ライフサイエンスコーパス: MRI scan

1 nned, and had at least three valid post-dose MRI scans).

2 oved by the Food and Drug Administration for MRI scanning).

3 ting physicians blinded to the result of the MRI scan.

4 ived one [123I]5-I-A-85380 SPECT scan and an MRI scan.

5 ructural MRI scan and co-registered to their MRI scan.

6 mination with (18)F-AZD4694 and a structural MRI scan.

7 -minute, eyes-open, resting-state functional MRI scan.

8 al) examinations as predictors of a positive MRI scan.

9 -5-IA-85380 ((123)I-5-IA) SPECT scan and one MRI scan.

10 PET scan of the chest, and a routine breast MRI scan.

11 were clinically assessed and 351 had a brain MRI scan.

12 hensive neuropsychological assessment and an MRI scan.

13 hyperenhancement in the early postoperative MRI scan.

14 (123)I-iodobenzovesamicol SPECT scan and an MRI scan.

15 ed medicine and varies considerably under an MRI scan.

16 o avoid shocks while undergoing a functional MRI scan.

17 nd healing were not evident clinically or on MRI scans.

18 se) availability while undergoing functional MRI scans.

19 Patients with MS also underwent annual brain MRI scans.

20 opsychiatric illnesses using only anatomical MRI scans.

21 We detected 34 enhancing lesions in 200 DCE-MRI scans.

22 es were collected, and 93% had corresponding MRI scans.

23 aging Initiative study with baseline CSF and MRI scans.

24 yses of 586 longitudinal and cross-sectional MRI scans.

25 he basis of blinded visual assessment of the MRI scans.

26 cohort of 613 children, 518 (85%) had usable MRI scans.

27 ortical and subcortical regions using serial MRI scans.

28 campal atrophy were assessed from anatomical MRI scans.

29 interpretation of standard contrast-enhanced MRI scans.

30 prone scans suitable for fusion with breast MRI scans.

31 ple-dose post-contrast T1-weighted spin echo MRI scans.

32 umber of lesions noted on pretreatment brain MRI scans.

33 were found to have an adrenal mass on CT or MRI scans.

34 rebellum and whole brain were collected from MRI scans.

35 ith a median of 40 (IQR, 15-65) days between MRI scans.

36 n measurements derived from structural brain MRI scans.

37 cient (ADC) values were acquired from the DW-MRI scans.

38 oth (68)Ga-PSMA-11 PET/CT and (68)Ga-RM2 PET/MRI scans.

39 ith 188 Gd-enhancing lesions on 48 pre-aHSCT MRI scans.

40 resolution coupled with conventional cardiac MRI scans.

41 rement of HF subfields in the human brain on MRI scans.

42 after a baseline magnetic resonance imaging (MRI) scan.

43 h are visible on magnetic resonance imaging (MRI) scans.

44 individual illusion magnitude and structural MRI scanning.

45 went structural and resting-state functional MRI scanning.

46 and 31 healthy comparison subjects underwent MRI scanning.

47 tched healthy controls (n=68) also underwent MRI scanning.

48 irements of immobilization or anesthesia for MRI scanning.

49 healthy subjects with one or more structural MRI scans (1,197 in total), machine learning algorithms

50 MRI scans (1.5T, T2-weighted, and DWI) of 140 patients w

51 Of the 2715 participants who underwent MRI scans, 12 (0.44%) had CCM.

52 hange significantly from the first to second MRI scan (13.7 +/- 7.8 vs. 16.3 +/- 8.7 mm Hg, P = 0.239

53 82% of recruited subjects completed serial MRI scans (17 PSP, 9 MSA-P, 9 Parkinson's disease patien

54 tsburgh Compound B (PiB) PET scan and two 3T MRI scans ~18-months apart.

55 ed tomography/magnetic resonance imaging (CT/MRI) scans, (2) subject the patient to a liver biopsy, o

56 els were extracted from 82 T1-weighted brain MRI scans (256 x 192 x 124 volumes) of 42 subjects with

57 d serial clinical assessments and volumetric MRI scans (41 scans: range 3-8 per patient) at different

58 Seventy-one subjects had MRI scanning a median of 4.6 months after a clinically i

59 ribution scans were compared with resting DE-MRI scans acquired within 24 h of SPECT acquisition.

60 graphy (PET) and magnetic resonance imaging (MRI) scans acquired in a total of 210 healthy individual

61 s calculated using single diffusion-weighted MRI scans (acute ischemic events that occurred within 10

62 received bapineuzumab, and had at least one MRI scan after treatment.

63 iation across brain surfaces, extracted from MRI scans alone, can successfully diagnose the presence

64 with DD, 32 completed the clinical trial and MRI scans, along with the 25 HC participants.

65 ormal regional wall motion (WM) on a cardiac MRI scan also have abnormal BP regional ejection fractio

66 rior to development of lesions observable on MRI scans, an endeavor that may be facilitated by newbor

67 ent (i) clinical evaluations; and (ii) brain MRI scans analysed using whole-brain voxel-based morphom

68 d control subjects underwent a 7-Tesla brain MRI scan and a detailed cognitive assessment.

69 hand-traced on each participant's structural MRI scan and co-registered to their MRI scan.

70 lescents with fragile X syndrome received an MRI scan and cognitive testing.

71 ealthy controls (HCs) completed a structural MRI scan and provided blood sample for kynurenine metabo

72 1,305) underwent a resting-state functional MRI scan and were analyzed by a two-stage approach.

73 , subjects received resting-state functional MRI scans and assessments of depressive symptoms using t

74 Structural MRI scans and BIS/BAS and other clinical measures were o

75 assessed by longitudinal gadolinium-enhanced MRI scans and clinical disease activity differ in their

76 Structural MRI scans and cortisol levels were obtained following ea

77 averaged proton density-weighted structural MRI scans and drive its functional activity with a dual

78 In this study, resting state functional MRI scans and extensive behavioral testing assessing cha

79 based history of enuresis, volumetric brain MRI scans and neuropsychological testing were obtained i

80 o calculate hippocampal volume on all serial MRI scans and used linear mixed-effects regression model

81 ne changes in gray matter we used structural MRI scans and voxel-based morphometry (VBM) and to ident

82 high resolution magnetic resonance imaging (MRI) scans and a 3-day food diary were collected on 32 c

83 weighted cranial magnetic resonance imaging (MRI) scans and are associated with geriatric depression.

84 h recent orbital magnetic resonance imaging (MRI) scans and normal eye examinations were consented fr

85 ions of at least 3 mm on a T2-weighted brain MRI scan, and an Expanded Disability Status Scale score

86 Score of 70 or higher, were able to have an MRI scan, and had a complete resection of one to three b

87 At 12 weeks, patients underwent a follow-up MRI scan, and were categorized as either treatment remit

88 re interrogated immediately before and after MRI scanning, and patients were continuously monitored.

89 patients with FCD IIa/b were submitted to 7T MRI scanning, and then analyzed histologically and ultra

90 valuation of response to therapy compared to MRI scans, and can predict outcomes, particularly for pa

91 We acquired high-resolution MRI scans, and investigated group differences in gray ma

92 went structural and resting state functional MRI scans, and spatial neglect was measured using the Po

93 clinical factors associated with 'positive' MRI scans; and (iii) the utilization of comprehensive ep

94 ed at the time of the first postradiotherapy MRI scan are prognostic for time to tumor recurrence and

95 ample, shape measurements derived from brain MRI scans are multidimensional geometric descriptions of

96 al and staging information, including CT and MRI scans, as indicated.

97 Each patient had a brain MRI scan at entry and 6 months later using a standardize

98 In both sexes, a single MRI scan at the level of L3 is the best compromise site

99 Main outcome was presence/absence of CIM on MRI scans at 1 and/or 2 years of age.

100 High-spatial-resolution MRI scans at initial hospitalization and 1.5 years later

101 ecoming clinically apparent using structural MRI scans at multiple time points beginning at 1.5 years

102 er than minimal cerebral disease detected on MRI scans at the time of an HSCT are at risk for severe,

103 ast-enhanced magnetic resonance imaging (DCE-MRI) scanning at baseline and 15 +/- 2 days after initia

104 on T(2)-weighted magnetic resonance imaging (MRI) scans at 12 months and progression of disability th

105 oncurrently with magnetic resonance imaging (MRI) scans at multiple time points and were analyzed for

106 Abdominal MRI scans (axial T1-weighted spin echo images) were take

107 searchers are often skeptical of post mortem MRI scans because of uncertainty about whether the fixat

108 thological diagnosis who had antemortem head MRI scans between Jan 1, 1999, and Dec 31, 2012, and who

109 be, and whole brain were measured on coronal MRI scans by a single rater who was blind to the subject

110 with atrophy (as measured from T(1)-weighted MRI scans by region of interest analysis) in the amygdal

111 assessed by blinded central review of brain MRI scans by the study neuroradiologist in the modified

112 MRI scans can be acquired from either live or post morte

113 y control subjects were recruited for serial MRI scans, clinical assessments and formal neuropsycholo

114 Brain magnetic resonance imaging (MRI) scans clinically obtained in 26 very preterm infant

115 diagnosed 1 to 4 years following the initial MRI scan, compared with those who would remain in the pr

116 5 without a diagnosis of TSC) had lesions on MRI scans compatible with meningiomas.

117 enotype, more antipsychotic exposure between MRI scans correlated with greater volume reductions in f

118 An alternative to costly MRI scans could be the detection of MMP-9, using a low-c

119 as performed on 1.5-T structural T1-weighted MRI scans derived from the International OCD Brain Imagi

120 data support that the system is safe and the MRI scan does not adversely affect electrical performanc

121 Structural MRI scans, DTI, and visual fields were acquired before a

122 contrast-enhancing lesions measured on brain MRI scans every 4 weeks between weeks 8 and 24.

123 Twenty-three mice received baseline MRI scans followed by either 60 minutes of coronary occl

124 tamine orally and placebo, and an anatomical MRI scan for measuring cortical thickness.

125 ection with ferumoxytol-enhanced T1-weighted MRI scans for anatomical orientation, similar to the con

126 ber of gadolinium-enhancing lesions on brain MRI scans for both RRMS studies.

127 Data consisted of two MRI scans for each subject.

128 xytol-enhanced whole-body diffusion-weighted MRI scans for tumour detection with ferumoxytol-enhanced

129 icenter neuroimaging data, we analyzed brain MRI scans from 2028 schizophrenia patients and 2540 heal

130 fluid-attenuated inversion recovery (FLAIR) MRI scans from 262 participants in two phase 2 studies o

131 hmically calculated for 108 anatomical brain MRI scans from 50 patients (20 of whom were female) and

132 Acute and follow-up SPECT and MRI scans from 61 patients who were admitted to a region

133 We collected brain MRI scans from 615 healthy young adult twins and sibling

134 A total of 1,748 anatomic MRI scans from 792 healthy twins and siblings were studi

135 The 3D-MRI scans from 8 eyes showed posterior staphylomas, late

136 ver the past two decades, thousands of brain MRI scans from healthy youth and those with neuropsychia

137 We examined over 3,800 unique MRI scans from nine large-scale studies to estimate the

138 Whole brain structural T1-weighted MRI scans from Parkinson's disease patients with dementi

139 nhanced T1-weighted lesions on monthly brain MRI scans from weeks 8 to 24.

140 1-weighted brain magnetic resonance imaging (MRI) scans from 2148 MDD patients and 7957 healthy contr

141 T), tau PET, and magnetic resonance imaging (MRI) scans from the population-based Mayo Clinic Study o

142 The presence of both DIS and DIT from two MRI scans has a higher specificity and risk for CDMS tha

143 Faster magnetic resonance imaging (MRI) scanning has made MRI a potential cost-effective re

144 he 32 participants, whereas the simultaneous MRI scan identified findings compatible with recurrent P

145 CT and/or MRI scans identified lesions that were suspicious for SD

146 hypothesis that fusion of (18)F-FDG PET and MRI scans improves detection of breast cancer, 23 patien

147 and 83 of 140 in the control group underwent MRI scan in 2009 to identify progression of MRI-measured

148 The authors acquired 52 functional MRI scans in 16 youths with ADHD who were known responde

149 he results of transfontanelle ultrasound and MRI scans in 21 children.

150 ickness was estimated from two neuroanatomic MRI scans in 43 youths with ADHD.

151 In this study, we performed MRI scans in a 4 Tesla MRI machine including T1-weighted

152 cartilage segmentation of 2 sequential knee MRI scans in each subject.

153 comparative study of in vivo and post mortem MRI scans in healthy male Wistar rats at three age point

154 as well as knee magnetic resonance imaging (MRI) scans in each subject were obtained at baseline and

155 were not pharmacoresistant, 10% had positive MRI scans, including four patients with gliomas.

156 MRI scans, including T2-weighted imaging (T2WI) and diff

157 Fused PET and MRI scans increased the specificity of MRI but decreased

158 In addition, MRI scanning indicated that beta-LGNDs altered body comp

159 tients who all had at least three successive MRI scans, involving 47 different imaging centres.

160 rebral microbleeds (CMBs) on prethrombolysis MRI scans is associated with an increased risk of ICH.

161 ombined analysis of computed tomographic and MRI scans may help indicate the diagnosis of adult-onset

162 ltrasound and/or magnetic resonance imaging (MRI) scan may be is necessary to confirm the diagnosis.

163 of spatial distortions inherent in diffusion MRI scans, may enable more precise spatial targeting of

164 After high-resolution MRI scans, models of the gray-white and pial surfaces we

165 post stroke to exclude dementia, and had an MRI scan (n=106) at that time.

166 rther analysis of 102 hemispheres of in vivo MRI scans (N = 51 males, mean +/- SD 24.1 +/- 3.1 years

167 We collected structural MRI scans (n = 61), well-validated assessments of execut

168 xamination, a baseline brain and spinal cord MRI scan obtained less than 3 months from clinical onset

169 is computed on a slice-by-slice basis using MRI scans obtained at regular intervals.

170 f the menisci in the right knee on 1.5-tesla MRI scans obtained from 991 subjects (57% of whom were w

171 MRI scans obtained from a subset of children at adolesce

172 Magnetic resonance imagining (MRI) scans obtained on a 1.5-T magnet with 1.5-mm contig

173 We have conducted MRI scanning of all available monkeys >2 years of age (n

174 Serial MRI scanning of autosomal dominant mutation carriers for

175 MRI scans of 130 consecutive patients meeting modified B

176 Based on diffusion MRI scans of 132 healthy individuals with a narrow age r

177 ospective study, we analysed early diffusion MRI scans of 14 patients with the E200K genetic form of

178 pelvic and lower limb muscle MRI scans of 269 symptomatic individuals and 19 non-pene

179 CT scans of 499 patients and MRI scans of 433 patients were analyzed (age 59 +/- 10 y

180 rior temporal gyrus (STG]) were drawn on the MRI scans of all subjects and used to measure volumes on

181 utational models reconstructed from clinical MRI scans of fibrotic patient atria to explore the feasi

182 Serial MRI scans of hMSC transplants in arthritic joints of rec

183 bral injury, we assessed cerebral lesions on MRI scans of infants who participated in the Total Body

184 ing characteristics of inflammation on brain MRI scans of inflammatory NTZ-PML patients.

185 We performed a cross-sectional audit of MRI scans of lumbar spine (L-spine) and sacroiliac (SI)

186 Olfactory psychophysical measures and MRI scans of olfactory bulbs were acquired from 19 healt

187 Lower limb MRI scans of patients with LGMD2C-2F, ranging from sever

188 metastatic adrenal masses detected on CT or MRI scans of patients with lung cancer.

189 MRI scans of sacroiliac (SI) joints, the lumbar spine, a

190 MRI scans of the brain are normal and those of the optic

191 rmed dissections, histological sections, and MRI scans of the closest living relatives of tetrapods:

192 Sequential small-animal (18)F-FDG PET and MRI scans of the thighs were obtained and coregistered.

193 on oxide (IO) nanoparticle probe for PET and MRI scans of tumor integrin alphavbeta3 expression.

194 ckness, based on magnetic resonance imaging (MRI) scans of 164 brain hemispheres, identified a delimi

195 ied longitudinal magnetic resonance imaging (MRI) scans of 92 nondemented older adults (age 59-85 yea

196 ic subjects, and magnetic resonance imaging (MRI) scans of schizophrenic subjects have not consistent

197 occasionally on magnetic resonance imaging (MRI) scans of the elderly, and this type of striatum is

198 ed to structural Magnetic Resonance Imaging (MRI) scans of twenty social network site (SNS) users wit

199 S patients and 30 healthy controls underwent MRI scanning on a 3 Tesla scanner.

200 Ninety-eight children received structural MRI scans on a Siemens head-only 3T scanner with magneti

201 ized them in detail clinically, and obtained MRI scans on admission and daily thereafter while coma p

202 We collected high-resolution MRI scans on young adult recreational marijuana users an

203 e recognition task directly after functional MRI scanning or 2 weeks later.

204 comorbid disease, an inability to undergo an MRI scan, or had a history of splenectomy.

205 sured by computerized analysis of up to four MRI scans over 12 months.

206 Patients with (1) an initial MRI scan performed within 2 weeks of SRSE onset, (2) a s

207 Longitudinal studies that use MRI scans performed over multiple time-points have been

208 participants had magnetic resonance imaging (MRI) scans, positron emission tomography (PET) scans wit

209 went structural and resting-state functional MRI scans pretutoring.

210 MRI scanning proceeded for 90 minutes after commencement

211 logical diagnostic methods (X-ray, CT scans, MRI scans) provide high precision monitoring of articula

212 ent nasogastric intubation before a baseline MRI scan, received 400 mL of Resource Energy (Nestle) as

213 cell lung cancer underwent 2-5 thoracic PET/MRI scan-rescan examinations within 22 d.

214 However, whether rapid MRI scanning results in better patient outcomes than rad

215 MRI scans revealed microcephaly-associated cortical and

216 oxel-based morphometry (VBM) analyses of the MRI scans revealed that absolute IQ scores were related

217 The MRI scans revealed the intrathoracic and subcutan masses

218 MRI scan showed a marked reduction in the calibre of the

219 Serial MRI scans showed evidence of decreasing brain volume in

220 Brain MRI scans showed that white-matter damage of immaturity,

221 ting the inclusion criteria, with 816 usable MRI scans (spanning 1.0-11.2 years of the disease) avail

222 uroimaging reward paradigm during functional MRI scanning, structural scanning, and completed psychom

223 During subsequent MRI scanning, subjects saw stationary views of the envir

224 rogram, investigators interpreted a baseline MRI scan taken before treatment to establish whether the

225 Structural changes can be seen on MRI scans that predate the clinical onset of familial Al

226 ad injury model of TBI in mice, we showed by MRI scans that TBI caused substantial degeneration at th

227 l on T2-weighted magnetic resonance imaging (MRI) scans that most commonly reflect small vessel cereb

228 scans to be acquired in the same position as MRI scans--that is, prone.

229 On the T1-weighted MRI scans, the GM fraction of the brain stem was reduced

230 and a fluoro-deoxy-glucose-PET/MRI (FDG-PET/MRI) scan, the patient suffered from progressive dopamin

231 ography (CT) and magnetic resonance imaging (MRI) scans, the efficacy of routine radiologic staging i

232 nical criteria for aMCI and had three serial MRI scans: the first scan approximately 3 years before t

233 All children with CP should have an MRI scan to provide information on the timing and extent

234 dissemination in space, change the timing of MRI scanning to show dissemination in time, and increase

235 tients (230 from each group) also had serial MRI scans to assess T2-weighted and gadolinium-enhancing

236 We used multiple MRI scans to measure progression of cerebral atrophy in

237 Participants underwent MRI scans to obtain structural images, from which cortic

238 ]) in the forearm and foot; we also used 31P-MRI scans to study the cellular metabolism of the foot m

239 Each underwent MRI scanning two to six times between ages 12 and 24 and

240 tal studies were coregistered with patients' MRI scans using automated software, and ictal minus inte

241 c measurements derived from brain structural MRI scans, using genome-wide SNP data from 1,320 unrelat

242 One MRI scan was obtained for each mouse to confirm tumor lo

243 An MRI scan was obtained immediately before and 3 to 6 hour

244 MRI scanning was performed 1 week before and at least 3

245 MRI scanning was performed on all monkeys both at baseli

246 MRI scanning was performed using a GE Signa Scanner (3.0

247 With high-resolution brain MRI scans, we created composite maps of cortical gray-ma

248 reconstructed from late gadolinium-enhanced MRI scans, we simulated channelrhodopsin-2 (ChR2) expres

249 Abnormal regions seen on the MRI scan were segmented, including the necrotic center (

250 Structural MRI scans were acquired at baseline and at 1-2 follow-up

251 e response and pharmacokinetic analysis, DCE-MRI scans were acquired at baseline and repeated at cycl

252 MRI scans were acquired from 21 male, neuroleptic-naive

253 A total of 2,362 3T brain MRI scans were acquired from 469 subjects.

254 High-resolution 3-Tesla T1-weighted MRI scans were acquired in 151 youths (75 anxious, 76 HV

255 MRI scans were acquired in vivo from two nonhuman primat

256 METHOD: Structural and diffusion MRI scans were acquired on a 3-T system from 26 chronic

257 MRI scans were also examined for radiologic abnormalitie

258 ebo and challenge conditions, and volumetric MRI scans were also obtained.

259 The 7-T MRI scans were analyzed at baseline, by physicians blind

260 Brain MRI scans were anonymised and scored on the criteria by

261 All patients for whom assessable MRI scans were available at baseline and follow-up were

262 CT or MRI scans were available on all patients.

263 MRI scans were collected from 240 chimpanzees, including

264 Two functional MRI scans were collected from 72 war veterans with and w

265 ces in infarct size were detected when the 2 MRI scans were compared, the 2 SPECT scans were compared

266 .8 ms, repetition time = 1 s, 8 interleaves) MRI scans were conducted at 3.0 T by using an extremity

267 The MRI scans were evaluated by two radiologists.

268 otal of 386 patients (91%) with adequate LGE-MRI scans were included in the study.

269 and (3) a minimum duration of 1 week between MRI scans were included.

270 MRI scans were measured algorithmically for nine pairs o

271 een healthy children for whom anatomic brain MRI scans were obtained every 2 years, for 8-10 years, w

272 Whole-body (18)F-FDG PET/MRI scans were obtained for 12 patients after PET/CT sca

273 DT-MRI scans were obtained from 15 patients with probable D

274 Anatomic brain MRI scans were obtained from 15 psychiatrically healthy

275 Baseline brain (18)F-FDG PET and MRI scans were obtained in 33 children from Pediatric Br

276 High-resolution, surface coil MRI scans were obtained in multiple, contiguous, quasico

277 MRI scans were performed 48+/-2 hours after-MI.

278 The MRI scans were performed according to a standard protoco

279 MRI scans were performed at baseline and 16 weeks and sc

280 DW-MRI scans were performed before CRT, during the third we

281 MRI scans were performed on the day of surgery, before t

282 MRI scans were performed preinjection, and at 1, 2, and

283 Ex-vivo MRI scans were performed two days after the rats were sa

284 High-resolution MRI scans were quantitatively analyzed for measures of o

285 Breast MRI scans were read by a radiologist.

286 Baseline and 18-month MRI scans were registered, and brain, hippocampal, and v

287 CT and MRI scans were reported independently, each by two radio

288 0 to 3 according to severity of the lesions, MRI scans were scored independently by 2 expert readers

289 Volumetric T1 MRI scans were spatially normalized and segmented for gr

290 The MRI scans were visually scored for degree of leukoaraios

291 Magnetic resonance imaging (MRI) scans were acquired from 17 children with autism an

292 hing T1-weighted magnetic resonance imaging (MRI) scans were obtained for 41 unmedicated patients wit

293 Four patients had functional MRI scans, which correlated with visual response or abse

294 ent CD and 13 healthy participants underwent MRI scanning while performing a task that requires the u

295 d VAT, they had undergone a volumetric brain MRI scan with measurements of total brain volume (TCBV),

296 th 31 healthy controls using high-resolution MRI scans with an ROI approach focusing on the basal gan

297 Comparing prechemoradiotherapy MRI scans with histology of the resected specimen, 72 pa

298 d within 2 weeks of SRSE onset, (2) a second MRI scan within 6 months of SRSE resolution, and (3) a m

299 Patients who had two MRI scans within 12 months of CIS onset were identified

300 perfusion was assessed on an early follow-up MRI scan (within 12 h of the revascularisation procedure