ライフサイエンスコーパス: biomedical

1 her domains (food, cosmetic, pharmaceutical, biomedical).

2 nd social aspects of the disease rather than biomedical.

3 for metal additive manufacturing (AM) in the biomedical and aerospace industries, variability in the

4 ultiple industries, including the aerospace, biomedical and automotive industries.

5 thus holds considerable promise for diverse biomedical and biodefense applications.

6 presenting at the Eye Clinic, Department of Biomedical and Clinical Sciences, Luigi Sacco Hospital,

7 nditions would be a significant advantage in biomedical and clinical studies where untouched and unmo

8 stomer is a highly promising biomaterial for biomedical and engineering applications.

9 may open up new avenues for 2D materials in biomedical and environmental applications.

10 diverse applications in microbiology and in biomedical and forensic studies of humans and other mult

11 mine and their derivatives for the safety of biomedical and health care fields in broad scales.

12 ological cells is critical in a diversity of biomedical and industrial applications.

13 sis of ssDNA that can be used for a range of biomedical and nanotechnology applications.

14 alization of various photonic, data storage, biomedical and optoelectronic applications.

15 gs, and behaviors are used in many fields of biomedical and social science.

16 , for policy, and for future research in the biomedical and social sciences.

17 porphyrins) promise to be of utility in many biomedical and technical applications.

18 mplemented and readily tailored to different biomedical and tissue engineering applications.

19 or molecular ions relevant to environmental, biomedical, and other related areas.

20 d pigs holds great promise for agricultural, biomedical, and pharmaceutical applications.

21 We demonstrate biomedical applications and verify cell viability in our

22 adhesives for soft substrates (including for biomedical applications and wearable electronics).

23 Their biomedical applications are contingent upon retaining th

24 However, biomedical applications are limited due to the low selec

25 microscopy (PAM) is uniquely positioned for biomedical applications because of its ability to visual

26 more stable than their RNA counterparts for biomedical applications but have the disadvantage of lac

27 that are better suited for drug delivery and biomedical applications by reducing the possible cytotox

28 has shown potential among a wide variety of biomedical applications especially within the context of

29 Multifunctional nanoparticles for biomedical applications have shown extraordinary potenti

30 ion, paving the way for broad industrial and biomedical applications in processing and securing 3D da

31 erties of CAP have led to its use in various biomedical applications including cancer therapy.

32 Hydrogels are used in a wide variety of biomedical applications including tissue engineering, bi

33 lly resilient and can be used for a range of biomedical applications including tissue engineering, re

34 hroic targeting of chiral nanostructures for biomedical applications is exemplified here as photodyna

35 rge library of candidates for developing the biomedical applications of assemblies of small molecules

36 light the various fabrication principles and biomedical applications of avidin-based nanoparticles in

37 A brief overview of other biomedical applications of nanoplatinum is also presente

38 The biomedical applications of YSNs including biosensing, bi

39 nsive overview of the design, synthesis, and biomedical applications of YSNs is presented.

40 xt of self-assembling nanocarriers usable in biomedical applications such as drug delivery, macroscop

41 s for mimicking biological membranes and for biomedical applications such as targeted drug and gene d

42 highly useful for a variety of research and biomedical applications, but current applications for na

43 examine these materials for their potential biomedical applications, cytotoxicity of nanofibers agai

44 up new possibilities across a wide range of biomedical applications, especially for the study of neu

45 ith enzyme-mimetic properties have found new biomedical applications, from biofilm disruption to prot

46 In the area of biomedical applications, graphene is especially involved

47 ucial for progressing several biological and biomedical applications, including in meso membrane prot

48 Nanomaterials have been developed for many biomedical applications, including medical imaging, drug

49 , has been increasingly used in a variety of biomedical applications, including tissue imaging of cli

50 In biomedical applications, nanoparticles have opened new h

51 ected to have a profound impact upon diverse biomedical applications, providing unlimited opportuniti

52 Appropriate for biomedical applications, the method could be used on an

53 sired properties for drug delivery and other biomedical applications, while avoiding the safety risks

54 viability, opens the door to a wide range of biomedical applications, yet this remains a significant

55 functional nanomaterials for biological and biomedical applications.

56 and cobalt-doped magnetite nanoparticles for biomedical applications.

57 on of cyanobacteria for biotechnological and biomedical applications.

58 ical to the utilization of nanotechnology in biomedical applications.

59 gning effective polymeric nanostructures for biomedical applications.

60 and to explore novel horizons for enzymes in biomedical applications.

61 his process can have a significant impact in biomedical applications.

62 ned structure that have a high potential for biomedical applications.

63 ls have emerged as a promising candidate for biomedical applications.

64 le played by nanotopography and chemistry in biomedical applications.

65 ful for imaging activated T cells in various biomedical applications.

66 rest as protective coatings from aviation to biomedical applications.

67 to produce mechanical actions on tissue for biomedical applications.

68 ranging from gravitational wave detection to biomedical applications.

69 tation for a variety of in vitro and in vivo biomedical applications.

70 of the inks, extending their possible use to biomedical applications.

71 re point of care devices and advancements in biomedical applications.

72 ted as multifunctional probes for a range of biomedical applications.

73 to be promising materials, particularly for biomedical applications.

74 size limitations reduce power efficiency for biomedical applications.

75 nergy storage, catalysis, environmental, and biomedical applications.

76 nting allows fabrication of 3D scaffolds for biomedical applications.

77 itivity and paves the way for many important biomedical applications.

78 biological delivery agents for research and biomedical applications.

79 ial to be used for both in vitro and in vivo biomedical applications.

80 N2 -diazirines as molecular imaging tags for biomedical applications.

81 for future tissue-engineering scaffolds and biomedical applications.

82 w technologies with chemical, biological and biomedical applications.

83 these nanoscale constructs open avenues for biomedical applications.

84 opal scaffolds have found widespread use in biomedical applications.

85 lls and organs is an important tool for many biomedical applications.

86 We demonstrated three distinct biomedical applications: (a) molecular imaging of blood

87 nlimited source of functional cells for many biomedical applications; however, the development of cel

88 integrated use of the multiple contemporary biomedical assays and technologies that motivate them, w

89 zed for a variety of applications, including biomedical, at low cost.

90 , skills, and motivation leading to improved biomedical, behavioural, and psychosocial outcomes.

91 series of applications including biological, biomedical, biotechnological, clinical and medical diagn

92 e in the current era in which data-intensive biomedical characterization of individuals is possible,

93 used in various fields including aerospace, biomedical, civil engineering, construction, protective

94 tic excesses, which might slow down creative biomedical clinical research without necessarily restric

95 ere significant at the 95% CI level, whereas biomedical coefficients were 0.00-0.10 SD and eight of 5

96 us support to the international genomics and biomedical communities through a web-based, open source

97 ng architecture, and the challenges that the biomedical community faces when trying to translate disc

98 There is an emerging consensus in the biomedical community for the use of large animal models

99 All mice will be readily available to the biomedical community.

100 expanded endeavour to share data across the biomedical community.

101 uable for improving how early-stage academic biomedical concepts are cultivated, culled, and manicure

102 o narrow the gap between needed and existing biomedical data science skills.

103 d is demonstrated on simulated data, various biomedical data sets and a clinical data set, to which d

104 ets, including simulated classifier outputs, biomedical data sets from the University of California,

105 y used constructs for encoding and analyzing biomedical data, but the absence of simple and consisten

106 In three case studies using published biomedical data, the results are compared with NSC and S

107 w, which involved searching 15 international biomedical databases for published and unpublished evide

108 Raman spectroscopy (SERS) in biological and biomedical detection schemes is feasible due to its exce

109 atal, and child health programmes focused on biomedical determinants might not sufficiently enhance c

110 ty and robustness as a potential implantable biomedical device.

111 ng), sensors (electrochemical, biochemical), biomedical devices (magnetic resonance imaging, X-ray co

112 sensors, bioelectronics and state-of-the-art biomedical devices in the future.

113 d wider applicability in many areas, such as biomedical devices or regenerative medicine.

114 to solve, on the way to the manufacturing of biomedical devices, including the lack of standardizatio

115 rse applications from printed electronics to biomedical devices.

116 robots, morphing antenna and RF devices, and biomedical devices.

117 These NPs labels have excellent potential in biomedical diagnostics, particularly when high signal to

118 tonomous sensing, distributed computing, and biomedical diagnostics.

119 o revolutionize many technologies, including biomedical diagnostics.

120 in the general domain are not generic in the biomedical domain due to their referents to specific cla

121 em and benefits from semantic information of biomedical entities.

122 w that semantic information is beneficial to biomedical entity normalization and can be well combined

123 ural network (CNN) architecture that regards biomedical entity normalization as a ranking problem and

124 Experiments on two benchmark datasets for biomedical entity normalization show that our proposed C

125 Most state-of-the-art biomedical entity normalization systems, such as rule-ba

126 portance for a wide range of applications in biomedical, environmental, and material sciences.

127 Cell cultures used in biomedical experiments come in the form of both sample b

128 or psoriasis and evaluated psychological and biomedical factors associated with non-adherence using m

129 porated in many emerging applications in the biomedical field including chemical sensing, biological

130 ts of the graphene family materials into the biomedical field.

131 uitable for applications in the industry and biomedical field.

132 potential applications in environmental and biomedical fields as well.

133 t interest in both the biopharmaceutical and biomedical fields.

134 n be expanded to a variety of biological and biomedical fields.

135 vant for optimizing antiretrovirals used for biomedical HIV prevention in women.

136 We discuss the contribution of new biomedical HIV prevention strategies and risk compensati

137 essed the effects of MMN and associations of biomedical (ie, maternal and child anthropometry and hae

138 Modern biomedical imaging has revolutionized life science by pr

139 he NIR-II window opens new opportunities for biomedical imaging of deep tissues with improved contras

140 cal coherence tomography (OCT) is a powerful biomedical imaging technology that relies on the coheren

141 cts, which is of interest in remote sensing, biomedical imaging, as well as monitoring of laser ablat

142 n alternative to MRI and X-ray tomography in biomedical imaging, due to its ability to afford high-re

143 t of a 3D OrbiSIMS instrument for label-free biomedical imaging.

144 unctions for many-channel data from emerging biomedical-imaging techniques.

145 ospace industry, cutting and drilling tools, biomedical implants, among many others.

146 Factor Ontology (EFO), and the Ontology for Biomedical Investigation (OBI).

147 transcriptional regulation, is intended for biomedical investigators who work on understanding the r

148 philosophy, however, can handle contemporary biomedical issues.

149 LTN), a heterogeneous network generated from biomedical linked datasets.

150 r objective was to systematically review the biomedical literature and synthesize data for prognostic

151 nomenclature, both in Vivo, and in Vitro in biomedical literature by using text mining methods and p

152 tilation population, only 14 articles in the biomedical literature have tested patient-level factors

153 ive terms (iTerm) that are obtained from the biomedical literature using the eGIFT text-mining system

154 To determine, using systematic review of the biomedical literature, whether pacing reduces risk of re

155 association with cancer, based on available biomedical literature.

156 ing sensing scheme will be useful for future biomedical microsystems.

157 c diversity, and have long been an important biomedical model for a variety of human diseases and in

158 Pigs are an important biomedical model species and a key source of animal prot

159 ntation of sexuality held (personhood versus biomedical model), nursing home staff adopted a role or

160 As a long-standing biomedical model, rats have been frequently used in stud

161 easure for interactions in pathways or other biomedical models.

162 d as an additional measure of confidence for biomedical models.

163 ly them to a large number of varied existing biomedical named entity datasets.

164 ily to automate routine and dangerous tasks, biomedical nanorobots are designed for complex, physiolo

165 ogress in the field of automated curation of biomedical networks and models, aided by text mining met

166 teronuclear spins, and thus is promising for biomedical NMR and MRI applications.

167 All biomedical (not psychological or social) outcomes in all

168 completed the CALERIE 2 study at Pennington Biomedical.Of 39 participants who were in the follow-up

169 enges in the development and applications of biomedical ontologies to represent and analyze experimen

170 schema involves mapping samples to terms in biomedical ontologies, labeling each sample with a sampl

171 brought together experimental biologists and biomedical ontologists to discuss solutions to organizin

172 CELLS at the the International Conference on Biomedical Ontology (ICBO).

173 on CELLS at the International Conference on Biomedical Ontology has brought together experimental bi

174 However, biomedical ontology-based named entity recognition conti

175 is the design of micro-/nanoscale robots for biomedical operations.

176 etal nanoparticles are of broad interest for biomedical, optical and catalytic applications.

177 their assembly behaviours and optimize their biomedical performances.

178 tructural and compositional information from biomedical, pharmaceutical, or clinical samples, among o

179 Samples of biomedical polyester (Max-Prene 955) and a fluoropolymer

180 Concurrently, water-rich biomedical polymers are elastic but weak.

181 ll AuNPs open up a pathway to maximize their biomedical potentials and minimize their toxicity in the

182 xplores the parallels with the 1990s and the biomedical preprint movement of today.

183 ticles and cells is critical to a variety of biomedical processing steps for medical diagnostics and

184 us problem hampering their widespread use in biomedical products.

185 for matching nutritional needs to individual biomedical profiles and the issues surrounding them.

186 date, many reviews have been focused on the biomedical properties and applications of CS-based nanoc

187 of investment and for funding innovation in biomedical R&D.

188 of IDUP to discover ligands for proteins of biomedical relevance.

189 experiments are increasingly commonplace in biomedical research and add layers of complexity to expe

190 uld have a significant impact in fundamental biomedical research and clinical applications.

191 es in the field of thiol-reactive probes for biomedical research and diagnostics, emphasizing the nee

192 widespread use for toxicological screening, biomedical research and pharmaceutical studies, to date

193 hod can be widely applied in biochemical and biomedical research and provide insights into elucidatin

194 Pluripotent stem cells have broad utility in biomedical research and their molecular regulation has t

195 avenue for drug delivery in a broad range of biomedical research and therapeutic applications.

196 s are an ideal animal model for a variety of biomedical research areas such as cancer, virology, circ

197 al Marsden and Institute for Cancer Research Biomedical Research Centre and is coordinated by the Med

198 also supported and partly funded by UCLH/UCL Biomedical Research Centre and The Royal Marsden and Ins

199 ings deserve much broader recognition by the biomedical research community and are highlighted here,

200 The biomedical research enterprise depends on the fair and o

201 been raised about the sustainability of the biomedical research enterprise in the United States.

202 forces and improve the sustainability of the biomedical research enterprise.

203 fish is fast becoming a species of choice in biomedical research for the investigation of functional

204 As biomedical research has evolved over the past century, t

205 nslational processes for technology-oriented biomedical research have led to some prominent and frequ

206 The pig is recognized as a valuable model in biomedical research in addition to its agricultural impo

207 The field is needed to advance cutting-edge biomedical research in domains in which the benefits to

208 nt annotation methods in order to facilitate biomedical research in epigenomics.

209 As biomedical research increasingly relies on computational

210 distinction between basic and translational biomedical research is an anachronism.

211 The thesis presented here is that biomedical research is based on the trusted exchange of

212 A cornerstone of modern biomedical research is the use of animal models to study

213 ogies offer new options for developing novel biomedical research models and for gene and stem cell ba

214 ning material derived from animal studies in biomedical research more visible and accessible to the s

215 hed analytical method that was first used in biomedical research over 20 years ago.

216 promote understanding of a host of important biomedical research questions for which hamsters are an

217 Biomedical research relies on the fast and accurate prof

218 Many biomedical research studies use captive animals to model

219 olymer-based nanodiscs are valuable tools in biomedical research that can offer a detergent-free solu

220 There is a continued desire in biomedical research to reduce the number and duration of

221 ok at biological matrices, in particular for biomedical research, although there is still a lot of de

222 easingly used for synthesis of evidence from biomedical research, and often include an assessment of

223 n for transplantation, transfusion and basic biomedical research, as well as technological applicatio

224 SMLM) has become a powerful imaging tool for biomedical research, but it is mostly available in imagi

225 In the field of biomedical research, deconvolution analysis is applied t

226 Detecting such genes is important in biomedical research, e.g. when identifying genes respons

227 roscopy and tomography techniques applied to biomedical research, especially the study on organism-le

228 sed metabolomics becomes more widely used in biomedical research, it is important to revisit existing

229 today's environment of shrinking budgets for biomedical research, minimizing regulatory burden-partic

230 Despite decades of clinical and biomedical research, the pathogenesis of sepsis and its

231 In addition to its applications in biomedical research, the rapid readout of our platform w

232 several applications of these nanoprobes for biomedical research, with a focus on intraoperative canc

233 The UK Biobank is a unique resource for biomedical research, with extensive phenotypic and genet

234 nities to address long standing questions in biomedical research.

235 luciferase-luciferin pairs is widely used in biomedical research.

236 dditional image analysis applications across biomedical research.

237 rly in vivo, provides an invaluable tool for biomedical research.

238 alytical chemistry in the context of current biomedical research.

239 molecular specificity is highly desirable in biomedical research.

240 al samples, which is useful to many areas of biomedical research.

241 have been sequenced, contributing deeply to biomedical research.

242 manner is of great interest in the field of biomedical research.

243 philosophy that will accompany and supervise biomedical research.

244 increasingly being applied in many fields of biomedical research.

245 tools from the human proteome to facilitate biomedical research.

246 ficient mice have been used predominantly in biomedical research.

247 e of ethylbenzene, a compound of interest in biomedical research.

248 of pigs in both agricultural production and biomedical research.

249 a species that has been used extensively in biomedical research.

250 ng programmable nucleases has revolutionized biomedical research.

251 their kicks by solving puzzles that advance biomedical research.

252 miRNAs and diseases is a critical problem in biomedical research.

253 can be extensively applied in biological and biomedical research.

254 ology play a critical role in bioscience and biomedical research.

255 particles, thus offering new applications in biomedical research.

256 ivery tools for therapeutic applications and biomedical research.

257 , renewed strategies for vector control, and biomedical research.

258 bute billions of dollars annually to support biomedical research.

259 ential components of experimental designs in biomedical research.

260 nome-editing applications has revolutionized biomedical research.

261 Healthy volunteers are crucial for biomedical research.

262 , reproducibility, and open science in basic biomedical research.

263 tation, that can benefit both physicians and biomedical researchers to better diagnose and monitor di

264 id adoption of CRISPR technology has enabled biomedical researchers to conduct CRISPR-based genetic s

265 pts and pipelines, making it problematic for biomedical researchers.

266 se organizations, registries, clinical labs, biomedical resources, and clinical software tools and wi

267 A PhD in biomedical science and the critical thinking skills that

268 Biomedical science benefits when plain language allows p

269 The United States has been a leader in biomedical science for decades, in large part because of

270 reduce future US discoveries in fundamental biomedical science.

271 his type of memory has exciting potential in biomedical sciences as data storage can be coupled to se

272 empirical studies throughout the social and biomedical sciences focus only on very narrow outcomes s

273 osophical shift has occurred in the field of biomedical sciences from treatment of late-stage disease

274 advantages, its translational application in biomedical sciences has been limited.

275 anotomography, FIB-nt) typically used in the biomedical sciences to the study of natural flocculated

276 nt, SPR application in stem cell biology and biomedical sciences was underused.

277 entific problems that can be accessed in the biomedical sciences.

278 act that cuts across most disciplines of the biomedical sciences.

279 Our work opens new perspectives for PAM in biomedical sciences.Photoacoustic microscopy allows for

280 arable electronics devices for a plethora of biomedical sensing applications.

281 ields including communications, chemical and biomedical sensing, signal processing, multiprocessor ne

282 Yet suitable biomedical sensors to monitor body fat burn rates in sit

283 are useful for applications in the fields of biomedical sensors, spectroscopy, fluorescence lifetime

284 as enabled sensitive sensing capabilities in biomedical settings and the addition of an MOF coating o

285 hophysiological conditions with considerable biomedical significance; one example is the formation of

286 open data to make breakthroughs that are of biomedical significance; second, to illustrate that fund

287 has recently re-emerged as a focal point of biomedical studies and, as a result, developmental biolo

288 unication, superbright solid-state lighting, biomedical studies, fluorescence, etc.

289 network encoding knowledge from millions of biomedical studies.

290 h questions in seven domains: a) mechanistic biomedical studies; b) exposure science; c) epidemiology

291 hanical systems to large scale aerospace and biomedical systems.

292 In recent years, vast advances in biomedical technologies and comprehensive sequencing hav

293 Current biomedical technologies, which seek to design an implant

294 thout the availability of vaccines and other biomedical technologies.

295 also of practical importance for energy and biomedical technologies.

296 te textual uncertainty being acknowledged in biomedical text mining as an attribute of text mined int

297 Named entity recognition is critical for biomedical text mining, where it is not unusual to find

298 s such as geological subsurface modelling or biomedical tissue analysis.

299 ding proteins, which in turn complicates the biomedical use of this class of biomolecules.

300 degraded by proteases, which may limit their biomedical utility.