ライフサイエンスコーパス: image reconstruction

1 al semantic content guides and refines local image reconstruction.

2 y away from regions of fat tissue during PET image reconstruction.

3 lly improved the speed and robustness of MPI image reconstruction.

4 filaments using electron microscopy (EM) and image reconstruction.

5 tors, collimation, acquisition geometry, and image reconstruction.

6 n microscopy (cryo-EM) and three-dimensional image reconstruction.

7 ron microscopy followed by three-dimensional image reconstruction.

8 electron cryomicroscopy and single-particle image reconstruction.

9 s determined by cryo-electron microscopy and image reconstruction.

10 s of fat and T2* correction were included in image reconstruction.

11 ermined by cryo-electron microscopy (cryoEM) image reconstruction.

12 cryoelectron microscopy and single-particle image reconstruction.

13 ecimen preparation, low-dose imaging, and 3D image reconstruction.

14 g on the type of coincidence events used for image reconstruction.

15 on microscopy (cryoEM) and three-dimensional image reconstruction.

16 y and 99.1% specificity by using two-segment image reconstruction.

17 ate due to pulse pileup and could impact TOF image reconstruction.

18 electron microscopy (cryoEM) single-particle image reconstruction.

19 tofilament derived from electron-microscopic image reconstruction.

20 laser confocal microscopy and computer-aided image reconstruction.

21 echnology datasets are acquired, followed by image reconstruction.

22 A resolution by cryo-electron microscopy and image reconstruction.

23 brane-bound dyes and using computer-assisted image reconstruction.

24 electron cryomicroscopy and single particle image reconstruction.

25 ar disk herniation compared with standard CT image reconstruction.

26 s, obtained from electron cryomicroscopy and image reconstruction.

27 le size and thus to facilitate retrospective image reconstruction.

28 ompressed and decompressed and then used for image reconstruction.

29 by electron microscopy and three-dimensional image reconstruction.

30 olution by using cryoelectron microscopy and image reconstruction.

31 am-space, bypassing the intermediary step of image reconstruction.

32 visualize their content through neural-based image reconstruction.

33 f magnitude less than that of frame-by-frame image reconstruction.

34 arning typically yields unstable methods for image reconstruction.

35 rocessing, resulting in significantly faster image reconstruction.

36 n pulses in terms of temporal brightness and image reconstruction.

37 yo-electron microscopy and three-dimensional image reconstruction.

38 fits from minimal computational overhead for image reconstruction.

39 One of the recent strategies focuses on CT image reconstruction.

40 data and of using these features for facial image reconstruction.

41 is determined to 10.4 A resolution by cryoEM image reconstruction.

42 etermined using cryo-electron microscopy and image reconstruction.

43 using a single light beam and without object image reconstruction.

44 solved by cryo-electron microscopy (cryo-EM) image reconstruction.

45 substantial effect on the quality of natural image reconstructions.

46 bility was both high and robust to different image reconstructions.

47 ling, which yields significantly improved CS image reconstructions.

48 ion obtained at US was used to guide optical imaging reconstruction.

49 e field of view without any beam scanning or imaging reconstruction.

50 sociation and by employing X-ray holographic image reconstruction, a real-space electron density imag

51 We also tested whether attenuation-weighted image reconstruction affects (18)F-NaF uptake in the dif

52 In conjunction with a non-iterative image reconstruction algorithm this permits the restorat

53 When used with a jointly optimized image-reconstruction algorithm, diffraction-limited opti

54 technologies, data collection strategies and image reconstruction algorithms for applications in brea

55 potential dose reduction by using different image reconstruction algorithms for the detection of liv

56 We compare 3 image reconstruction algorithms for use in 3-dimensional

57 using 2 different radiotracers, 2 different image reconstruction algorithms, parametric imaging, and

58 constructed by using single- and two-segment image reconstruction algorithms, with resulting temporal

59 with (2 mm)3 voxels, using three-dimensional image reconstruction algorithms.

60 a software implementation of specific SR-SIM image reconstruction algorithms.

61 Tomosynthesis image-reconstruction algorithms allow tomographic imagin

62 Cryoelectron microscopy and image reconstruction analysis of purified capsids reveal

63 etermined using cryo-electron microscopy and image reconstruction analysis.

64 riability was attributable to variability in image reconstruction and analysis.

65 applied, depending on the chosen method for image reconstruction and attenuation correction.

66 are affected by the applied methods for both image reconstruction and attenuation correction.

67 camera sensitivity, spatial resolution, and image reconstruction and quantification.

68 en determined by electron cryomicroscopy and image reconstruction and represents the first three-dime

69 etermined using cryo-electron microscopy and image reconstruction and using X-ray crystallography to

70 Three-dimensional image reconstruction and videodensitometric analysis det

71 ng and 2-dimensional filtered backprojection image reconstructions and an energy window of 250-700 ke

72 d parenchymal organs, greater flexibility in image reconstruction, and improved multiplanar and three

73 cryo-electron microscopy, three-dimensional image reconstruction, and molecular modeling to visualiz

74 g cryoelectron microscopy, three-dimensional image reconstruction, and molecular modeling, we show th

75 ity gamma-cameras (SPECT/CT), algorithms for image reconstruction, and sophisticated compensation tec

76 hese findings make possible a broad range of image-reconstruction applications via a straightforward

77 ding the most appropriate protocols, and the image reconstruction approach has been especially overlo

78 The image reconstruction approach should be applicable to st

79 e morphogenesis, we developed an improved 3D image reconstruction approach.

80 Image reconstruction approximated current clinical proce

81 Convergence and quality of image reconstructions are improved by Bayesian condition

82 an uniformly-spaced sampling, higher quality image reconstructions are often achievable.

83 view" of the imaging target, which result in image reconstruction artifacts degrading image quality.

84 rial aperture is used to perform compressive image reconstruction at 10 frames per second of two-dime

85 n of the VLPs by electron cryomicroscopy and image reconstruction at 15.4-A resolution showed that th

86 Dual-energy CTPA with image reconstruction at 50 keV allows a significant redu

87 ium injection (n = 46) and dual-energy CTPA (image reconstruction at 50 keV) with the same injection

88 V5 by cryo-electron microscopy (cryo-EM) and image reconstruction at a resolution of 16 A.

89 Through a combination of cryo-EM image reconstructions, Bal31 sensitivity assays and Brow

90 Image reconstructions based on negative-stain electron m

91 yo-electron microscopy and three-dimensional image reconstruction both at an approximately 5.0-A reso

92 ques on experimental data acquired using the image reconstruction by integrating exchangeable single-

93 TA performed with a 16-detector scanner with image reconstruction by modern imaging software.

94 emonstrates resolution recovery in 18F SPECT image reconstruction by using an iterative algorithm tha

95 on of MR tissue information, such as fat, in image reconstruction can improve the quality of PET imag

96 SAFIRE image reconstruction can thus improve the evaluation for

97 he optimal parameter choices, higher quality image reconstructions can be consistently obtained by us

98 whether cone beam computed tomography (CBCT) image reconstruction characteristics, including section

99 ast year regarding technique, image display, image reconstruction, clinical trial results, and feasib

100 yo-electron microscopy and three-dimensional image reconstruction, combined with fitting of homology

101 The image reconstruction converts measured magnetic force da

102 the clear identification of a feature in the image reconstruction corresponding to an alpha-helix nea

103 n microscopy (cryo-EM) and three-dimensional image reconstruction (cryo-reconstruction) and X-ray cry

104 of this vector, cryo-electron microscopy and image reconstruction (cryo-reconstruction) combined with

105 yo-electron microscopy and three-dimensional image reconstruction (cryo-reconstruction) to 3.2- and 8

106 ion data are in reasonable agreement with EM image reconstruction data.

107 very coefficient, calculated using nonlinear image reconstruction, decreased from 0.76 initially (tim

108 ct by electron cryo-microscopy (cryo-EM) and image reconstruction demonstrated a morphology intermedi

109 Fitting of molecular models into the image reconstruction density identified the residues on

110 Image reconstruction enabled us to retrieve the structur

111 The image reconstruction enables the examiner to evaluate a

112 Conclusion: Applying advanced image reconstruction for (18)F-DCFPyL PET/CT scans did n

113 esolution using cryo-electron microscopy and image reconstruction for comparative analysis.

114 layered hexamer tubes facilitated 3D helical image reconstruction from cryo-electron microscopy data,

115 P4 spikes in a approximately 12 A resolution image reconstruction from electron cryomicroscopy of try

116 Image reconstruction from electron micrographs indicates

117 ains are located in a three-dimensional (3D) image reconstruction from electron micrographs.

118 While image reconstruction from raw sensor data is required fo

119 Image reconstructions from cryoelectron micrographs of t

120 We have combined image reconstructions from electron cryomicroscopy (cryo

121 d the dimeric spikes observed in icosahedral image reconstructions from electron cryomicroscopy of tr

122 to low resolution (15-30 A) is critical for image reconstructions from electron microscopy (EM).

123 Image reconstruction, however, currently relies on sophi

124 becoming an increasingly important tool for image reconstruction in fluorescence microscopy.

125 ) modeling into the process of iterative PET image reconstruction in integrated PET/MR imaging.

126 PL with a beta value of 4,000 is the optimal image reconstruction in PET/CT for confident radiologic

127 PL with a beta value of 4,000 is the optimal image reconstruction in PET/CT for confident radiologic

128 s determined by cryo-electron microscopy and image reconstruction, increasing the number of mapped ep

129 Higher order structural predictions and image reconstructions indicate that the S. solfataricus

130 Image reconstruction is demonstrated by using frequency-

131 ks to the volume rendering techniques and 3D image reconstructions, it is possible to precisely deter

132 focus on recent publications in the areas of image reconstruction, low-dose PET, disease detection, a

133 on (a) metabolite concentration data, (b) an image reconstruction matrix, (c) synthetic data with imp

134 mbining phase contrast X-ray imaging with an image reconstruction method known as equally sloped tomo

135 umulation in tissue might be affected by the image reconstruction method, but the clinical relevance

136 so determined by cryoelectron microscopy and image reconstruction methods and found to be in excellen

137 adings may imply that further development of image reconstruction methods holds potential to improve

138 Here, we studied the impact of advanced PET image reconstruction methods on BCR localization and int

139 Key research priorities include: 1, new image reconstruction methods that efficiently produce im

140 lectron cryomicroscopy and three-dimensional image reconstruction methods to examine the native morph

141 tron microscopy (cryoEM) and single-particle image reconstruction methods were used to determine the

142 and enables the synthesis of new holographic image reconstruction methods with significantly improved

143 on of vital clinical information by existing image reconstruction methods.

144 pectively, with cryo-electron microscopy and image reconstruction methods.

145 mensional mode with septa, and used analytic image reconstruction methods.

146 ection thickness, while the use of iterative image reconstruction mostly improves in-plane stent visu

147 For 3-dimensional image reconstruction, multiple optical images at sequent

148 A resolution by cryo-electron microscopy and image reconstruction, no detailed crystallographic struc

149 evelopments in x-ray sources; detectors; and image reconstruction, noise reduction, and postprocessin

150 stems are being developed to improve medical image reconstruction, noise reduction, quality assurance

151 Three-dimensional image reconstruction obtained by optical sectioning and

152 This method enables 3D image reconstruction of a crystal volume from a series o

153 We report the first image reconstruction of a filamentous virus, bacteriopha

154 , and the cryo-electron microscopy (cryo-EM) image reconstruction of a full-length PCV2 virus-like pa

155 potential to perform true three-dimensional image reconstruction of biological tissue.

156 tions proposed from cryo-electron microscopy image reconstruction of CA tubes.

157 Cryo-electron microscopy and single-particle image reconstruction of Ca(2+)-regulated (scallop) filam

158 The cryoelectron microscopy (cryoEM) image reconstruction of CAV21 is consistent with the hig

159 Cryo-electron microscopy image reconstruction of dengue virus particles incubated

160 Previously, advances in image reconstruction of diffusion magnetic resonance ima

161 iomorphy has thwarted structural analysis by image reconstruction of electron micrographs based on av

162 icted on the basis of such calculations that image reconstruction of electron micrographs of disulfid

163 d antibodies by cryo-electron microscopy and image reconstruction of Fab-labeled capsids to approxima

164 Furthermore, a 3D helical image reconstruction of microtubules with a dynein's mic

165 yo-electron microscopy and three-dimensional image reconstruction of myosin filaments from horseshoe

166 Image reconstruction of negatively stained protein parti

167 Transmission cryoelectron microscopy and image reconstruction of r-cores confirmed that they clos

168 yoelectron microscopy three-dimensional (3D) image reconstruction of the A6.2/MNV-1 complex indicated

169 Cryo-EM image reconstruction of the antibody-virus complex showe

170 the 12A resolution cryo-electron microscopy image reconstruction of the baseplate-tail tube complex.

171 whole capsid were built, based on a cryo-EM image reconstruction of the capsid.

172 viously determined cryo-electron microscopic image reconstruction of the open procapsid and discuss t

173 were subsequently incorporated within a PET image reconstruction of the original emission list-mode

174 In the three-dimensional map from the image reconstruction of the undecagold-labeled LDL parti

175 a three-dimensional cryoelectron microscopy image reconstruction of the virus.

176 Electron microscopy and image reconstruction of these filaments did not reveal a

177 Electron microscopy and image reconstruction of these particles suggest that the

178 Three-dimensional (3D) image reconstruction of tumors based on serial histologi

179 ere we describe electron cryo-microscopy and image reconstructions of CA tubes from six different hel

180 al particles indistinguishable from previous image reconstructions of capsids.

181 suggest that it should be possible to obtain image reconstructions of comparable resolution from cryo

182 Three-dimensional image reconstructions of confocal z-scans through giant

183 Image reconstructions of cryoelectron micrographs of thr

184 Image reconstructions of electron micrographs of virus p

185 ectron cryo-microscopy and three-dimensional image reconstructions of F170A and F170K empty procapsid

186 ng confocal microscopy and three-dimensional image reconstructions of GUVs labeled with fluorescent m

187 Three-dimensional image reconstructions of homogenous populations of in vi

188 enerated by 3-dimensional magnetic resonance imaging reconstruction of the left ventricle can reprodu

189 g a mathematical model to magnetic resonance imaging reconstructions of the left ventricle to predict

190 ate the effect of single- versus two-segment image reconstruction on image quality and diagnostic acc

191 essed, for the first time, the impact of TOF image reconstruction on PET quantification errors induce

192 y, the effect of point-spread function (PSF) image reconstruction on the repeatability of uptake metr

193 To investigate the impact of harmonized image reconstructions on feature consistency, a multicen

194 id, non-iterative method for solving inverse image reconstruction or enhancement problems in optics.

195 After image reconstruction, ORBIT resulted in better definitio

196 d 561 (93.5%) were seen by using two-segment image reconstruction (P=.35).

197 MR imaging also can be used to guide PET image reconstruction, partial volume correction, and mot

198 The cryoEM image reconstruction permits a nearly complete trace of

199 ogether with the associated advances made in image reconstruction, presentation, analysis of data, an

200 The complexes seen in the image reconstructions probably represent the first stage

201 based algorithm is applied and tested for NT image reconstruction problem.

202 The three-dimensional image reconstructions provide a molecular envelope withi

203 The image reconstructions provide the first example of an as

204 ormal and impaired face recognition, and how image reconstruction provides a powerful framework for u

205 les for real-time PAT rendering and improved image reconstruction quality for limited-view and sparse

206 experimental bottlenecks that may limit the image reconstruction quality from future high signal-to-

207 mprovement both in the compression ratio and image reconstruction quality, enabling SPI for high fram

208 High fidelity image reconstruction requires a precise model for each f

209 iteria: detection rate, accuracy, quality of image reconstruction, resolution, software usability and

210 es for the interpretation of biochemical and image reconstruction results.

211 ctron microscopy and subnanometer-resolution image reconstruction reveal the kinesin-dependent confor

212 ant capsid with cryo-electron microscopy and image reconstruction revealed altered pentamer coordinat

213 A 3D image reconstruction revealed that dynein's head domain,

214 Cryoelectron microscopy and single-particle image reconstruction revealed that the FX attachment sit

215 e determined by electron cryo-microscopy and image reconstruction reveals how the five types of polyp

216 Here, electron microscopic image reconstruction reveals that the filaments are bipo

217 CryoEM image reconstruction reveals the sequestration of T4L in

218 Models derived from image reconstruction show hollows or canyons in the subu

219 The cryo-EM image reconstruction showed that the location of the N t

220 The IFS algorithm for CT image reconstruction significantly reduces metal artifac

221 Simultaneously, novel technology, image-reconstruction software for traditional scanners,

222 th confocal microscopy and three-dimensional image reconstruction, spatially resolved binding sites f

223 0 keV gamma-rays instead of 79 keV x-rays in image reconstruction strongly improved the resolution (0

224 learning research could be applied to other image reconstruction tasks.

225 functional magnetic resonance imaging and an image reconstruction technique based on a spatial encodi

226 s are mitigated with a generalized iterative image reconstruction technique that leverages previous c

227 Using an fMRI-based image reconstruction technique, we identified impaired b

228 MATERIAL/METHODS: Introduction of iterative image reconstruction techniques allowed to significantly

229 dware, advances in pulse sequence design and image reconstruction techniques have spurred dramatic im

230 We have used electron microscope (EM) image reconstruction techniques to examine assembly prod

231 ryoelectron microscopy and three-dimensional image reconstruction techniques to examine the native mo

232 cryo-electron microscopy and single particle image reconstruction techniques, we have determined the

233 respectively, by cryoelectron microscopy and image reconstruction techniques.

234 olution by using electron cryomicroscopy and image reconstruction techniques.

235 s by using cryo-electron microscopy (cryoEM) image reconstruction techniques.

236 yo-electron microscopy and three-dimensional image-reconstruction techniques.

237 SPECT images are obtained using statistical image reconstruction that corrects for energy-dependent

238 nomic analysis, electron cryomicroscopy, and image reconstruction that the major coat protein fold of

239 ng electron microscopy and three-dimensional image reconstruction, the association of a diverse set o

240 Using electron microscopy with image reconstruction, the structures of several VLPs obt

241 Compared with naive image reconstruction, this approach requires far fewer s

242 To improve temporal resolution and reduce image reconstruction time for such scans, we have develo

243 ime needed for animal repositioning and long image reconstruction times due to high numbers of projec

244 ectron microscopy and three-dimensional (3D) image reconstruction to 13 A resolution.

245 yo-electron microscopy and three-dimensional image reconstruction to 18.0- to 8.5-A resolution.

246 n determined by cryo-electron microscopy and image reconstruction to 18A resolution.

247 yo-electron microscopy and three-dimensional image reconstruction to 3.08-, 2.75-, and 3.39- angstrom

248 nal MR imaging datasets during PET list-mode image reconstruction to a postreconstruction image-based

249 termined by cryoelectron microscopy (cryoEM) image reconstruction to a resolution of approximately 10

250 , determined by cryo-electron microscopy and image reconstruction to a resolution of approximately 11

251 ic resonance force microscopy (MRFM) with 3D image reconstruction to achieve magnetic resonance imagi

252 l, we have used cryo-electron microscopy and image reconstruction to compare actin filaments decorate

253 cryo-microscopy (cryo-EM) and symmetry-free image reconstruction to determine structures of PRD1 vir

254 lectron cryomicroscopy and three-dimensional image reconstruction to determine the BRV virion structu

255 We used electron cryomicroscopy and image reconstruction to determine the structure of four

256 re, we have used electron cryomicroscopy and image reconstruction to determine the three-dimensional

257 sion electron cryomicroscopy and icosahedral image reconstruction to examine the GLV virion at an est

258 We used electron cryomicroscopy and 3D image reconstruction to examine the IMNV virion at 8.0-A

259 th low-input RNA sequencing and mathematical image reconstruction to generate a high-resolution genom

260 ixon fat-constrained images to constrain PET image reconstruction to low-fat regions, with the workin

261 st image quality was achieved by referencing image reconstruction to middiastole (50%-60%) for the le

262 ed electron microscopy and three-dimensional image reconstruction to observe the effects of Ca2+ and

263 We have used electron cryomicroscopy and image reconstruction to obtain 15 A structures of both b

264 ed motion was then incorporated into the PET image reconstruction to obtain a single motion-corrected

265 ed electron microscopy and three-dimensional image reconstruction to reveal the location of caldesmon

266 s study, we used cryoelectron microscopy and image reconstruction to show that anti-HEV monoclonal an

267 We have used cryoelectron microscopy and image reconstruction to study B-capsids recovered from b

268 ectron cryo-microscopy and three-dimensional image reconstruction to study the icosahedral structures

269 tical areas as well as to successfully match image reconstructions to corresponding face exemplars.

270 applied photon localization super-resolution imaging reconstruction to the detected stochastic blinki

271 Using the image reconstruction toolkit provided in this protocol,

272 As image reconstruction unfolds and features are assembled

273 ctivity confounds conventional cardiac SPECT image reconstruction using a filtered backprojection met

274 image data of knee images for accelerated MR image reconstruction using machine learning is presented

275 this article we describe an approach for EIT image reconstruction using morphologic information obtai

276 g (FORE) with 2-dimensional (2D) statistical image reconstruction via the ordered-subsets expectation

277 Layer-by-layer image reconstruction was also extended to the third dime

278 The system matrix for image reconstruction was calculated via a hybrid method

279 of the 78 (78%) lesions, respectively, when image reconstruction was performed with FBP without AC,

280 Standard image reconstruction was performed: an ordinary Poisson

281 By using cryoelectron microscopy and helical image reconstruction we have now resolved the location o

282 Using live imaging and three-dimensional image reconstruction, we demonstrate that the transforma

283 sing electron cryomicroscopy and icosahedral image reconstruction, we determined the virion structure

284 inciples of image compression and associated image reconstruction, we obtain high-quality images of o

285 Using electron microscopy and 3D image reconstruction, we show that the mutant troponin p

286 important parameters involved in successful image reconstruction, we summarize recent biological app

287 has such a profound impact on the quality of image reconstructions, we formulate a new sampling schem

288 yo-electron microscopy and three-dimensional image reconstruction were employed to determine the stru

289 d mostly short filaments, which according to image reconstruction were similar to uncross-linked acti

290 yo-electron microscopy and three-dimensional image reconstruction were used to define the locations o

291 Electron microscopy and image reconstruction were used to determine the shape of

292 yo-electron microscopy and three-dimensional image reconstruction were used to solve the structure of

293 Confocal microscopy and three-dimensional image reconstruction were used to study the anatomical r

294 in complexes by cryo-electron microscopy and image reconstruction, which shows that, in one stage of

295 Improved quantitative image reconstruction with accurate compensation for scat

296 classification, has emerged as a new tool in image reconstruction with potential to change the field.

297 tallography and electron cryo-microscopy and image reconstruction with reconstructions performed on s

298 is appropriate for accurate superresolution image reconstruction with the clustering algorithm.

299 After image reconstruction with various attenuation maps, radi

300 3D image reconstruction without scatter correction substant