ライフサイエンスコーパス: optical imaging

1 icroscope, magnetic tip, or super-resolution optical imaging.

2 t up to 1700 nm for high-performance in vivo optical imaging.

3 lar imaging agent for magnetic resonance and optical imaging.

4 using laser tweezers, particle tracking and optical imaging.

5 nal techniques such as X-ray diffraction and optical imaging.

6 iction using novel 3-dimensional tomographic optical imaging.

7 me were monitored with 14.0-T MR imaging and optical imaging.

8 ide range of applications in cell and tissue optical imaging.

9 orophore (IRdye800CW) to allow near-infrared optical imaging.

10 erent anti-Stokes Raman scattering nonlinear optical imaging.

11 ular deprivation (MD) using intrinsic signal optical imaging.

12 sensitivity, detectability and linearity in optical imaging.

13 es for individual cells at the resolution of optical imaging.

14 icrosurgical preparation of live animals for optical imaging.

15 ith properties desirable for single-molecule optical imaging.

16 mal surrounding brain tissue, as measured by optical imaging.

17 diagnostically active quantum dots (QDs) for optical imaging.

18 velopment using exposed-cortex multispectral optical imaging.

19 imodality approaches such as PET/MRI and PET/optical imaging.

20 2 to chromatic and achromatic stimuli, using optical imaging.

21 croneedle penetration following staining and optical imaging.

22 imaging and the resolution limits of diffuse optical imaging.

23 echniques, such as two-photon microscopy and optical imaging.

24 pocytes scatter light and limit the depth of optical imaging.

25 green and red upconversion luminescence for optical imaging; 2) Efficient nonradiative relaxation an

26 ed by in vivo indocyanine green-enhanced NIR optical imaging (3.86-fold increase in radiant efficienc

27 her established using PSMA-based nuclear and optical imaging agents and by biodistribution, blocking,

28 somal nanoparticles can serve as bimodal PET/optical imaging agents.

29 SCLC xenografts using PSMA-based nuclear and optical imaging agents.

30 Quantitative analysis of contrast-enhanced optical imaging allows for potential therapeutic monitor

31 Optical imaging allows for simultaneous recording from n

32 Optical imaging, although safer and simpler, is less dev

33 Bioluminescence optical imaging analysis was employed to examine mucosal

34 ery small numbers of tumor cells via in vivo optical imaging and also allows the isolation and analys

35 Both external optical imaging and autoradiography confirmed the high s

36 Here, we report high-throughput real-time optical imaging and broadband in situ spectroscopy of in

37 to treatment with paclitaxel was measured by optical imaging and by analysis of lactate dehydrogenase

38 Dynamic images were obtained for optical imaging and DCE MR imaging.

39 rtially closing the gap between conventional optical imaging and electron microscopy for elucidation

40 To this end, we used optical imaging and electrophysiological mapping to guid

41 ased on graphene, which enables simultaneous optical imaging and electrophysiological recording.

42 (SPECT) positron emission tomography (PET), optical imaging and magnetic resonance imaging (MRI).

43 Optical imaging and micro-SPECT imaging at 1 d after the

44 e in responders was significantly reduced in optical imaging and MR imaging (optical imaging: mean, -

45 Quantitative perfusion measurements with optical imaging and MR imaging correctly identified pati

46 ect antibodies bound within the eye, we used optical imaging and observed accumulation of the antibod

47 parallel biophotonics fields such as in vivo optical imaging and optogenetics, are spearheading their

48 In this issue of Neuron, using in vivo optical imaging and optogenetics, Hill et al. (2015) rep

49 ty of this device can be further expanded to optical imaging and patterned electrical microstimulatio

50 hese findings, we conclude that fluorescence optical imaging and photoacoustic imaging are promising

51 oteins, and have been explored as agents for optical imaging and photosensitization of tumors in pre-

52 clots within the lungs with NIR fluorescence optical imaging and positron-emission tomography.

53 an ideal reagent for simutaneously targeted optical imaging and PTT of tumor.

54 The optical imaging and radiotracer studies confirmed that g

55 intracellular interrogation was verified by optical imaging and recording the transmembrane resting

56 Using optical imaging and single-cell recordings in the mouse

57 We used voltage-sensitive dye optical imaging and somatosensory and motor behavioral t

58 Direct optical imaging and spectroscopy techniques are well sui

59 es the traditional depth limits of ballistic optical imaging and the resolution limits of diffuse opt

60 We first discuss general considerations in optical imaging and then present salient characteristics

61 Bioluminescent optical imaging and transcutaneous ultrasonographic imag

62 Here we used intrinsic signal optical imaging and two-photon calcium imaging to map vi

63 rical microstimulation in tree shrews, using optical imaging and voltage-sensitive dyes.

64 samples of blood and tissue and with in vivo optical imaging and were refined by microscopic examinat

65 simultaneous neuroimaging (intrinsic-signal optical imaging) and electrode recordings from alert, ta

66 n of behavioral measures, electrophysiology, optical imaging, and biochemical and electrochemical rec

67 lation was combined with molecular genetics, optical imaging, and biochemistry to show that Nck-depen

68 disease activity index [SDAI]), ICG-enhanced optical imaging, and DCE MR imaging.

69 compared with tumor therapeutic response and optical imaging, and tumors were histologically analyzed

70 nce nanoparticles have been demonstrated for optical imaging applications in living mice.

71 otential of this 24-colour (super-multiplex) optical imaging approach for elucidating intricate inter

72 we used in vivo phage display methods and an optical imaging approach: fluorescence molecular tomogra

73 of human skin abnormalities by non-invasive optical imaging are aided by spectroscopic methods that

74 In particular, MR and optical imaging are an attractive combination that can b

75 Recent advances in molecular biology and optical imaging are being applied to astrocytes in new a

76 Nanoprobes for MRI and optical imaging are demonstrated.

77 /magnetic resonance imaging and multichannel optical imaging are particularly promising because they

78 Molecular imaging technologies, especially optical imaging, are uniquely suited to illuminate compl

79 as to develop and assess near-infrared (NIR) optical imaging as a novel noninvasive method of detecti

80 fluorescent contrast agents are emerging in optical imaging as sensitive, cost-effective, and nonhar

81 allow for simultaneous electrophysiology and optical imaging, as well as optogenetic modulation of th

82 CLTX administered to individual animals for optical imaging at 1-month increments.

83 Super-resolution optical imaging based on the switching and localization

84 Super-resolution microscopy allows optical imaging below the classical diffraction limit of

85 Optical imaging beyond the ballistic regime has been dem

86 have increased the achievable resolution of optical imaging, but few fluorescent proteins are suitab

87 ing tritium-labeled particles and that using optical imaging, but quantitative divergence existed.

88 segmentation aspects in the context of cell optical imaging, (c) histogram and co-occurrence summary

89 single ryanodine receptor channel recording, optical imaging (Ca(2+) and membrane potential), and con

90 Unfortunately, conventional optical imaging cannot provide the spatial resolutions n

91 Multi-modal three dimensional (3D) optical imaging combining both structural sensitivity an

92 tions.Optical clearing of tissue has enabled optical imaging deeper into tissue due to significantly

93 We developed molecular assays and portable optical imaging designs that permit on-site diagnostics

94 Real-time optical imaging detected a strong tdTomato fluorescent s

95 uman testing and approval of investigational optical imaging devices as well as contrast agents for s

96 ored the feasibility of repurposing existing optical imaging devices for fluorescence-guided surgery.

97 inated the potential for existing open-field optical imaging devices with overlapping excitation and

98 Here we show, using optical imaging, electron microscopy, and slice electrop

99 us injections of Dox@PEG-HAuNS, fluorescence optical imaging (emission wavelength = 600 nm, excitatio

100 Process-integrated optical imaging enabled to identify the printing failure

101 aptive optics (HAO) has pushed the limits of optical imaging, enabling high-resolution near diffracti

102 sensors with optical readout compatible with optical imaging equipment.

103 Optical imaging experiments in mice under isoflurane ane

104 We start with optical imaging experiments on CA1 in mice as they run a

105 d metadata of cellular electrophysiology and optical imaging experiments.

106 xpression, and magnetic resonance and direct optical imaging for blood-brain barrier permeability and

107 The extension of in vivo optical imaging for disease screening and image-guided s

108 s demonstrate the utility of superresolution optical imaging for measuring the size of AQP4 supramole

109 ble for single-channel electrophysiology and optical imaging from a wide variety of preparations, ran

110 introduced as a theranostic nanoplatform for optical imaging guided photothermal therapy (PTT) using

111 f hyperbolic phonon polaritons in near-field optical imaging, guiding, and focusing applications.

112 Optical imaging has become a central tool for in vivo tr

113 Optical imaging has offered unique advantages in materia

114 pite recent rapid progress, super-resolution optical imaging has yet to be widely applied to non-biol

115 Considerable advances in cancer-specific optical imaging have improved the precision of tumor res

116 ndent memory function, we determined through optical imaging how memory is encoded at the whole-netwo

117 distribution of P-Dex was investigated using optical imaging, immunohistochemistry, and fluorescence-

118 Optical clearing methods can facilitate deep optical imaging in biological tissue by reducing light s

119 tion of myeloperoxidase (MPO) activity using optical imaging in infiltrating neutrophils under inflam

120 To investigate this relationship, we used optical imaging in mouse primary visual cortex (V1).

121 rophysiological mapping and intrinsic signal optical imaging in somatosensory areas.

122 In patients, optical imaging in the gut in vivo has the potential to

123 s with specificity, allowing high-resolution optical imaging in the live mouse.

124 s were measured in vivo and studied by using optical imaging in vitro.

125 ising method for deep-tissue high-resolution optical imaging in vivo mainly owing to the reduced scat

126 e electromagnetic spectrum are essential for optical imaging in vivo.

127 Using single molecule optical imaging in Xenopus oocytes, we found that MEC-4

128 proteins has led to significant advances in optical imaging, including the unambiguous tracking of c

129 Using the combination of whole body optical imaging, intravital microscopy, and "in vivo flu

130 The integrative optical imaging (IOI) method was employed to evaluate di

131 Scientific cinematography using ultrafast optical imaging is a common tool to study motion.

132 her, this study reveals that superresolution optical imaging is a powerful approach for studying epid

133 Optical imaging is a powerful noninvasive approach used

134 High-resolution optical imaging is critical to understanding brain funct

135 ution at the cellular level and sensitivity, optical imaging is highly attractive for identifying cel

136 Sensitive and fast optical imaging is needed for scientific instruments, ma

137 Optical imaging is uniquely suited to assess organoid fu

138 Intrinsic signal optical imaging (ISI) is a rapid and noninvasive method

139 using in vivo indocyanine green-enhanced NIR optical imaging, magnetic resonance imaging, and ex vivo

140 y reduced in optical imaging and MR imaging (optical imaging: mean, -21.5%; MR imaging: mean, -41.0%;

141 h), while in nonresponders it was increased (optical imaging: mean, 10.8%; P = .075; MR imaging: mean

142 We have developed a quantitative in vivo optical imaging method for detection of CA IX as a marke

143 e, we developed quantitative superresolution optical imaging methodology to measure AQP4 cluster size

144 uronal activity with single-cell resolution, optical imaging methods have revolutionized neuroscience

145 Endoscopy uses optical imaging methods to investigate tissue in a non-d

146 an optical microscopy and other conventional optical imaging methods.

147 and reduced image fidelity with traditional optical imaging modalities.

148 We used optical imaging, MRI, and field potential and potassium

149 In vivo optical imaging must contend with the limitations impose

150 optoacoustic imaging device that fuses laser optical imaging (OA) with grayscale ultrasonography (US)

151 We used optical imaging of action potentials and [Ca(2+)]i trans

152 on of multiplexed immunolabeling in vivo for optical imaging of AML cellxenografts that provides repr

153 Whole-body optical imaging of animals was concurrently carried out;

154 Optical imaging of biofilms with single-cell resolution

155 This article reviews optical imaging of both radionuclide- and beam-based ion

156 Herein we describe a method for nanoscopic optical imaging of buried polymer nanostructures without

157 ation and simultaneous fast, high resolution optical imaging of cardiac excitation waves.

158 Optical imaging of fast events and processes is essentia

159 fragment complementation biosensor based on optical imaging of Firefly luciferase (FLuc), to quantit

160 achieve this goal, one promising approach is optical imaging of fluorescent calcium indicators, but t

161 Conventional optical imaging of functional activation in the brain is

162 r noninvasive PET imaging and intraoperative optical imaging of GRPr-expressing malignancies.

163 Optical imaging of individual synapses indicates that tr

164 on, we evaluated in vitro force contraction, optical imaging of inflammation, echocardiography and bl

165 By using optical imaging of intrinsic signals and single-unit rec

166 complementary approaches, Arc induction and optical imaging of intrinsic signals in awake mice.

167 We examined these proposals by using optical imaging of intrinsic signals to investigate this

168 tecture of the visual cortex was assessed by optical imaging of intrinsic signals, and chondroitinase

169 l interactions in V1 of the tree shrew using optical imaging of intrinsic signals, optogenetic stimul

170 Optical imaging of luciferase-transfected MAPCs indicate

171 extures of boojums using polarized nonlinear optical imaging of molecular alignment and explain our f

172 Non-invasive optical imaging of neuronal voltage response signals in

173 uroimaging probes we recently introduced for optical imaging of neurotransmission in the brain.

174 lymerase 1 (PARP1) is a promising target for optical imaging of OSCC with the fluorescent dye PARPi-F

175 ances in the MR, PET, SPECT, ultrasound, and optical imaging of ovarian cancer.

176 mum in size, large enough to enable in situ optical imaging of particle orientation, were synthesize

177 synaptophysin, and SV2A via mutagenesis and optical imaging of pHluorin-tagged proteins in cultured

178 can be used for noninvasive PET imaging and optical imaging of prostate cancer.

179 ew microscopy methods that allow single-cell optical imaging of radionuclides are reviewed.

180 hrough the surface of the brain, and in-vivo optical imaging of sound-evoked activity was achieved th

181 ar optical susceptibilities, allowing direct optical imaging of the atomic edges and boundaries of a

182 combine electrical measurements and magneto-optical imaging of the domain wall displacement with mic

183 Optical imaging of the dynamics of living specimens invo

184 Multiple scattering limits the contrast in optical imaging of thick specimens.

185 Optical imaging of TMDs using photoluminescence and Rama

186 ols that allow for markedly improved in vivo optical imaging of tumorigenic processes.

187 Optical imaging of voltage indicators based on green flu

188 Three-dimensional (3D) optical imaging of whole biological organs with microsco

189 Optical imaging of whole, living animals has proven to b

190 PET and NIRF optical imaging offer complementary clinical application

191 t be imaged using these standard techniques, optical imaging offers a unique imaging alternative.

192 Furthermore, biodistribution studies through optical imaging (OI) and the use of radiolabelled polyme

193 d on the basis of serum luciferase activity, optical imaging (OI) of the fluorescent protein mCherry,

194 step towards in vivo deep tissue noninvasive optical imaging, optogenetics and photodynamic therapy.

195 ng techniques, such as electrophysiology and optical imaging, or whole-brain imaging methods, such as

196 .15, P < .0001) and relative bioluminescence optical imaging photon signal (0.57 x 10(7) photons per

197 .15, P < .0001) and relative bioluminescence optical imaging photon signal (0.57 x 10(7) photons per

198 Here we introduce a unique optical imaging platform and methodology for label-free

199 f well-defined compositions using a powerful optical imaging platform consisting of confocal spectros

200 rent techniques (magnetic resonance imaging, optical imaging, positron emission tomography, X-ray com

201 Here we report a near-infrared optical imaging probe highly specific to the hypoxic tum

202 ng L-012, an ROS-sensitive chemiluminescence optical imaging probe, and analyzed the expression of hy

203 n silica layer, were synthesized and used as optical imaging probes under a differential interference

204 ral liver transduction with both nuclear and optical imaging probes.

205 Contrast-enhanced NIR optical imaging provides a sensitive, rapid, and noninva

206 Optical imaging relying on endogenous fluorescence has b

207 Concurrent with MRI, optical imaging revealed a clear tumor contrast at 24h.

208 Advanced optical imaging revealed rapid persistent GPVI-Fc bindin

209 uced structures, three-dimensional nonlinear optical imaging reveals that topological charge is conse

210 edented power gain is expected to enable new optical imaging, sensing, manipulation and treatment app

211 nation therapy group did both MR imaging and optical imaging show substantial decreases in apparent d

212 The REE of optical imaging significantly correlated with MR imaging

213 tent luminescence are attractive for in vivo optical imaging since they have a long lifetime that all

214 performed concurrently with two-dimensional optical imaging spectroscopy measuring hemodynamic chang

215 oked cortical hemodynamic responses, we used optical imaging spectroscopy to produce functional maps

216 Subsequent optical imaging studies confirmed fMRI activations, and

217 In vitro optical imaging studies found that AF was maintained by

218 In contrast to previous optical imaging studies in marmosets, we find clearly se

219 encephalography, magnetoencephalography, and optical imaging studies in patients and animal models ha

220 The T2-weighted MR and optical imaging studies revealed that the novel contrast

221 ctive functions of microglia with a focus on optical imaging studies that have revealed a role of the

222 Near Infrared (NIR) optical imaging studies using Alexa750-labeled heptameri

223 After systemic administration, optical imaging suggests that the micelles would passive

224 d controls was also performed by an external optical imaging system and autoradiography.

225 The limited resolution of a conventional optical imaging system stems from the fact that the fine

226 Because of the limited depth of field of optical imaging systems, one of the major challenges in

227 essment of metamaterial or metasurface-based optical imaging systems.

228 This optical imaging technique allows for monitoring of key m

229 localization microscopy (PLM), a pointillist optical imaging technique for the detection of nanoscale

230 y developed a new isotropic 1-mum resolution optical imaging technique termed micro-optical coherence

231 Here, we report a functional low-coherence optical imaging technique that allows in vivo depth-reso

232 optical responses, we developed a nonlinear optical imaging technique that allows rapid and all-opti

233 mography (OCT) is a noninvasive, label-free, optical imaging technique that can visualize live cells

234 Here we describe an optical imaging technique, called multispectral diffuse

235 spectra, label-free; however, when using any optical imaging technique, including SRS, there is an ad

236 roximately 43 to 360 nm using a micron-scale optical imaging technique.

237 processes of a single gold nanowire with an optical imaging technique.

238 tems that can be exploited, for example, for optical imaging techniques and different fluorescence as

239 f neuronal activity in the living brain with optical imaging techniques became feasible owing to the

240 Confocal and multiphoton optical imaging techniques have been powerful tools for

241 ,in vitroandin vivoelectrophysiological, and optical imaging techniques in genetically manipulated mi

242 A comprehensive review of studies evaluating optical imaging techniques is performed.

243 t the SF organization previously revealed by optical imaging techniques simply reflects non-stimulus-

244 monitoring of neural activity in vivo using optical imaging techniques.

245 ls emanating from the brain's surface, using optical imaging techniques.

246 ble-based ultrasound and ultrasound-mediated optical imaging techniques.

247 Emerging new optical imaging technologies can be integrated in the op

248 Conventional optical imaging technologies had led to misidentificatio

249 To review optical imaging technologies in urologic surgery aimed t

250 Optical imaging technologies that have reached the clini

251 However, optical imaging technology has heretofore lacked the com

252 is is made possible by integrating ultrafast optical imaging technology, self-focusing microfluidic t

253 l research along with the rapidly developing optical imaging technology.

254 ndow from ca. 600 to 1000 nm used, e.g., for optical imaging, the absolute Phi(f) of a set of NIR chr

255 ven the significant clinical implications of optical imaging, there is an urgent need to standardize

256 For nuclear imaging techniques and optical imaging these agents are absolutely necessary.

257 ing to offer high-resolution cross-sectional optical imaging through several millimeters to centimete

258 staging and pre-surgical planning, and with optical imaging to aid surgical removal of tumors, would

259 vasive in vivo PET/MRI to measure hypoxia or optical imaging to analyze ROS expression.

260 Here we used optical imaging to assess whether LFOs from vascular sig

261 ing cocaine intoxication, we used microprobe optical imaging to compare dynamic changes in intracellu

262 Here, we use optical imaging to determine that exogenously administer

263 erefore took advantage of recent advances in optical imaging to develop an assay to visualize collage

264 Here we used functional optical imaging to evaluate the cerebral responses to sy

265 cinoma (ccRCC) might benefit from the use of optical imaging to facilitate the intraoperative detecti

266 In this study, we used fluorescence optical imaging to map the release of Dox from Dox@PEG-H

267 We used wide-field optical imaging to measure changes in odor responses fol

268 Here, we used real-time integrative optical imaging to measure the diffusion properties of f

269 directly examine this relationship, we used optical imaging to observe odor-evoked activity in popul

270 using gene targeting, electrophysiology, and optical imaging to study the response properties of TAAR

271 We performed real-time optical imaging using a handheld dual-axes confocal fluo

272 readout using magnetic nanobeads (MNBs); (2) optical imaging using magnetic microbeads (MMBs).

273 the active form of MMP-12 can be detected by optical imaging using RXP470.1-based probes.

274 Voltage-sensitive dye optical imaging verified functional, bilateral whisker r

275 SIGNIFICANCE: Bioluminescent and fluorescent optical imaging was combined with X-ray and muCT imaging

276 At different times during tumor development, optical imaging was performed using a S100A9-specific pr

277 In vivo optical imaging was used to assess the distribution of l

278 Optical imaging was used to determine the cell coordinat

279 Using optical imaging we investigated blood flow regulation at

280 By optical imaging we observed a preferential localization

281 in vitro CSD in chick retina with intrinsic optical imaging, we addressed the role of NR2A in CSD.

282 After mapping the IAF, AAF, and AI by using optical imaging, we injected a distinct fluorescent trac

283 Using in vivo optical imaging, we observed that monocular deprivation

284 With sub-diffraction, three-dimensional, optical imaging, we visualised nsP3-positive structures

285 In vivo longitudinal MRI and optical imaging were performed after i.v. injection of t

286 IgG diffusion coefficients from integrative optical imaging were similar to those obtained from ex v

287 s likewise monitored in vivo by non-invasive optical imaging, where gel localization to the affected

288 in vivo imaging and analysis that widens the optical imaging window to the near-infrared spectrum, th

289 pressing ccRCC xenografts were visualized by optical imaging with (125)I-girentuximab-IRDye800CW.

290 Optical imaging with a fluorochrome-labeled version of t

291 Furthermore, intraoperative optical imaging with IntegriSense 680 allowed good delin

292 -dependent distribution of Pc-(L-CA4)2 using optical imaging with live mice.

293 Femtosecond nonlinear optical imaging with nanoscale spatial resolution would

294 Here, we combine dye-free optical imaging with optogenetic actuation to achieve dy

295 hey are essential marker tools for live-cell optical imaging with super-resolution.

296 Optical imaging with visible light provides high resolut

297 o circumvent these constraints, we performed optical imaging with voltage-sensitive dye (VSD) in an a

298 y means of intracellular recordings and fast optical imaging with voltage-sensitive dyes, we show tha

299 roduced melanin is an excellent reporter for optical imaging without addition of substrate.

300 al modalities including ultrasound, MRI, and optical imaging without the need for current or new intr