ライフサイエンスコーパス: functional MRI

1 omated brainmapping database [of over 10,000 functional MRI (fMRI) studies], we performed quantitativ

2 etened beverages daily for 21 d, underwent 2 functional MRI sessions, and completed behavioral and ex

3 Since the early 2000s, functional MRI (fMRI) has demonstrated profound modifica

4 eld 7T structural MRI and high-resolution 3T functional MRI (hr-fMRI), we evaluated MTL subfield thic

5 s of orientation, we used high-resolution 7T functional MRI as 16 subjects compared their subjective

6 Using ultra-high-field (7T) functional MRI and population receptive field modeling,

7 ron emission tomography scan 4 days before a functional MRI fear conditioning and extinction paradigm

8 The authors conducted a functional MRI study to examine neural responses to frus

9 underpinnings of revenge and forgiveness: a functional MRI (fMRI) approach aiming at integrating for

10 tially 11-15 years of age) participated in a functional MRI paradigm that elicited threat-related amy

11 levels of lifetime trauma participated in a functional MRI task involving passive viewing of threate

12 We first carried out a functional MRI experiment (n = 102) that yielded results

13 In each of four subjects, a functional MRI response in area V1 was found.

14 s learned to avoid shocks while undergoing a functional MRI scan.

15 decoding accuracy in simultaneously acquired functional MRI data.

16 Additionally, functional MRI can reveal changes in the response patter

17 rolled 15 deaf and 15 hearing adults into an functional MRI experiment during which they discriminate

18 mann visual fields (GVF), visual acuity, and functional MRI assessment.

19 t that volumetric analyses on anatomical and functional MRI contain clinically valuable information.

20 gions using personality trait assessment and functional MRI in a sample of 499 adolescents.

21 Trial-to-trial behavior and functional MRI (fMRI) blood-oxygen-level-dependent (BOLD

22 This model accounts for both behavioral and functional MRI (fMRI) responses during inhibitory contro

23 Cardiac cellular and functional MRI is a powerful tool to explore the roles o

24 te heart allograft rejection by cellular and functional MRI with selectively depleted systemic macrop

25 an substantia nigra (SN) using diffusion and functional MRI data from the Human Connectome Project.

26 G) to measure neuronal activity directly and functional MRI (fMRI) to measure hemodynamic activity du

27 onship between the three symptom domains and functional MRI neural reactivity during passive viewing

28 lly, we include studies that combine DTI and functional MRI (fMRI) to investigate brain connectivity

29 PET, SPECT, simultaneous EEG and functional MRI, and electrical and magnetic source imagi

30 ate D2DR availability were interrelated, and functional MRI-based resting-state functional connectivi

31 avioral methods, magnetoencephalography, and functional MRI to investigate how human listeners discov

32 tional neurophysiology, pathway mapping, and functional MRI, implicating multiple brain regions inclu

33 Morphological and functional MRI (fMRI) were performed before disease indu

34 MR spectroscopy, diffusion weighted MRI and functional MRI are being studied as potentially useful i

35 3% accuracy) but not from structural MRI and functional MRI related to executive functioning.

36 hted magnetic resonance imaging (DW-MRI) and functional MRI (fMRI) in humans and macaques to infer an

37 ants had blood sampling, structural MRI, and functional MRI during associative memory encoding and re

38 y stimulus repeats, neuronal firing rate and functional MRI blood oxygen level-dependent responses ty

39 l local field potential (LFP) recordings and functional MRI (fMRI), we study local changes in neurona

40 ried out a series of tests of structural and functional MRI (fMRI) data in 25 group-living macaques.

41 Cross-sectional measures of structural and functional MRI and plasma Abeta assays were assessed in

42 cture and function applied to structural and functional MRI data may provide insights into systems-le

43 Structural and functional MRI data were compared using automated brain

44 connectivity analyses in both structural and functional MRI to further our understanding of the relat

45 eaming ability, and underwent structural and functional MRI.

46 sensitivity to the number of syllables, and functional MRI confirmed that the cortical stimulation s

47 combined diffusion imaging tractography and functional MRI to study whether the strength of anatomic

48 Neuroimaging techniques (volumetric and functional MRI, diffusor tensor imaging, and magnetic re

49 in older adults by performing structural and functional MRIs while older participants engage in tasks

50 methods for presurgical language mapping are functional MRI (fMRI) and direct cortical stimulation (D

51 e TT genotype was associated with attenuated functional MRI prefrontal activity, reduced prefrontal c

52 gical interaction (PPI) analyses of auditory functional MRI data, to compare functional connectivity

53 In this study, we used model-based functional MRI (fMRI) to locate two functions of the fro

54 take advantage of computational model-based functional MRI (fMRI).

55 ranial magnetic stimulation with model-based functional MRI, we show that disrupting neural excitabil

56 sensitivity, 71% specificity) and task-based functional MRI (74% sensitivity, 77% specificity).

57 ine the state of data sharing for task-based functional MRI (fMRI) data, with a focus on various form

58 Using resting-state and task-based functional MRI, we demonstrate that OTC voxels showing g

59 simulation to create a registration between functional MRI retinotopic mapping data of visual areas

60 ng state blood oxygen level-dependent (BOLD) functional MRI is widely used for noninvasively studying

61 ther group member (target) while whole-brain functional MRI data were collected.

62 y, brain insulin sensitivity was assessed by functional MRI.

63 frontal gradient was further corroborated by functional MRI.

64 Using microelectrodes guided by functional MRI mapping, we recorded cell responses in th

65 lly implanted microwire electrodes guided by functional MRI targeting, we obtained distinct profiles

66 pallidal, and frontal activation (indexed by functional MRI).

67 s Scale, and brain activation as measured by functional MRI.

68 We collected functional MRI (fMRI) data from atopic dermatitis (AD) p

69 To address this issue, we collected functional MRI data and continuously assessed the heart

70 To this end, we collected functional MRI data from 43 children and young adults wh

71 We applied a combined functional MRI-PET scanner to simultaneously probe mothe

72 Here we combined functional MRI and eye tracking to examine the reading o

73 h experience-induced plasticity, we combined functional MRI with a preclinical drug vs. food self-adm

74 l networks underlying attention by comparing functional MRI data from macaques and humans performing

75 tigated this question directly by conducting functional MRI on two patients with rare bilateral amygd

76 We did a case-control functional MRI (fMRI) study in 50 men, of whom 12 were v

77 using a large (n = 69) distortion-corrected functional MRI (fMRI) dataset, spanning a range of seman

78 Using distortion-corrected functional MRI and dynamic causal modeling, we investiga

79 In the current functional MRI study, participants viewed point-light di

80 The reliance of blood-oxygen-level-dependent functional MRI on a contrast between events and baseline

81 ent advances in blood oxygen level-dependent-functional MRI (BOLD-fMRI)-based neurofeedback reveal th

82 He showed no detectable functional MRI activity when repeating nonsense words.

83 During functional MRI acquisition, 71 youths (25 with DMDD, 24

84 During functional MRI, skilled adult readers of four distinct a

85 e, then verbally described the events during functional MRI, producing unguided detailed descriptions

86 serve/imitate task of emotional faces during functional MRI in 28 healthy adults, with final analyses

87 this environment by moving within it during functional MRI (fMRI) scanning while we tracked their ev

88 erwent a neuroimaging reward paradigm during functional MRI scanning, structural scanning, and comple

89 conditioning and extinction protocol during functional MRI.

90 essment for simultaneous PET scanning during functional MRI studies was performed with a spiral in-an

91 acking and modeling the arousal state during functional MRI (fMRI) typically precludes the assessment

92 1), performed a threat-attention task during functional MRI acquisition.

93 ants completed an ultimatum game task during functional MRI.

94 an action imitation/observation task during functional MRI.

95 completed an emotional matching task during functional MRI.

96 event-related emotion-processing task during functional MRI.

97 Using functional neuroimaging (i.e., functional MRI), we showed that the size of the mixed-ca

98 Applying this insight to empirical functional MRI data, we found that cognitive task activa

99 dvent of neuroimaging techniques, especially functional MRI (fMRI), studies have mapped brain regions

100 Here, we examined functional MRI data from a large sample of healthy subje

101 This concept serves as the basis for functional MRI.

102 ks present in healthy brain, as derived from functional MRI.

103 e correlation to derive visual features from functional MRI patterns elicited by a large set of homog

104 llations and neuronal spiking responses from functional MRI (fMRI)-localized voice-sensitive cortex i

105 Four patients had functional MRI scans, which correlated with visual respo

106 Here, functional MRI was used to identify the network of brain

107 methotrexate was also associated with higher functional MRI activity, with thicker cortices in dorsol

108 Human functional MRI (fMRI) research primarily focuses on anal

109 rmation-based multivariate analyses of human functional MRI data typically find evidence for the temp

110 ltivariate (pattern-based) analyses to human functional MRI data acquired during a noninstrumental ou

111 Here, we used human functional MRI to measure brain activity during improvis

112 Here, we used hyperscanning functional MRI (fMRI) to study information flow between

113 icipants underwent consecutive and identical functional MRI recordings, during which they performed a

114 isation transfer, diffusion tension imaging, functional MRI, and proton magnetic resonance spectrosco

115 In functional MRI studies, FFA is often assumed to be a hom

116 Recent advances in functional MRI combined with graph theoretic techniques

117 iver perfusion with fresh blood (% change in functional MRI signal intensity due to hyperoxia was 16%

118 on the analysis of temporal fluctuations in functional MRI signal, representing a small fraction of

119 le reviews the current state of knowledge in functional MRI (fMRI) research related to pain with prim

120 Functional connectivity (FC) patterns in functional MRI exhibit dynamic behavior on the scale of

121 e task epochs in which they are recruited in functional MRI.

122 ailable that are used to localize the STh in functional MRI studies and clinical procedures such as d

123 ructural MRI data are thus far inconsistent, functional MRI evidence in trans persons suggests change

124 d CBF should be considered when interpreting functional MRI studies comparing activation responses be

125 arameters, we used an arterial-spin-labeling functional MRI stress paradigm in 36 MS patients and 21

126 with epilepsy were identified with language functional MRI (fMRI) and diffusion MRI acquisition.

127 Furthermore, in a large functional MRI sample of 795 subjects we found that the

128 We aimed to measure functional MRI (fMRI) and electroencephalography (EEG) c

129 This molecular functional MRI (fMRI) method yielded time-resolved volum

130 We used a multisubject functional MRI paradigm to measure neural activity in hu

131 On two occasions, functional MRI (fMRI) scans were performed in the fasted

132 Multivariate analyses of functional MRI data demonstrated that, while food value

133 Using graph theoretical analysis of functional MRI (fMRI) data in healthy subjects, we quant

134 show, using a multivoxel pattern analysis of functional MRI (fMRI) data, that the preparatory activit

135 n strategy and graph theoretical analysis of functional MRI data in human patients with the laryngeal

136 Here, multivariate pattern analysis of functional MRI data reveals a widespread neural network

137 retic framework is used to guide analysis of functional MRI resting-state data and describe systems-l

138 life speaking using a multimodal analysis of functional MRI, intracranial EEG recordings, and large-s

139 Employing a combination of functional MRI (fMRI) and positron emission tomography (

140 oss the cortex using voxel-wise modelling of functional MRI (fMRI) data collected while subjects list

141 humans, researchers have relied primarily on functional MRI (fMRI), but technological and methodologi

142 anced ventral striatal activity to reward on functional MRI.

143 We examined the effects of AMPH on functional-MRI-based blood oxygen level-dependent (BOLD)

144 work, we show the feasibility of performing functional MRI studies with single-cell resolution.

145 gen-level-dependent signal using bimodal PET/functional MRI.

146 placebo-controlled, within-subject, pharmaco-functional MRI experiment with 20 heterosexual pair-bond

147 This was investigated in the present functional MRI study applying different levels of cognit

148 Here we present functional MRI evidence from single-subject analyses for

149 elational methods used previously (primarily functional MRI).

150 Recent functional MRI (fMRI) studies of the brain support the e

151 t of shock paradigm was used while recording functional MRI in humans to measure how activation and f

152 are restricted to specific cortical regions, functional MRI has also shown involvement of subcortical

153 Here, we use event-related functional MRI (fMRI) and multivoxel pattern classificat

154 h Parkinson's disease using an event-related functional MRI (fMRI) experiment design.

155 In an event-related functional MRI experiment, 43 intelligence quotient and

156 aged 18-40 years, using rapid event-related functional MRI.

157 s; 637 women) who completed a reward-related functional MRI task to assay VS activity and provided se

158 inar activity in humans with high-resolution functional MRI (fMRI).

159 s on different trials during high-resolution functional MRI.

160 Using task-based and resting functional MRI, we show that chronic seizures disrupting

161 We used phase-encoded retinotopic functional MRI mapping methods to reveal the functional

162 mporal (magnetoencephalography) and spatial (functional MRI) visual brain representations with repres

163 rated quantitative stability during a spiral functional MRI sequence.

164 For T staging, functional MRI is superior to (11)C- or (18)F-choline PE

165 Resting state functional MRI (fMRI) has enabled description of group-l

166 We separately acquired resting state functional MRI data using a novel multi-echo planar imag

167 ighted, diffusion weighted and resting state functional MRI data were acquired at 3 T for 12 asymptom

168 In this study, resting state functional MRI scans and extensive behavioral testing as

169 ients underwent structural and resting state functional MRI scans, and spatial neglect was measured u

170 sing effective connectivity in resting state functional MRI with strong a priori hypotheses.

171 hed healthy controls underwent resting state functional MRI, and rumination about pain was assessed t

172 cognitive testing and 3-Tesla resting state functional MRI.

173 stimulation (tACS) [8-12] with resting-state functional MRI (fMRI) [13] to follow both changes in loc

174 The authors used resting-state functional MRI (fMRI) to develop a prognostic index in a

175 reward network, assessed using resting-state functional MRI (fMRI), to predict the onset of depressio

176 networks, often measured using resting-state functional MRI (fMRI).

177 usion tensor imaging (DTI) and resting-state functional MRI (rfMRI) data were acquired from 38 indivi

178 stituents of the rat DMN using resting-state functional MRI (rs-fMRI) and diffusion tensor imaging.

179 odel of the brain derived from resting-state functional MRI (rs-fMRI) data and investigate the modula

180 investigated DMN activity with resting-state functional MRI (rs-fMRI), alongside its structural and m

181 lying a clustering analysis on resting-state functional MRI (RSfMRI) data from white-matter voxels, i

182 Although resting-state functional MRI cannot provide direct insights into the d

183 al connectivity analyses using resting-state functional MRI collected in the same participants reveal

184 rain functional networks using resting-state functional MRI data acquired from 18 patients (11 vegeta

185 Using resting-state functional MRI data acquired from 20 children with ASD a

186 ology in head-motion-corrected resting-state functional MRI data acquired from 78 patients with bipol

187 mined the relationship between resting-state functional MRI data and symptom scores.

188 l connectivity analysis of the resting-state functional MRI data of healthy controls.

189 We used resting-state functional MRI data to analyze the brain connectome at v

190 Resting-state functional MRI data was acquired for 121 survivors of th

191 Resting-state functional MRI data was acquired from mTLE patients befo

192 using a large multisite study, resting-state functional MRI data were examined in young children with

193 and on a separate day acquired resting-state functional MRI images in 42 participants.

194 profiles of these areas using resting-state functional MRI in 38 humans and 25 macaque monkeys.

195 Resting-state functional MRI is a powerful tool that is increasingly u

196 Resting-state functional MRI may represent a promising tool to develop

197 We used resting-state functional MRI recordings in 27 patients with TLE (67% r

198 bjects (n = 1,305) underwent a resting-state functional MRI scan and were analyzed by a two-stage app

199 jects underwent structural and resting-state functional MRI scanning.

200 r treatment, subjects received resting-state functional MRI scans and assessments of depressive sympt

201 ills, underwent structural and resting-state functional MRI scans pretutoring.

202 , we used repeated-measurement resting-state functional MRI to explore intersubject variability in co

203 We applied novel fetal resting-state functional MRI to measure brain function in 32 human fet

204 loping (TD) controls underwent resting-state functional MRI, and functional connectivity of executive

205 Data from recent resting-state functional MRI, electroencephalography, magnetoencephalo

206 Using resting-state functional MRI, we examined the functional connectivity

207 -particularly structural MRI, resting--state functional MRI, and diffusion tensor imaging--are highly

208 amics after TBI, measured with resting-state functional MRI.

209 functional connectivity using resting-state functional MRI.

210 l asymmetry in the brain using resting-state functional MRI.

211 application of inspiratory loading using 7 T functional MRI.

212 Furthermore, these findings demonstrate that functional MRI has the potential to reveal the neural ba

213 Here, using the functional MRI (fMRI) technique, we investigated the neu

214 This functional MRI (fMRI) study capitalized on this task to

215 The goal of this functional MRI (fMRI) study was to examine task-induced

216 These findings suggest that real-time functional MRI can serve as a platform for exploring inf

217 amined the therapeutic efficacy of real-time functional MRI neurofeedback (rtfMRI-nf) training aimed

218 used whole-brain classifier-based real-time functional MRI to address these issues, because the meth

219 Based on a pre-TMS functional MRI (fMRI) experiment we selected the left do

220 In this study we used a new approach to functional MRI acquisition and analysis to characterize

221 network model of self-directed cognition to functional MRI data from 71 adolescents and young adults

222 Two functional MRI scans were collected from 72 war veterans

223 In two functional MRI experiments, patients with unilateral amy

224 In two functional MRI studies, we examine the effect of baselin

225 onse to continuous sensory stimulation under functional MRI (fMRI) in two unique patient populations-

226 caine/sucrose) availability while undergoing functional MRI scans.

227 ed a passive avoidance task while undergoing functional MRI.

228 ed a passive avoidance task while undergoing functional MRI.

229 Healthy volunteers (N=18) underwent functional MRI (fMRI) scanning while performing a reward

230 21; mean age, 16.4 years [SD=1.9]) underwent functional MRI (fMRI) before and after treatment; simila

231 jects (N=38) 14 to 29 years of age underwent functional MRI while performing a verbal working memory

232 lial risk of developing depression underwent functional MRI while recalling autobiographical memories

233 METHOD: Individuals with PTSD underwent functional MRI (fMRI) at rest and while completing three

234 METHOD: Individuals with PTSD underwent functional MRI (fMRI) while completing three tasks asses

235 t Response in Clinical Care) study underwent functional MRI during a well-validated reward task.

236 -, and IQ-matched comparison youth underwent functional MRI while performing an emotional conflict ta

237 We also used functional MRI-guided, single-pulse, transcranial magnet

238 nd trial with 48 obese participants and used functional MRI to study the effects of lorcaserin on the

239 The authors used functional MRI (fMRI) to investigate these questions.

240 The authors used functional MRI to investigate the functional brain matur

241 Here, we first used functional MRI to localize dorsal and ventral attention

242 major studies in bipolar disorder that used functional MRI, volumetric analysis, diffusion imaging,

243 gyrus (IFG) in healthy volunteers, then used functional MRI to investigate acute changes in effective

244 We used functional MRI (fMRI) to determine the brain response to

245 ctivity at the normal time of birth, we used functional MRI (fMRI) to measure blood oxygen level-depe

246 Here, we used functional MRI (fMRI) visual field mapping through popul

247 Here, we used functional MRI adaptation to identify neuronal populatio

248 Here we used functional MRI and population receptive field (pRF) anal

249 Here, we used functional MRI data of blood-oxygenation-level-dependent

250 To address this gap, we used functional MRI in humans to identify grapheme-specific b

251 We used functional MRI to examine DMN activity and connectivity

252 We used functional MRI to investigate the role of the cerebellum

253 We used functional MRI to measure brain activity in 24 healthy c

254 r understand this network in humans, we used functional MRI to measure the responses to moving object

255 Using functional MRI (fMRI) in normal-weight AA and TT humans,

256 Using functional MRI in a group of individuals sampled across

257 Using functional MRI in humans we tested two predictions deriv

258 Using functional MRI, brain activity was compared in unmedicat

259 Using functional MRI, the authors compared brain activation in

260 Using functional MRI, the authors examined whole brain resting

261 Using functional MRI, we assessed brain perfusion responses to

262 Using functional MRI, we contrasted responses elicited by stim

263 Using functional MRI, we determined the acute effects of intra

264 Using functional MRI, we examined auditory-evoked activity to

265 Using functional MRI, we examined the persistence of multivoxe

266 Using functional MRI, we investigated significant changes in c

267 Using functional MRI, we investigated the effect of constraini

268 Using functional MRI, we now confirm this biological interacti

269 Using functional MRI, we show that individual differences in t

270 Using functional MRI, we show that internationally adopted (IA

271 Using functional MRI, we show that signal reduction in the amy

272 Using functional MRI, we show that the very same influences ac

273 Using functional MRI, we show these social prediction errors c

274 oned fear generalization were assessed using functional MRI and behavioral measures in U.S. combat ve

275 oned fear generalization were assessed using functional MRI and behavioral measures in U.S. combat ve

276 Here, using functional MRI (fMRI) and behavioral measures, we show t

277 Here, using functional MRI, we demonstrate a mechanism by which the

278 ement of pleasant touch (hyperhedonia) using functional MRI and a crossover design.

279 ea defined through retinotopic mapping using functional MRI.

280 ditioning and extinction were measured using functional MRI before and after a manualized CBT program

281 neural responses in human participants using functional MRI and high-density EEG.

282 and Neuroscience (Cam-CAN) was scanned using functional MRI during two versions of an experiment: a n

283 Here we show, using functional MRI and pattern classification methods, that

284 ental brain response to infant stimuli using functional MRI, oxytocin, and parenting behavior in thre

285 We scanned 25 college students using functional MRI during evaluation of oneself or evaluatio

286 We developed a single-vessel functional MRI (fMRI) method to image the contribution o

287 istration of oxytocin (OT), we measured, via functional MRI, changes in brain activity during judgmen

288 We use blood-volume functional MRI to monitor longitudinally the responsiven

289 ing provides structural information, whereas functional MRI and electroencephalography provide functi

290 Imaging the amygdala with functional MRI is confounded by multiple averse factors,

291 ry incentive delay task (in conjunction with functional MRI) and a probabilistic reward learning task

292 sured dynamical functional connectivity with functional MRI during the resting state in awake and ane

293 ed to map brain functional connectivity with functional MRI, but their source is not well understood.

294 Alcohol cue reactivity was measured with functional MRI before and after training.

295 trics, especially connectivity measured with functional MRI, can correlate with differences in motion

296 n representations of particular objects with functional MRI (fMRI).

297 =47; never affected, N=99) were scanned with functional MRI (fMRI) (N=85), magnetoencephalography (N=

298 ere followed longitudinally and scanned with functional MRI while performing an event-related cued re

299 transcranial magnetic stimulation (TMS) with functional MRI to causally excite or inhibit TMS-accessi

300 atry.SIGNIFICANCE STATEMENT In recent years, functional MRI (fMRI) has revolutionized all fields of n