ライフサイエンスコーパス: DWI

1 DWI (SE/EPI) was performed in the axial plane using b-va

2 DWI allows to obtain comprehensive information on morpho

3 DWI and arterial spin-labeled PWI were performed at 30,

4 DWI and calculated apparent diffusion coefficient (ADC)

5 DWI and PWI can provide an early measure of metabolic an

6 DWI can be an effective diagnostic method for distinguis

7 DWI can be used to characterize renal lesions; the ADC o

8 DWI can contribute to differential diagnosis of chronic

9 DWI had a sensitivity of 93.1% (27 of 29 lesions), a spe

10 DWI images were obtained 0.5, 2 and 24 h after MCA occlu

11 DWI in conjunction with conventional imaging can potenti

12 DWI in PET/MR imaging has no diagnostic benefit for whol

13 DWI is also important for support of the diagnosis and p

14 DWI is outperformed by CET1WI for detection of HCC, but

15 DWI may be a useful technique to screen for boys with L1

16 DWI microstructural changes in NABT predict faster decli

17 DWI revealed concurrent acute brain infarct(s) in 31 of

18 DWI showed decreased diffusivity selective to the thalam

19 DWI was superior to T2W MRI in detecting acute stroke, w

20 DWI, anatomic magnetic resonance imaging, and biolumines

21 DWI, T2-weighted magnetic resonance imaging (MRI), perfu

22 DWI, T2I and PWI were performed before, during, and afte

23 DWI-detected lesion volume was significantly (p<0.05) re

24 DWI/ADC is useful in differentiating high-risk patients

25 ween groups I and II (ADC values, P < .0001; DWI quotients, P < .0001; postcontrast quotients, P = .0

26 nd groups II and III (ADC values, P < .0001; DWI quotients, P = .016; postcontrast quotients, P = .04

27 Reclassification of patients with TIA and a DWI lesion as "stroke" is under consideration.

28 simplified approach to assess results from a DWI protocol sensitive to the intravoxel incoherent moti

29 ), black race (p = 0.641), and presence of a DWI lesion at baseline (p = 0.007).

30 led proportion of TIA patients with an acute DWI lesion was 34.3% (95% confidence interval [CI] = 30.

31 WI and reported the proportion with an acute DWI lesion.

32 Abnormal volumes on the acute DWI and PWI (<7 hours) correlated well with initial Nati

33 In addition, DWI may be a useful method for in vivo detection of tiss

34 Conclusion Advanced DWI methods showed significant correlations with histopa

35 e, we then highlight the ability of advanced DWI techniques to address key clinical challenges in neu

36 We describe one advanced DWI modeling technique, called restriction spectrum imag

37 Results All DWI parameters were significantly different between pros

38 nt ischemic attack occurred more often among DWI+ patients (12 of 62) than among DWI- patients (6 of

39 en among DWI+ patients (12 of 62) than among DWI- patients (6 of 62), with a cumulative 5-year incide

40 not significantly different from the ADC and DWI-derived lesion volumes at the last imaging time poin

41 In DWI+ and DWI- patients, 8 and 2 events, respectively, occurred wi

42 rent cerebrovascular events between DWI+ and DWI- patients.

43 MRI in T1- and T2-weighted images, FLAIR and DWI sequences are the method of choice in patients with

44 brain revealed unknown features of FLASH and DWI with potential applications in characterizing the st

45 on was calculated between DCE MR imaging and DWI parameters, and the potential of the different DWI-d

46 For combined analysis of DCE MR imaging and DWI, the BI-RADS-adapted reading algorithm, which adapte

47 lues of multiparametric, DCE MR imaging, and DWI were calculated.

48 ly determined lesion volumes on ADC maps and DWI by both investigators correlated significantly with

49 All patients underwent conventional MRI and DWI examinations of the scrotum.

50 The results of MRI and DWI of the group of patients treated surgically were cor

51 The MRI and DWI results of non-surgical cases were correlated with t

52 Bilateral (23)Na and DWI sequences were performed before contrast material-en

53 In a second session, PET and DWI data were assessed qualitatively.

54 The use of PWI and DWI facilitated the diagnosis of PCNSL.

55 No correlation between (18)F-FDG uptake and DWI could be found across patients, but within individua

56 ontrast material-enhanced), T2-weighted, and DWI (b = 1000 sec/mm(2)) images, apparent diffusion coef

57 MRI scans (1.5T, T2-weighted, and DWI) of 140 patients with locally advanced rectal cancer

58 Despite normal appearing DWI and T2WI findings following MTBI, persistent hypoper

59 Advanced MRI techniques such as DWI and PWI suggested PCNSL.

60 We assessed DWI positivity in TIA and implications for reclassificat

61 003) were independent predictors of baseline DWI lesions.

62 in recurrent cerebrovascular events between DWI+ and DWI- patients.

63 Finally, the relation between DWI and IHTT results was supported by additional results

64 Rs were found to be better on FB DWI than BH DWI (p<0.001).

65 hing technique is therefore preferable to BH DWI in the evaluation of abdominal organs by DWI.

66 r eight years of clinical experience in body DWI.

67 of bone metastases assessed with whole-body DWI can potentially be used as indicators of response to

68 Whole-body DWI was performed at baseline and after 12 weeks of olap

69 Fifty-one patients with 62 brain DWIs were included.

70 Free breathing DWI technique reduces image noise and increases SNR for

71 ns of 1 to 120 cc in cerebral gray matter by DWI were enrolled.

72 DWI in the evaluation of abdominal organs by DWI.

73 ghted images/apparent diffusion coefficient (DWI/ADC) images of 86 lymph nodes from 31 cancer patient

74 The commonest DWI finding in patients with definite TIA is a negative

75 When comparing DWI in this time window with the 72-hour neurological ex

76 t appeared completely normal on conventional DWI and T2WI after concussion injury.

77 te random effects meta-analysis to determine DWI positive rates and influencing factors.

78 tumors were approximately 2 cm in diameter, DWI was performed on days 0, 3, and 7, and intratumoral

79 rameters, and the potential of the different DWI-derived parameters for differentiation between malig

80 ion in the rat was measured using diffusion (DWI)-, T2 (T2I)- and perfusion (PWI)-weighted magnetic r

81 High-resolution diffusion- (DWI) and perfusion-weighted (PWI) imaging may provide su

82 spreading depression (SD) using diffusion- (DWI) and perfusion-weighted MRI (PWI).

83 Early DWI/ADC lesions significantly predicted increased number

84 The presence of any early DWI/ADC lesion and increasing lesion volume were associa

85 At 3 months, early DWI/ADC lesion volume was significantly associated with

86 al usefulness of a phase-navigated spin-echo DWI sequence compared with T2-weighted magnetic resonanc

87 Markedly enhanced DWI contrast results from a 2-fold difference in apparen

88 w with the 72-hour neurological examination, DWI improved the sensitivity for predicting poor outcome

89 nt (alpha) obtained at stretched exponential DWI, ADC obtained with DKI modeling (ADCDKI), kurtosis w

90 l monoexponential DWI, stretched exponential DWI, diffusion kurtosis imaging (DKI), and diffusion-ten

91 es of the abdominal organs between BH and FB DWI sequences (p>0.05).

92 orty-eight patients underwent both BH and FB DWI.

93 SNRs were found to be better on FB DWI than BH DWI (p<0.001).

94 es between SNR values of organs on BH and FB DWIs.

95 for the severity of the disease and a FLAIR/DWI score was used.

96 tal number of regions involved and the FLAIR/DWI score did not vary significantly between both groups

97 to scanning, reduced or explained the 7-fold DWI-positive variation.

98 tive predictive value for PWI versus 74% for DWI).

99 ater agreement for ADC map analysis than for DWI analysis.

100 is a quantitative parameter calculated from DWI images which is used as a measure of diffusion.

101 tes of local fiber orientation obtained from DWI data that is unlikely to be overcome by improvements

102 the integrated PET/MR scanner, the VOIs from DWI and (18)F-FDG PET were both within the target volume

103 acquisition of both anatomic and functional DWI sequences provides an intrinsically "hybrid" dimensi

104 om catheter ablation can create hyperintense DWI punctate lesions in a canine model.

105 owed a reduction in CBF and a hyperintensity DWI encompassing the territory supplied by the MCA (n =

106 Diffusion weighted image (DWI) and apparent diffusion coefficient map studies exhi

107 c value of adding diffusion weighted images (DWI) to routine MRI examinations of the scrotum.

108 sing diffusion-weighted echo planar imaging (DWI) over a poststimulus period of 60-100 min.

109 ffusion-weighted magnetic resonance imaging (DWI) during the first week.

110 ffusion-weighted magnetic resonance imaging (DWI) for the detection of hepatocellular carcinoma (HCC)

111 ffusion-weighted magnetic resonance imaging (DWI) in an orthotopic pancreatic tumor model.

112 ffusion-weighted magnetic resonance imaging (DWI) to interrogate white matter structure in the human

113 ffusion-weighted magnetic resonance imaging (DWI) was used to detect and characterize complex waves o

114 ffusion-weighted magnetic resonance imaging (DWI).

115 ffusion-weighted magnetic resonance imaging (DWI).

116 rfusion-weighted magnetic resonance imaging (DWI/PWI) study of stroke patients (n = 21) at five disti

117 etermine whether diffusion-weighted imaging (DWI) abnormalities in normal-appearing brain tissue (NAB

118 maging (PWI) and diffusion weighted imaging (DWI) allow for more detailed analysis of brain tumors in

119 uate the role of diffusion weighted imaging (DWI) and apparent diffusion coefficient (ADC) values at

120 mager, including diffusion-weighted imaging (DWI) and DCE MR imaging.

121 sment, including diffusion-weighted imaging (DWI) and magnetization transfer imaging (MTI), add impor

122 uences including diffusion weighted imaging (DWI) and perfusion weighted imaging (PWI), and detailed

123 Diffusion-weighted imaging (DWI) and perfusion-weighted imaging (PWI) can rapidly de

124 Multislice diffusion weighted imaging (DWI) and single-slice dynamic bolus tracking gradient ec

125 c performance of diffusion-weighted imaging (DWI) applied to the whole body largely contribute to the

126 hemic lesions on diffusion-weighted imaging (DWI) are common in acute stroke patients.

127 Brain lesions on diffusion-weighted imaging (DWI) are frequently found after carotid artery stenting

128 Remarkably, 3D diffusion weighted imaging (DWI) delivered unprecedented contrast within the modular

129 ication value of diffusion-weighted imaging (DWI) for assessing paradoxical puborectalis syndrome (PP

130 ate the value of diffusion-weighted imaging (DWI) for distinguishing between benign and malignant ren

131 Diffusion-weighted imaging (DWI) has been at the forefront of cancer imaging since t

132 Diffusion-weighted imaging (DWI) has emerged as the most sensitive magnetic resonanc

133 ostic benefit of diffusion-weighted imaging (DWI) in an (18)F-FDG PET/MR imaging protocol for whole-b

134 rain infarcts on diffusion-weighted imaging (DWI) in patients with monocular visual loss of presumed

135 nt motion (IVIM) diffusion-weighted imaging (DWI) in the grading of gliomas.

136 h) reductions in diffusion weighted imaging (DWI) intensity following treatment with SB 239063 correl

137 Diffusion-weighted imaging (DWI) is an MRI modality using strong bipolar gradients t

138 Though diffusion weighted imaging (DWI) is frequently used for identifying the ischemic les

139 tingly, although diffusion-weighted imaging (DWI) is more frequently used to examine white matter tra

140 c resonance (MR) diffusion-weighted imaging (DWI) is sensitive to small acute ischemic lesions and mi

141 ate quantitative diffusion-weighted imaging (DWI) parameters derived from conventional monoexponentia

142 me and number of diffusion weighted imaging (DWI) positive/apparent diffusion coefficient (ADC) dark

143 a comprehensive diffusion-weighted imaging (DWI) protocol and characterized the white matter diffusi

144 Diffusion-weighted imaging (DWI) provides evidence of acute cerebral ischemia in a t

145 te (rs)-fMRI and diffusion weighted imaging (DWI) scans were undertaken before unilateral ballistic w

146 3 to 4 based on diffusion-weighted imaging (DWI) score of 5; and 71.7%-72.7% of lesions in both zone

147 Diffusion weighted imaging (DWI) studies in humans have shown that seniors exhibit r

148 ss of whole-body diffusion-weighted imaging (DWI) to assess the response of bone metastases to treatm

149 gular resolution diffusion-weighted imaging (DWI) to evaluate the structural integrity of the CC in h

150 maging (MRI) and diffusion weighted imaging (DWI) to identify the brain structure correlates of the s

151 Here we used diffusion-weighted imaging (DWI) tractography to show that the IFC and the STN regio

152 be studied with diffusion-weighted imaging (DWI) tractography.

153 gnetic resonance diffusion-weighted imaging (DWI) typically indicates acute ischaemic stroke.

154 e the utility of diffusion weighted imaging (DWI) using Apparent Diffusion Coefficient (ADC) values i

155 CTP and 24-hour diffusion-weighted imaging (DWI) was then undertaken to define the optimum CTP thres

156 hemic lesions on diffusion-weighted imaging (DWI) were found in 35% of patients.

157 e imaging (MRI), diffusion-weighted imaging (DWI), and 1,356 large-format cellular resolution (1 micr

158 ecovery (FLAIR), diffusion-weighted imaging (DWI), and perfusion and functional magnetic resonance im

159 mpMRI including diffusion-weighted imaging (DWI), blood-oxygenation-level-dependent (BOLD), tissue-o

160 ts, quantitative diffusion weighted imaging (DWI), perfusion weighted imaging (PWI), T2-weighted imag

161 scopy (MRS), and diffusion weighted imaging (DWI), was used in rats exposed to binge ethanol (EtOH) t

162 er pathways from diffusion-weighted imaging (DWI), was used to reconstruct the anatomical networks li

163 Using diffusion-weighted imaging (DWI), we failed to demonstrate anisotropy in the cortico

164 was monitored by diffusion weighted imaging (DWI).

165 pare it with 7-T diffusion-weighted imaging (DWI).

166 e breathing (FB) diffusion weighted imaging (DWI).

167 patients underwent conventional MR imaging, DWI, and contrast-enhanced MR imaging.

168 In DWI it showed restricted diffusion while PWI revealed lo

169 In DWI+ and DWI- patients, 8 and 2 events, respectively, oc

170 oci within the peripheral zone determined in DWI/ADC.

171 iffusion restriction (hyperintense signal in DWI) was shown in the cortex of the left parietal and oc

172 l towards cerebral parenchyma should include DWI, especially in pediatric patients.

173 FDG PET/MR imaging examination that included DWI.

174 ts underwent renal MR imaging which included DWI with subsequent ADC measurement.

175 olvement and the role of brain MRI including DWI and PWI in the evaluation of brain focal lesions.

176 5 to 84 years, underwent brain MRI including DWI at baseline.

177 magnetic resonance imaging (MRI), including DWI at 3 Tesla using the following b values - 0, 500 and

178 Mild hypothermia significantly inhibited DWI lesion growth early after the onset of ischemia as w

179 investigate whether periprocedural ischemic DWI lesions after CAS or carotid endarterectomy (CEA) ar

180 The IVIM DWI demonstrates efficacy in differentiating the low- fr

181 A transverse IVIM DWI sequence with 10 b values (0, 10, 20, 30, 50, 80, 10

182 Four hours later, DWI was performed.

183 Larger studies (n > 200) had lower DWI-positive rates (29%; 95% CI = 23.2-34.6) than smalle

184 y ischaemia occurred in 40 (66%) with a mean DWI/ADC volume 8.6 mL (0-198 mL) and lesion number 4.3 (

185 rs derived from conventional monoexponential DWI, stretched exponential DWI, diffusion kurtosis imagi

186 cal model predicting the presence of 1-month DWI lesions included history of any prior stroke (p = 0.

187 The combination of clinical and MR DWI factors provided better prediction of stroke recover

188 North American teaching hospital who had: MR DWI within 36 h of stroke onset; the National Institutes

189 ic reasonance diffusion-weighted imaging (MR DWI) could provide additional prognostic information to

190 d the volume of ischaemic brain tissue on MR DWI (p=0.04) gave the best prediction of stroke recovery

191 0.01), time in hours from stroke onset to MR DWI (p=0.02), and the volume of ischaemic brain tissue o

192 esenting with suspected TIA who underwent MR DWI and reported the proportion with an acute DWI lesion

193 tients who underwent magnetic resonance (MR)-DWI and MR-defecography were retrospectively reviewed.

194 Diffusion-weighted MRI (DWI) is a sensitive and reliable marker of cerebral isch

195 ractography based on diffusion-weighted MRI (DWI) is widely used for mapping the structural connectio

196 ave been observed on diffusion weighted MRI (DWI) scans shortly after catheter ablation of atrial fib

197 Initial multiple DWI lesions were associated with any lesion recurrence (

198 inite specialist-confirmed TIA have negative DWI findings.

199 patients with (DWI+) and without (DWI-) new DWI lesions on the post-treatment scan in the CAS and CE

200 No DWI lesions were detected in the remaining 5 animals (in

201 ng etiology as compared to those with normal DWI (odds ratio, 3.7; 95% confidence interval, 1.5-9.4).

202 arate sessions by two independent observers: DWI images (DW-set), CET1WI (CE-set), and all images tog

203 llowing this initial success, the ability of DWI to detect inherent tissue contrast began to be explo

204 owever, assessing the anatomical accuracy of DWI tractography is difficult because of the lack of ind

205 The addition of DWI to CET1WI improved sensitivity for the more experien

206 The addition of DWI to CET1WI slightly increases the detection rate.

207 Parametric analysis of DWI and DCE MR imaging was performed, including a propos

208 Clinical application of DWI may offer advantages over current T2-weighted magnet

209 Cases of DWI lesion restricted to subcortical white matter and/or

210 this study was to assess the feasibility of DWI in the early period after kidney transplantation.

211 Inclusion of DWI to routine MRI has a substantial value in improving

212 The omission of DWI for staging or restaging gynecologic cancer may sign

213 ed univariate and multivariate predictors of DWI evidence of acute brain infarcts.

214 Here we investigate the future prospects of DWI-based connectional imaging by applying advanced trac

215 This relationship supports the role of DWI as a surrogate marker of clinically meaningful lesio

216 Several studies suggested the role of DWI in the prediction of development of infarctions in t

217 in the field of neurooncology, the scope of DWI has since broadened to include oncologic imaging of

218 lts significantly advance the specificity of DWI in ischemia and other acute neurological injuries an

219 This study supports the clinical use of DWI for pancreatic tumor patients for early assessment o

220 se of the study was to evaluate the value of DWI in differentiating benign and malignant solid kidney

221 d positive and negative predictive values of DWI findings were 92% (23 of 25 patients), 62% (16 of 26

222 ts for identifying cortical abnormalities on DWI and PWI were calculated from all patients.

223 a (in TZ, upgrading category 3 to 4 based on DWI score of 4 or modified DCE score of positive; in PZ

224 sions upgraded from category 3 to 4 based on DWI score of 4; 33.3%-57.1% for TZ lesions upgraded from

225 e lesions manifested restricted diffusion on DWI images.

226 are characterised by restricted diffusion on DWI, typically indicate acute or hyperacute ischemic inf

227 Ischemic brain lesions discovered on DWI after CAS seem to be a marker of increased risk for

228 ith MVL demonstrates acute brain infarcts on DWI.

229 Areas of abnormal signal intensity on DWI images in keeping with bone metastases were delineat

230 Gray matter involvement on DWI was assessed among 37 patients with sCJD in 26 corti

231 ch), than with cortical infarct/ischaemia on DWI (chi(2) = 8.5 for aphasia; chi(2) = 9.7 for neglect;

232 and cortical infarct (or dense ischaemia) on DWI and cortical hypoperfusion indicated by PWI, was eva

233 he subjects with only subcortical lesions on DWI in this study (n = 44), all those who had aphasia or

234 Hyperintense lesions were observed on DWI (median maximum diameter 3.1 mm) in 2 of 4 animals a

235 cantly reduced but no change was observed on DWI.

236 ual determination of hyperintense regions on DWI.

237 Lesions seen on DWI and confirmed on the fluid attenuating inversion rec

238 JD show increased extent and degree of SI on DWI that correlates with disease duration and the degree

239 or cortical abnormality on PWI (95%) than on DWI (62%), as did neglect (100% positive predictive valu

240 ion), baseline NIHSS score, lesion volume on DWI, arterial lesion by magnetic resonance angiography,

241 ned a mean of 10.4 days after symptom onset, DWI detected six lesions not seen on T2WI and discrimina

242 Patients with periprocedural DWI lesions might benefit from more aggressive and prolo

243 The probability of positive DWI was higher in embolic versus nonembolic MVL (28 vs 8

244 Patients with positive DWI were more likely to harbor a major underlying etiolo

245 Here we performed probabilistic DWI tractography to delineate this cognitive control net

246 ADC-derived lesion volume and a smaller PWI/DWI mismatch.

247 Quantitative DWI in comatose postcardiac arrest survivors holds promi

248 factors are better understood, reclassifying DWI-positive TIAs as strokes is likely to increase varia

249 time points except for significantly smaller DWI lesions in the pMCAO model (p=0.02).

250 seen on various MRI sequences (T1, T2, STIR, DWI, post-gadolinium T1 FS) were measured and biopsies w

251 schemic risk over the first week and suggest DWI as a possible surrogate measure for recurrent stroke

252 All patients underwent TRUS, T1W, T2W, DWI, and 3D PRESSMRS sequences, and we also calculated A

253 P < 0.05) higher values (3.79 +/- 0.58) than DWI (3.63 +/- 0.77).

254 time point derived lesions on ADC maps than DWI (p<0.05).

255 We now report that DWI shows acute ischemia in 23% of patients clinically d

256 Ag) of prostate cancer was used to show that DWI can detect tumors <1 mm in diameter.

257 These findings suggest that DWI may have value in quantitatively assessing the pubor

258 The DWI experiment simulated within the model revealed that

259 The DWI findings correlated with the neuropathological findi

260 strongly with spatial foci predicted by the DWI tract analysis, as well as with foci activated by co

261 Analysis of the DWI data using constrained spherical deconvolution-based

262 Despite the exceptional quality of the DWI data, none of the methods demonstrated high anatomic

263 ed to evaluate the independent effect of the DWI measures on change in cognitive performance and func

264 s about the underlying physical basis of the DWI signal exist among researchers and clinicians alike.

265 The location and size of the DWI/fluid attenuating inversion recovery lesions correla

266 e is typically substantially larger than the DWI volume shortly after onset, that is, a diffusion/ pe

267 Some limitations to the DWI approach were apparent; the high diffusion anisotrop

268 lated potentials (ERPs), and related this to DWI measures of WM integrity.

269 Pearson correlations between tumor DWI and quantitative histologic parameters (nuclear, cyt

270 All patients underwent DWI, comprehensive ophthalmologic and neurologic examina

271 Overall, 86% of patients underwent DWI.

272 12 women; mean age, 56 years) who underwent DWI and CET1WI within 90 days of liver transplantation.

273 We therefore used DWI tractography in four macaque and 10 human hemisphere

274 sient ADC decreases were also detected using DWI in animals subjected to topical KCl application (n=4

275 ements due to p38 inhibition, observed using DWI, demonstrate that p38 inhibition can be neuroprotect

276 ideal time window for prognostication using DWI was between 49 and 108 hours after the arrest.

277 ences in white matter anatomy, visible using DWI, have consequences for behaviour.

278 sonance (MR) imaging, including high-b-value DWI and DTI at 3.0 T, before prostatectomy.

279 advanced tractography methods to an ex vivo DWI dataset of the macaque brain.

280 WB DWI is an efficient new method with high accuracy and wi

281 WB DWI was performed in the coronal plane using a 1.5-T sca

282 used only when (68)Ga-DOTATATE PET/CT and WB DWI are not available.

283 68)Ga-DOTATATE PET/CT, SSRS SPECT/CT, and WB DWI demonstrated, respectively, sensitivities of 0.96, 0

284 SRS SPECT/CT, (68)Ga-DOTATATE PET/CT, and WB DWI.

285 PET/CT in comparison to SSRS SPECT/CT and WB DWI: a significant difference in detectability was noted

286 whole-body diffusion-weighted MR imaging (WB DWI).

287 inations were performed in T1-, T2-weighted, DWI and T1 after dynamic contrast administration sequenc

288 ised imaging features of atypical PRES where DWI images and ADC maps show restricted diffusion.

289 of 1 year were reviewed to ascertain whether DWI aided in clinical diagnosis or management.

290 luate lesion evolution and to assess whether DWI and PWI can accurately and objectively demonstrate t

291 ion of malignant lesions, when compared with DWI (2.53 +/- 0.69).

292 ion to restore perfusion were evaluated with DWI, PWI, and cognitive tests before and after intervent

293 PET/MR imaging with DWI had slightly higher values (94.9%, 83.3%, 95.9%, 80.

294 DWI followed by a second interpretation with DWI.

295 opic motion of water molecules measured with DWI, termed the apparent diffusion coefficient (ADC), de

296 The clinical histories of patients with DWI scans obtained over the course of 1 year were review

297 me event was compared between patients with (DWI+) and without (DWI-) new DWI lesions on the post-tre

298 valuated the PET/MR imaging datasets without DWI followed by a second interpretation with DWI.

299 PET/MR imaging without DWI had a sensitivity, specificity, positive predictive

300 ed between patients with (DWI+) and without (DWI-) new DWI lesions on the post-treatment scan in the