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1 ; and noncontrast magnetic resonance imaging brain scan.
2 etric T1-weighted magnetic resonance imaging brain scan.
3 imb based solely on a T1-weighted structural brain scan.
4  in the immersion program at the time of the brain scan.
5    Of the 27 children, 25 (92.6%) required a brain scan.
6  fiber integrity at all pairs of points in a brain scan.
7 ther was administered 111 MBq of 201Tl for a brain scan.
8 functional magnetic resonance imaging (fMRI) brain scans.
9 nomalies and prognostication of neonatal MRI brain scans.
10  a region of interest analysis on structural brain scans.
11 em to predict variable rewards while we made brain scans.
12 hizophrenia that are detectable with in vivo brain scans.
13 nderstood, despite decades of research using brain scans.
14 T2-weighted magnetic resonance imaging (MRI) brain scans.
15  measuring neck muscle CSA on T1-weighted MR brain scans.
16 tracking motion-correction methods for human brain scans.
17 ho also underwent high-resolution structural brain scans.
18 hemisphere lesions) underwent MRI anatomical brain scans.
19 t high-resolution magnetic resonance imaging brain scans.
20 scence, and more than half have abnormal MRI brain scans.
21 l pulvinar high signal on magnetic resonance brain scanning.
22  0.67) for weekend/holiday admissions; early brain scan 1.30 (0.87 to 1.94) and 1.43 (0.95 to 2.18);
23 went serial magnetic resonance imaging (MRI) brain scans 3.5 years apart.
24 ld consequences, it is critical to interpret brain scans accurately, because decisions based on neura
25                                              Brain scans acquired across large, age-diverse cohorts h
26 tom-calibrated coregistered FMX-enhanced MRI brain scans acquired before, 1-4 hours after, and 16-24
27                       Thus, using over 1,000 brain scans, across three independent samples, we link s
28 ulated functional magnetic resonance imaging brain scans, ad libitum dinner, and evening snacking.
29              The 3 HABs underwent a repeated brain scan after TSPO blockade with XBD173 (N-benzyl-N-e
30 pants underwent a magnetic resonance imaging brain scan and completed a selection of personality meas
31  our analysis technique with high-resolution brain scanning and high-frequency motion correction to c
32  were obtained in 6 subjects; 2 subjects had brain scans and 5 subjects had scans of the thorax or ab
33 e performed on 6 individuals with MAS (3 for brain scans and 6 for whole-body scans) and 9 healthy co
34 le-body scans) and 9 healthy controls (7 for brain scans and 6 for whole-body scans).
35 ceived structural magnetic resonance imaging brain scans and completed the Dementia Rating Scale-2, a
36 pathology--on T2-weighted magnetic resonance brain scans and neuropsychological test findings in elde
37                                              Brain scans and postmortem data showed that affected ind
38 d to treatment who completed a follow-up MRI brain scan, and the primary analysis assessed the dose-r
39 nges are often readily visible in individual brain scans, and AN may be a valuable model disorder to
40 extracted from abundance of existing medical brain scans, and could potentially provide a characteris
41 asures were derived from 3-T MRI T1-weighted brain scans, and OBV was manually segmented on T2-weight
42 domen), and magnetic resonance imaging (MRI; brain) scans as a part of staging requirements for immun
43 tests and a magnetic resonance imaging (MRI) brain scan at approximate yearly intervals for the first
44  for age and gender underwent structural MRI brain scans at baseline and 6-9 months after commencing
45 H(2)(15)O positron emission tomography (PET) brain scans before a randomized, placebo-controlled, 3-w
46 and indications for computed tomography (CT) brain scan between 2014 to 2018 were purposively sampled
47 g of patients, but this requires specialized brain scans beyond routine clinical data, making it less
48                    Many studies include a MR brain scan but no peripheral measure of muscle mass.
49                 Normal and abnormal neonatal brain scans can be distinguished with reasonable accurac
50 tudied 2223 and 1582 mother-child dyads with brain scans collected using magnetic resonance imaging a
51 l subjects, using magnetic resonance imaging brain scan data and automated analysis techniques.
52  as they can make accurate predictions about brain scan data from individual subjects.
53  swallow screen on day of admission (day 0), brain scan (day 0 or 1), aspirin (day 0 or 1), admission
54                              All analyses of brain scans done with statistical parametric mapping wer
55  cross-sectional area (CSA) on volumetric MR brain scans enabling brain and muscle size to be measure
56  cancer) aged 18 years or older with a whole brain scan following a neurocognitive assessment.
57 e use 376 longitudinally acquired structural brain scans from 108 typically developing adolescents to
58             Using magnetic resonance imaging brain scans from 11 primate species, we measured gray, w
59 dataset with a minimum of 3 and maximum of 7 brain scans from 49 HD gene carriers and 49 age-matched
60  state-of-the-art neural networks trained on brain scans from 53,542 individuals (age range 3-95 year
61 quired structural magnetic resonance imaging brain scans from 618 typically developing males and fema
62 pplying SBM in >1250 longitudinally acquired brain scans from 647 healthy individuals aged 3-30 years
63                                        Using brain scans from healthy individuals (n = 1,504), we tra
64 or MRI had annual proton density/T2-weighted brain scans from which total lesion volume was measured
65 d baseline assessments (questionnaires and a brain scan [functional magnetic resonance imaging]) at 1
66 c risk of 2240 structural and functional MRI brain scan imaging-derived phenotypes (IDPs) on ALS usin
67 s developed in humans that included a 70-min brain scan immediately after administration of [(18)F]BC
68  obtained from an magnetic resonance imaging brain scan in a sample of subjects (n = 707) who have un
69    However, the analysis of conventional MRI brain scans in individuals who stutter has failed to yie
70 ain patients (n = 56) underwent pretreatment brain scans in two clinical trials.
71       Three-Tesla magnetic resonance imaging brain scans (including brain-substructure volumetrics) w
72                                 Serial fetal brain scans indicate that the immediate response of a fe
73  predicting aneurysm rupture based solely on brain scans is a significant challenge with limited reli
74 The image quality of the SOMATOM On.Site for brain scans is inferior to that of the conventional stat
75                                          NMO brain scan lesions compared to controls were large (> 2
76 tion were prospectively followed with yearly brain scans (mean follow-up = 4.6 years, standard deviat
77 ecall (short- and long-delay), and up to two brain scans (MRI-1: 2005-06; MRI-2: 2009-10).
78                                  T1-weighted brain scans (n = 21,297, 16 cohorts) were processed with
79  months from clinical onset, and a follow-up brain scan obtained less than 12 months from CIS onset.
80                                        SPECT brain scans obtained 3 h after injection were evaluated
81  architecture of basal ganglia volumes using brain scans obtained from 34,794 Europeans with replicat
82 olution parcellation were created to analyze brain scans of 1189 youths collected as part of the Phil
83  identification we analyzed 2-[(18)F]FDG PET brain scans of 20 AD patients and 20 normal controls (NC
84  rating systems were used to compare the MRI brain scans of 48 elderly patients with depression diagn
85 and posterior aspects of cerebellum from MRI brain scans of 53 chimpanzees (Pan troglodytes).
86                                     Clinical brain scans of 83 patients with brain lesions (67 in the
87                       Most (18)F PET amyloid brain scans often are assessed only visually (per regula
88 xyglucose positron emission tomography (PET) brain scans on 25 subjects with OCD, 25 with MDD, and 16
89 ts in the repeatability study had had two MR brain scans on three different scanners.
90 nce scores, magnetic resonance imaging (MRI) brain scanning, ophthalmic and audiologic exams, and CSF
91 ts (MOCA), Karnofsky Performance scores, MRI brain scanning, ophthalmic and audiologic exams, CSF par
92            There were no reports of abnormal brain scans or stroke.
93 ormed not later than 2 weeks after a routine brain scan positive for at least one area of gadolinium
94 or predicting common phenotypes from typical brain scans remain largely inaccessible to the examined
95 eir IQs were estimated (without awareness of brain-scan results).
96 pants viewed both music and animation during brain scanning, revealing that representations in audito
97 ons, experimental brain phantom, and patient brain scans showed improved quality with this collimator
98                                Resting-state brain scans showed increased activity for the meditation
99  In contrast, using structural or functional brain scans, simple linear models perform on par with mo
100                       A few small functional brain-scanning studies suggest that, in healthy individu
101  the analysis and assessment of neonatal MRI brain scans, the results of which can be used as an aid
102  digital subtraction of serially acquired MR brain scans to allow determination of rates of global an
103                                       The CT brain scan traumatic abnormality rate was 3% lower in th
104 bject naming skills and acquiring structural brain scans twice.
105              Participants underwent repeated brain scanning under stressful and neutral conditions.
106         This is a preliminary study of SPECT brain scan using dipyridamole as a stress agent to asses
107                           Finally, a patient brain scan was obtained with a combination of HCB and fa
108              To investigate this, structural brain scans were acquired at two time points (mean scan
109 photon emission computed tomographic (SPECT) brain scans were acquired for 15 drug-free depressed pat
110                                     Anatomic brain scans were acquired with a 1.5-T magnetic resonanc
111       Pre- and post-surgical T1-weighted MRI brain scans were analysed to extract hippocampal and res
112                   Magnetic resonance imaging brain scans were compared between 80 patients with a ran
113                           Forty-nine PET/MRI brain scans were included: brain tumor studies using (18
114                                      FDG PET brain scans were obtained and visually graded by an expe
115                                              Brain scans were obtained at 4-week intervals to the end
116                         Whole-body scans and brain scans were obtained at various times after injecti
117               Subsequently, pairs of dynamic brain scans were obtained for 11 healthy men to identify
118                   Magnetic resonance imaging brain scans were obtained from 243 subjects, comprising
119         By using magnetic resonance imaging, brain scans were obtained from 27 patients with major de
120                                              Brain scans were obtained using a PET scanner.
121                                              Brain scans were performed in all patients at baseline a
122                                              Brain scans were reviewed by a neuroradiologist (unaware
123 raphy (PET)/magnetic resonance imaging (MRI) brain scan with the second-generation TSPO ligand [(11)C
124 raphy (PET)/magnetic resonance imaging (MRI) brain scan with the second-generation TSPO ligand [(11)C
125          All participants underwent 1.5T MRI brain scanning with subsequent automatic measurement of
126  healthy volunteers (n = 46) underwent SPECT brain scans with (99m)Tc-TRODAT-1, a radiolabeled tropan
127 al sites analysed structural T1-weighted MRI brain scans with harmonised protocols of individuals wit
128 rience in these examinations, not limited to brain scans, with the use of an incubator equipped not o
129 ttern (thrombolysis, brain scan within 12 h, brain scan within 1 h, dysphagia screening), a day of th
130  variation: a diurnal pattern (thrombolysis, brain scan within 12 h, brain scan within 1 h, dysphagia
131                        A computed tomography brain scan within 18 h of stroke onset identified the pr

 
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