findings congruent with (18)F-DCFPyL, wher
147 he 32 participants, whereas the simultaneous MRI scan identified findings compatible with recurrent P
150 ured cortical thickness on paired structural MRI scans in all participants and compared progressive t
153 comparative study of in vivo and post mortem MRI scans in healthy male Wistar rats at three age point
154 discriminative ability of GFAP for positive MRI scans in patients with negative CT scans over 24 h (
155 ed three-dimensional T1-weighted spinal cord MRI scans in seropositive participants with NMOSDs and i
156 as well as knee magnetic resonance imaging (MRI) scans in each subject were obtained at baseline and
158 sample of 3,565 magnetic resonance imaging (MRI) scans, in 1,204 patients with MS and clinically iso
160 rebral microbleeds (CMBs) on prethrombolysis MRI scans is associated with an increased risk of ICH.
161 ractice of visual comparison of longitudinal MRI scans is associated with significant delays in detec
162 ombined analysis of computed tomographic and MRI scans may help indicate the diagnosis of adult-onset
163 ltrasound and/or magnetic resonance imaging (MRI) scan may be is necessary to confirm the diagnosis.
164 of spatial distortions inherent in diffusion MRI scans, may enable more precise spatial targeting of
165 rther analysis of 102 hemispheres of in vivo MRI scans (N = 51 males, mean +/- SD 24.1 +/- 3.1 years
166 xamination, a baseline brain and spinal cord MRI scan obtained less than 3 months from clinical onset
171 with 35 neurologic diseases and normal brain MRI scans obtained between January 2008 and January 2018
172 nectivity analysis was applied to functional MRI scans obtained from 65 women with histories of child
174 of a prospective trial, unenhanced 3-T knee MRI scans obtained in youth competitive alpine skiers we
175 ep learning can predict enhancing lesions on MRI scans obtained without the use of contrast material.
176 We applied a computational model to the MRI scan of patients to simulate this progressive networ
179 High-resolution T(1)-weighted structural MRI scans of 33 CHR-P and FEP subjects treated with anti
181 We compared two independent LV atlases using MRI scans of 4547 UK Biobank participants: (i) a volume
182 utational models reconstructed from clinical MRI scans of fibrotic patient atria to explore the feasi
183 a deep neural network model trained on brain MRI scans of healthy people to predict "healthy" brain a
188 s of clinical disease onset and studied with MRI scans of the brain and spinal cord at study entry (b
189 rmed dissections, histological sections, and MRI scans of the closest living relatives of tetrapods:
190 e of endocranial globularity from structural MRI scans of thousands of modern humans and study the ef
191 stmortem in situ magnetic resonance imaging (MRI) scans of 95 subjects with MS to correlate thalamic
192 occasionally on magnetic resonance imaging (MRI) scans of the elderly, and this type of striatum is
193 ed to structural Magnetic Resonance Imaging (MRI) scans of twenty social network site (SNS) users wit
196 ized them in detail clinically, and obtained MRI scans on admission and daily thereafter while coma p
197 rom the PREVENT-Dementia programme underwent MRI scans on two separate occasions (mean interval 735 d
199 ffusion-weighted magnetic resonance imaging (MRI) scanning on the same 3T scanner, and behavioral/cog
201 of 74 MOG-IgG positive children with serial MRI scans over a median of 5 years from presentation.
203 to treatment allocation reviewed brain CT or MRI scans performed before randomisation to confirm part
205 participants had magnetic resonance imaging (MRI) scans, positron emission tomography (PET) scans wit
207 logical diagnostic methods (X-ray, CT scans, MRI scans) provide high precision monitoring of articula
208 ent nasogastric intubation before a baseline MRI scan, received 400 mL of Resource Energy (Nestle) as
209 gnosis of renal transplant status for any DW-MRI scans, regardless of the geographical differences an
210 cal MS white matter lesions on the patient's MRI scan remains the most influential prognostic investi
218 hanges with 1638 ante-mortem volumetric head MRI scans spanning 1.0-16.8 years of disease duration pr
219 ting the inclusion criteria, with 816 usable MRI scans (spanning 1.0-11.2 years of the disease) avail
220 uroimaging reward paradigm during functional MRI scanning, structural scanning, and completed psychom
222 They underwent baseline and postprandial MRI scans, symptom questionnaires, and blood sampling fo
224 rogram, investigators interpreted a baseline MRI scan taken before treatment to establish whether the
227 ad injury model of TBI in mice, we showed by MRI scans that TBI caused substantial degeneration at th
228 l on T2-weighted magnetic resonance imaging (MRI) scans that most commonly reflect small vessel cereb
230 gadolinium-enhancing lesions per T1-weighted MRI scan, the annualized rate of lesions on T2-weighted
232 per T1-weighted magnetic resonance imaging (MRI) scan, the annualized rate of new or enlarging lesio
233 and a fluoro-deoxy-glucose-PET/MRI (FDG-PET/MRI) scan, the patient suffered from progressive dopamin
234 dissemination in space, change the timing of MRI scanning to show dissemination in time, and increase
237 ion defects and were compared with noble gas MRI scans using the Dice similarity coefficient (DSC).
238 entilation maps were compared with noble gas MRI scans using the Pearson correlation coefficient (r)
239 c measurements derived from brain structural MRI scans, using genome-wide SNP data from 1,320 unrelat
244 dinal conventional T2- and T1-weighted brain MRI scans, we measured the relative amount of chronic le
245 myelin-sensitive magnetization transfer (MT) MRI scans, we show that this developmental period is cha
246 reconstructed from late gadolinium-enhanced MRI scans, we simulated channelrhodopsin-2 (ChR2) expres
255 s were blinded to the symptomatic status and MRI scans were analyzed for the degree of stenosis, plaq
256 iagnostic performance of sCT and T1-weighted MRI scans were analyzed using generalized estimating equ
263 T1-weighted and resting-state functional MRI scans were collected on a 3T Siemens scanner, in add
265 The tumors of 63 patients (56 + 7) in 627 MRI scans were digitized, including 34 grade 2 gliomas w
281 developmental patterns on diffusion-weighted MRI scans were quantified in children aged 0 to 6 years.
285 e areas in four cases with available in vivo MRI scans were sampled for histopathological verificatio
286 0 to 3 according to severity of the lesions, MRI scans were scored independently by 2 expert readers
287 Activation maps from the task-functional MRI scans were used for target selection and neuro-navig
289 graphy (PET) and magnetic resonance imaging (MRI) scans were acquired from 42 OA (21 Pittsburg compou
290 orrhage or surrogate haemorrhagic lesions on MRI scans, whereas later DOAC-administration initiation
292 ent CD and 13 healthy participants underwent MRI scanning while performing a task that requires the u
293 ent a 120-min dynamic (18)F-JNJ-64413739 PET/MRI scan with arterial blood sampling to determine the a
294 , "bottle"), was performed during functional MRI scanning with 118 patients with panic disorder (comp
295 een the introduction of quantitative dynamic MRI scanning with contrast agents that are sensitive to
296 g pipeline detected 11 key features on brain MRI scans with 89% accuracy (sensitivity, 81%; specifici
297 th 31 healthy controls using high-resolution MRI scans with an ROI approach focusing on the basal gan
299 ns was a frequent incidental finding on knee MRI scans, with an increased prevalence in youth competi
300 d within 2 weeks of SRSE onset, (2) a second MRI scan within 6 months of SRSE resolution, and (3) a m