ライフサイエンスコーパス: deep

1 (0.427 mm(2) vs. 0.275 mm(2); P < 0.001) and deep (0.616 mm(2) vs. 0.372 mm(2); P < 0.001) vascular n

2 hat had colonized multiple wood falls in the deep ( 1600 m) NE Pacific Ocean.

3 7.68 mm(-1) vs. 21.55 mm(-1); P < 0.001) and deep (21.19 mm(-1) vs. 24.38 mm(-1); P < 0.001) networks

4 d a sensitivity to diethyl ethylphosphonate (DEEP, a simulant of the nerve agent sarin) of at least 5

5 llowing the financial crisis of 2007-2008, a deep analogy between the origins of instability in finan

6 s is more complex than a simple dichotomy of deep and shallow diving states, and labelling all subsur

7 clinical outcome or complication rate after deep anterior lamellar keratoplasty (DALK).

8 These relationships suggest that the deep arc crust must have primarily involved significant

9 n a volume of 900 x 900 x 260 mum located as deep as 380 mum in the mouse cortex or hippocampus at a

10 dges (GZWs) on the outer shelf of the Whales Deep Basin.

11 Low-yielding, deep bedrock wells may require large contributing areas

12 tosynthesis, to the evolution of reefs or of deep bioturbation, to the rise of pelagic calcifiers - h

13 and anti-Stokes shifting from the far-red to deep-blue region in metal-free triplet-triplet annihilat

14 mparative studies of the efficacy of 'awake' deep brain stimulation (DBS) for Parkinson's disease (PD

15 Deep brain stimulation (DBS) has been used to treat a va

16 arge-balanced pulses used by the standard HF deep brain stimulation (DBS) is modulated by the smooth

17 Deep brain stimulation (DBS) of the subthalamic nucleus

18 ement of focal lesions or the application of deep brain stimulation (DBS) within circuits that modula

19 lysis of responders to subcallosal cingulate deep brain stimulation (SCC DBS) for depression demonstr

20 Conventional deep brain stimulation did not change the distribution o

21 Furthermore, deep brain stimulation directed to the interposed cerebe

22 ncephalogram and local field potentials from deep brain stimulation electrodes in 9 Parkinson's disea

23 deep brain stimulation, whereas conventional deep brain stimulation globally suppressed beta activity

24 us epilepticus, suggesting a pivotal role of deep brain stimulation in the treatment response.

25 Although both adaptive and conventional deep brain stimulation suppressed mean beta activity amp

26 acy across different clinical indications of deep brain stimulation surgery.

27 Sustained locking of deep brain stimulation to a particular phase of tremor a

28 erventions, such as intrathecal baclofen and deep brain stimulation, are promising options.

29 ive effect on burst duration during adaptive deep brain stimulation, whereas conventional deep brain

30 rary lead externalization during surgery for deep brain stimulation.

31 movements while undergoing implantation of a deep brain stimulator.

32 atable and temporarily precise activation of deep-brain circuits without the need for surgical implan

33 etic circuit analysis and cell type-specific deep-brain recordings in behaving mice, we show that ore

34 te matter (WM) pathways, and the efficacy of deep-brain stimulation relies upon activation of WM.

35 support the adjunctive use of neuroleptics, deep-brain stimulation, and neurosurgical ablation for t

36 ality 16S V1-V2 amplicons) we identified two deep-branching plastid lineages based on 16S rRNA gene d

37 Macular vessel density of the deep capillary plexus in the 6 x 6-mm scans was also con

38 interior workings of the early Earth and the deep carbon cycle.

39 ethylation QTL, brain expression featured in deep categorization of brain areas and developmental sta

40 tible and dissolvable hyaluronic acid with a deep cave formed in the basal portion of each microneedl

41 y inducing tissue contraction through radial deep cell intercalations.

42 Many species of raptors have two foveae, a deep central fovea and a shallower temporal fovea.

43 nsmission at synapses from Purkinje cells to deep cerebellar nuclei and at vestibular synapses in mic

44 We performed a deep characterization of the zebrafish mutant Chihuahua,

45 nes may provide an environment that supports deep chemolithoautotrophic life.

46 nificantly improve the modeling of mesoscale deep convection is tested over the Indian monsoon region

47 A deep convolutional auto-encoder network was trained to i

48 In its core DeepBound employs deep convolutional neural fields to learn the hidden dis

49 a regulatory code of DNA methylation using a deep convolutional neural network and uses this network

50 el combination of two powerful technologies: deep convolutional neural networks (DCNNs) and panoramic

51 and is mediated by diffusion of potassium to deep cortical layers.

52 n mass-spectrometry-based technologies allow deep coverage of protein expression.

53 cular abnormalities at superficial (SCP) and deep (DCP) capillary plexuses and choriocapillaris (CC)

54 eviously, the observed phasing difference of deep delta(18)Oc likely reflects early warming of the de

55 tly related to some yet unaccounted extended deep deposits but mainly to extended but shallow peat in

56 s, and labelling all subsurface behaviour as deep dives or shallow dives discounts a significant amou

57 The resulting naivety has made this cryptic, deep-diving cetacean highly susceptible to disturbance,

58 The deep dorsal horn is a poorly characterized spinal cord r

59 ug transporter AcrB separates the access and deep drug binding pockets in every protomer.

60 rs which inputs are suppressed, leading to a deep dynamic reshaping of neural receptive fields going

61 But how carbon migrates in the deep Earth is not well understood.

62 Here, we show that deep ecosystems respond quickly to field operations asso

63 ted, potentially leading to both a broad and deep engagement in science.

64 with very high pattern density and was made deep enough to grow a thick AlN template with high cryst

65 d from 20 fresh OSCC biopsies (cases) and 20 deep-epithelium swabs (matched control subjects) was seq

66 Deep eutectic solvent (DES) formed by mixing of choline

67 e of a series of choline chloride/urea/water deep eutectic solvent mixtures was characterized across

68 ed out in choline chloride urea as a natural deep eutectic solvent.

69 This fundamental understanding of deep eutectic-solvothermal methodology will enable futur

70 The aluminum-based deep-eutectic solvent demonstrated a significantly enhan

71 Herein, an aluminum-based deep-eutectic-solvent is investigated as an anolyte for

72 model systems for interrogating the types of deep evolutionary changes that have restructured develop

73 hemical changes of oil used continuously for deep-fat frying of chicken drumsticks.

74 Deep-fat frying of the cowpea pastes decreased their TPC

75 lot whales is often described by two states; deep foraging and shallow, non-foraging dives.

76 ts underwent measurements of superficial and deep foveal and parafoveal vessel density (FVD, PFVD) an

77 f ripening on the formation of acrylamide in deep fried plantain chips made from Nendran variety (Mus

78 Fresh potatoes were intermittently deep-fried up to recommended limits (175 degrees C, 8h/d

79 ore frequent bilateral, large, brainstem and deep grey matter lesions.

80 bacteria, among members residing in an ultra-deep hadal environment.

81 e layer graphene as a result of the decay of deep holes in the valence band.

82 However, deep hospital sampling is frequently required due to the

83 space and time with fluid injections from a deep hot source, inferred to represent geochemical and t

84 ng between both variables is observed during deep hypothermic CPB in all subjects.

85 Nominally anhydrous minerals formed deep in the mantle and transported to the Earth's surfac

86 Superficial, deep-incisional, and organ-space SSIs, as defined by NSQ

87 ch when modified by DCCD interferes with the deep insertion of a Tat signal peptide into the TatBC re

88 zed heating by femtosecond laser irradiation deep inside 35Li2O-35Nb2O5-30SiO2 glass.

89 r-based fabrication of complex 3D structures deep inside silicon using 1 microm-sized dots and rod-li

90 the motion of particles from the surface to deep inside the bed, and find that armour develops by tw

91 lity to deliver NIR light to a tumor located deep inside the body.

92 understanding heat conduction in the Earth's deep interior.

93 il), which is a beta-hairpin that penetrates deep into the core of the large ribosomal subunit.

94 Although the wound H2O2 gradient reaches deep into the tissue, it likely overcomes antioxidant ba

95 edial prefrontal cortex (mPFC), particularly deep-layer projection neurons, as a potential locus for

96 retrograde tracer into the intermediate and deep layers of the SCm and SCl, and thereby determined t

97 in the binarized flow index (superficial and deep layers), both including and excluding the FAZ area.

98 erating characteristics curve (AUC) than non-deep learning (P = 0.0007 < 0.001).

99 and argue that computer vision - especially deep learning - may offer a solution for the lack of a s

100 an artificial intelligence (AI) tool using a deep learning algorithm for detecting hemorrhage, mass e

101 agments exist, they can be extracted using a deep learning algorithm, and they bear an interesting se

102 ce of the existing methods by implementing a Deep Learning approach called Convolutional Neural Netwo

103 Although deep learning approaches have had tremendous success in

104 We expect that similar deep learning architectures that allow learning nonlinea

105 We design four different deep learning architectures to predict protein torsion a

106 Deep learning as the cutting-edge machine learning metho

107 This work demonstrates that deep learning can be achieved using segregated dendritic

108 The advanced techniques of Deep Learning can be used to identify the significance o

109 We sought to determine if deep learning could be utilized to distinguish normal OC

110 s a reference set for future applications of deep learning enhanced algorithms in the nanoscience dom

111 n fully automated detection of PCa patients, deep learning had a statistically higher area under the

112 y, an automated segmentation method based on deep learning has been proposed for TKV computation on c

113 dern artificial intelligence methods such as deep learning have the potential to supplement pathologi

114 Deep learning is a group of machine learning algorithms

115 The AUCs were 0.84 (95% CI 0.78-0.89) for deep learning method and 0.70 (95% CI 0.63-0.77) for non

116 DeepWalk, a deep learning method, is adopted in this study to calcul

117 g method and 0.70 (95% CI 0.63-0.77) for non-deep learning method, respectively.

118 sampling of the design space inputs can make deep learning methods more competitive in accuracy, whil

119 ng a potential revolution ignited by the new deep learning methods.

120 ur hypothesis that the 1st hidden layer of a deep learning model trained on gene expression data may

121 End-to-end trained deep learning networks consistently outperform methods u

122 Deep learning techniques achieve high accuracy and is ef

123 promise and the limitations of contemporary deep learning techniques.

124 developed a computational approach based on deep learning that automatically scores HER2, a biomarke

125 Since deep learning was introduced to the field of bioinformat

126 pervised structural feature extraction using deep learning, in combination with unsupervised clusteri

127 Applying a deep learning-based automated assessment of AMD from fun

128 lution by combining fluorescence imaging and deep learning.

129 higher-order representations-the hallmark of deep learning.

130 raphical models, feature space embedding and deep learning.

131 We propose an alternative approach to "deep" learning that is based on computational ecologies

132 Purpose To compare the performance of a deep-learning bone age assessment model based on hand ra

133 of 378 degrees C have been injvestigated by deep level transient spectroscopy.

134 Deep-level defects in n-type GaAs1-x Bi x having 0 </= x

135 We also show that at deep levels of unconsciousness where movement ceases, co

136 tive track to improve the imaging quality of deep-lying vessels inside the abdominal cavity.

137 h-(3)He/(4)He material is entrained from the deep mantle only by the hottest, most buoyant plumes.

138 Deep marine oil spills like the Deepwater Horizon (DWH)

139 The demonstrated application of deep metric learning to large-scale chemical genetics pr

140 surface heat fluxes in regions with shallow (deep) mixed layer.

141 Creating a cDNA library for deep mRNA sequencing (mRNAseq) is generally done by rand

142 ctal cancer metastatic process, we performed deep mutational analysis of 676 genes in 107 stages II t

143 We performed a virtual deep mutational scan-revealing the individual and pairwi

144 tware that can empower researchers analyzing deep mutational scanning data.

145 Deep neural network approaches, which have been forwarde

146 nt, and the role of inhibition, based on our deep neural network model.

147 We present a deep neural network that prospectively predicts lineage

148 troduce key elements of human cognition into deep neural networks and future artificial-intelligence

149 nic imaging databases along with advances in deep neural networks with machine learning has provided

150 VNI and African VNB lineages, highlighted a deep, nonrecombining split in VNB (herein, VNBI and VNBI

151 a(18)Oc likely reflects early warming of the deep northern North Atlantic by approximately 1.4 degree

152 the average residence time of carbon in the deep ocean at the LGM.

153 The mechanisms by which the deep ocean circulation changed, however, are still uncle

154 The large-scale reorganization of deep ocean circulation in the Atlantic involving changes

155 DDT) and its metabolites in intermediate and deep ocean water masses.

156 the volcano-induced dynamic chemistry of the deep ocean, here we demonstrate the Leidenfrost dynamic

157 ces of dissolved organic carbon (DOC) to the deep ocean, yet the contribution from advective settings

158 regarding the oil's fate and effects in the deep ocean.

159 om predators, particularly for fishes of the deep ocean.

160 ne food webs and the flux of carbon into the deep ocean.

161 r of carbon to higher trophic levels and the deep ocean.

162 0 individuals m(-2) in lakes up to 70 meters deep on all continents except Antarctica.

163 Optical clearing methods can facilitate deep optical imaging in biological tissue by reducing li

164 , CO2 , and CH4 primarily being sourced from deep peat horizons (2-4 m) near the mire's outlet.

165 angling chains of the microgel rather than a deep penetration of the enzyme into the microgels.

166 ing ability with high spatial resolution and deep penetration via in vivo NIRF/PA dual-modal imaging.

167 ctures revealed that HLA-C*06:02 possesses a deep peptide-binding groove comprising two electronegati

168 spectroscopy through the rapid appearance of deep pink color.

169 Overall PFVD of the deep plexus was significantly lower in CRVO and BRVO gro

170 mporal and nasal parafoveal subfields of the deep plexus with sickle SC or proliferative retinopathy.

171 Evolutionary prediction is of deep practical and philosophical importance.

172 To address the issue that deep probabilistic graphical models requires large numbe

173 thylmercury by 214 nmol m(-2) in the Gotland Deep, probably via attachment of the mercury compounds t

174 chromatography is a common means to achieve deep proteome coverage.

175 Deep quantitative proteomics combined with transcriptome

176 nd at 500 nm, tunable excitation band in the deep red/near-infrared window, and tunable emission.

177 o-3-hydroxyphenyl)squaraine core with bright deep-red fluorescence and excellent photostability, (b)

178 Modulating deep regions of the brain with noninvasive technology ha

179 12 from GenBank in an attempt to reconstruct deep relationships and reveal temporal diversification o

180 re likely due to the episodic ventilation of deep reservoirs rather than warming-induced gas hydrate

181 By using very deep residual networks, we can accurately model contact

182 ween groups: mean (SD) vessel density of the deep retinal capillary plexus was 54.4% (4.7%) in the am

183 d en face OCTA images of the superficial and deep retinal vasculatures using vessel-based and FAZ-bas

184 Deep roots connect deep soil/groundwater to the atmosphe

185 0.8]; range, 0-68); abnormal sensitivity and deep scotomas were more prevalent in the central macula.

186 nodules are a marine resource considered for deep sea mining.

187 s, as much as four times more than in low OC deep sea sediments.

188 In the deep sea, the sense of time is dependent on geophysical

189 of carbon dioxide by 'pumping' carbon to the deep sea.

190 a model chemosynthesizing bacterium from the deep sea.

191 e a sister clade among current vent and seep deep-sea Ampharetinae.

192 Comparisons with deep-sea data from the same region suggest little exchan

193 demonstrate their usefulness as sensors in a deep-sea environment.

194 eport on the first observations of the giant deep-sea octopus Haliphron atlanticus with prey.

195 nd poecilosclerid sponges from asphalt-rich, deep-sea oil seeps at Campeche Knolls in the southern Gu

196 Here we analyze a new high-resolution deep-sea oxygen isotope (delta(18)O) record from the Sou

197 Deep-sea scleractinian coral reefs are protected ecologi

198 The absence of observations of deep-sea scleractinian reefs in the Central and Northeas

199 may be suitable ecotoxicological proxies for deep-sea species, dependent on adaptation to habitats wi

200 ps integrate the biogeography of coastal and deep-sea, pelagic and benthic environments, and show how

201 ant ecological trait from the surface to the deep-sea.

202 We show a very low-density, deep-seated upwelling that ascends beneath the Reunion h

203 ized system discriminated between light- and deep-sedation states with an average accuracy of 75%.

204 elated applications, including prediction of deep seismic activity and immobilization of nuclear wast

205 ith any other genetic variants; we performed deep sequence analysis of APC in at least 2 adenomas or

206 Deep sequence-based imputation can enhance the discovery

207 We deep-sequence longitudinal samples from four immunocompr

208 Chromatin immunoprecipitation followed by deep sequencing (ChIP-seq) and ChIP-reChIP-seq analyses

209 as chromatin immunoprecipitation followed by deep sequencing (ChIP-seq).

210 constructed a cassava haplotype map through deep sequencing 241 diverse accessions and identified >2

211 yte miRNome and miRISC-associated miRNome by deep sequencing analysis of primary human chondrocytes.

212 large-scale mapping of the branchpoints from deep sequencing data in three different species and in t

213 With the rapidly increasing volume of deep sequencing data, more efficient algorithms and data

214 Deep sequencing facilitated identification of highly exp

215 Deep sequencing of HIV reverse transcriptase (RT) was pe

216 In conclusion, 454-deep sequencing of liver and plasma compartments in trea

217 Deep sequencing of nasopharyngeal samples produced parti

218 Using information from deep sequencing of patients with neurological or psychia

219 Deep sequencing of size-selected DNase I-treated chromat

220 Deep sequencing of the tumor genome showed a highly hete

221 icial linkages by primer extension, PCR, and deep sequencing reveals that a subtle interplay between

222 With the rapid development of deep sequencing techniques in the recent years, enhancer

223 employed the next generation high-throughput deep sequencing technology to sequence all small RNAs an

224 Deep sequencing was applied to blood plasma samples from

225 fied by analyzing reads from high-throughput deep sequencing.

226 imens for microRNA expression analysis using deep sequencing.

227 with zero transposon integrations in HPRT by deep sequencing.

228 without a history of periodontitis through a deep-sequencing approach.

229 Targeted deep-sequencing confirmed AS-PCR findings, and identifie

230 Through amplicon deep-sequencing placental malaria samples from women in

231 the litchi small RNA population with various deep-sequencing techniques and in-depth bioinformatic an

232 he surface following hydraulic fracturing of deep shale formations to retrieve oil and natural gas.

233 Here, we perform deep single-cell RNA sequencing on 5,063 single T cells

234 models whose ocean is represented by a 50-m-deep slab ocean mixed layer with no interactive currents

235 Up and Down states are a defining feature of deep sleep, but their function is not well understood.

236 converting to subtropical drylands, and that deep soil layers could be increasingly dry during the gr

237 Deep roots connect deep soil/groundwater to the atmosphere, thus influencin

238 Warming impairs juniper uptake of deep sources during extended dry periods.

239 lantic by approximately 1.4 degrees C, while deep Southern Ocean temperature remains largely unchange

240 variety of proxies showing the incursion of deep Southern Ocean waters into the tropics and subtropi

241 < 0.01) for SSI rates in superficial space, deep space, and organ space, respectively.

242 andardized respiratory cycles consisted of a deep standardized inspiration followed by passive exhala

243 l of 80 consecutive keratoconic eyes without deep stromal scarring, with at least 1 postoperative exa

244 cycling and biogeochemical reactions in the deep subsurface and thus may be expected to influence th

245 cing its quarter wavelength resonance in the deep-subwavelength regime.

246 Finally, we illustrate that deep survival models can successfully transfer informati

247 Ultra-deep targeted next generation sequencing of pretreatment

248 Oc records while assuming uniform changes in deep temperatures.

249 Its deep tissue imaging capability leads to less sectioning,

250 new opportunities for biomedical imaging of deep tissues with improved contrast.

251 Antares2, which offers improved signal from deep tissues.

252 Here, we report a deep transcriptional, oncogenic network regulated by miR

253 Complementing genome sequence with deep transcriptome and proteome data could enable more a

254 s mucosal healing (CDEIS <4) with absence of deep ulcers 48 weeks after randomisation.

255 cs properties of the AlN/GaN DA for mid- and deep-ultraviolet (UV) applications.

256 Then, we fabricated and characterized a deep-ultraviolet light-emitting diode (UV-LED) device us

257 As in many deep underground environments, the microbial communities

258 It is demonstrated that SERS provides a deep understanding of living cells as well as their micr

259 derlying Alzheimer's disease (AD) requires a deep understanding of mechanisms affecting complex brain

260 of E dimers as the key antigenic target, and deep understanding of neutralizing mechanisms, multiple

261 er, provide important information to achieve deep understanding of the complex genetic structures of

262 port the fabrication and characterization of deep UV MgZnO semiconductor lasers.

263 Deep UV resonance Raman spectroscopy is introduced as an

264 ed in the realization of electrically driven deep UV semiconductor lasers to date.

265 and using this high quality AlN template: a deep UV-LED device fabricated and showed a strong single

266 tions, allowing for further re-growth of the deep UV-LED device.

267 antum efficiency (EQE) of about 0.03%, for a deep UV-LED grown on Si substrate.

268 the internal quantum efficiency for mid- and deep-UV device application.

269 e region design for high efficiency mid- and deep-UV device applications.

270 A novel time-lapse synchrotron deep-UV microscopy methodology was developed that made u

271 irst time, we experimentally demonstrate the deep-UV SH generations (SHGs) by combined degenerate fou

272 Then, they serve as the secondary pump, and deep-UV SHs are generated within the wavelength range of

273 ngle (25)Mg ions confined in a Paul trap, at deep-UV wavelengths.

274 ns, indicate that between 80 and 100% of the deep valence-band holes in graphene are filled via an Au

275 al macula, an area where the superficial and deep vascular plexuses terminate.

276 ct on venous thromboembolism (which includes deep vein thrombosis and pulmonary embolism), but the ev

277 y, independent of the presence or absence of deep vein thrombosis or pulmonary embolism at the time o

278 edical complications (myocardial infarction, deep vein thrombosis, pulmonary embolism, and pneumonia)

279 14.5% mortality, 43.7% disability, and 9.8% deep vein thrombosis.

280 requently develops in patients with proximal deep-vein thrombosis despite treatment with anticoagulan

281 icacy outcome was a composite of symptomatic deep-vein thrombosis or pulmonary embolism, progression

282 heart failure, atrial fibrillation, stroke, deep venous thrombosis, cardiovascular death, and total

283 .9%) with ischemic stroke, and 1 (0.1%) with deep venous thrombosis; 28 patients (2.4%) died for card

284 Plio-Pleistocene transition, as Circumpolar Deep Water (CDW) became the common source.

285 Atlantic involving changes in North Atlantic Deep Water (NADW) and Antarctic Bottom Water (AABW) play

286 Modeled deep water concentrations below 200 m (5-15 pg/L) were s

287 otentially explain the convergence of global deep water mass properties at the Plio-Pleistocene trans

288 While no commercial-scale deep water wind farms yet exist, our results suggest tha

289 es to the very rare data on OCPs in the vast deep-water compartments and combined with surface water

290 ir-sea heat exchange drives the formation of deep waters and the surface circulation of warm waters a

291 rate that ventilation of EEP thermocline and deep waters occurred synchronously during the last degla

292 Upwelling of global deep waters to the sea surface in the Southern Ocean clo

293 are physically demanding, require travel to deep waters, and are considered more sustainable.

294 rasting with heavier isotopic composition in deep waters.

295 riassic (221.3+/-7.0-206.2+/-4.2 Ma) through deep weathering in a warm climate and subsequent partial

296 We investigated the hydration state of the deep, well-accessible hydrophobic S1' specificity pocket

297 To date, this study is the first deep WGS effort on children with JIA and provides useful

298 mputation based on the off-target reads from deep whole-exome sequencing.

299 ty with high spatial and temporal resolution deep within scattering brain tissues.

300 PepQ folding intermediate and help retain it deep within the GroEL cavity, resulting in reduced compa