ライフサイエンスコーパス: nanotechnology

1 oscopically localized detection based on DNA nanotechnology.

2 ill find application as engines in molecular nanotechnology.

3 vidin-biotin system a versatile platform for nanotechnology.

4 ronment accompanying with the development of nanotechnology.

5 inspired by NPCs, and their applications in nanotechnology.

6 ntial applications in energy utilization and nanotechnology.

7 mbling nanoparticles, useful in medicine and nanotechnology.

8 tions to expand the assembly language of DNA nanotechnology.

9 ently, products generated through the use of nanotechnology.

10 bstacle to realizing new applications of DNA nanotechnology.

11 ossover (DX) tiles, a canonical motif in DNA nanotechnology.

12 c level precision is one of the key goals of nanotechnology.

13 functional materials within the area of DNA nanotechnology.

14 pment of advanced materials for medicine and nanotechnology.

15 solid-state physics, quantum computation and nanotechnology.

16 metal-oxide-semiconductor (CMOS) compatible nanotechnology.

17 lop protein-inspired assembly modules in DNA nanotechnology.

18 tackle current challenges in biomedicine and nanotechnology.

19 iral" paradigm over the field of dynamic DNA nanotechnology.

20 rd the development of modern nanoscience and nanotechnology.

21 They are also an achievable goal of nanotechnology.

22 ons across photonics, material sciences, and nanotechnology.

23 us functional applications in many fields of nanotechnology.

24 hallenges and opportunities for cellular DNA nanotechnology.

25 des for applications in synthetic biology or nanotechnology.

26 s continues to be a key need and interest in nanotechnology.

27 es is currently a topic of large interest in nanotechnology.

28 mic level has given rise to modern bottom-up nanotechnology.

29 nge for today and tomorrow's nanoscience and nanotechnology.

30 may be relevant for some applications of DNA nanotechnology.

31 ontrol that is currently associated with DNA nanotechnology.

32 ng immunoassays/sensors that are reformed by Nanotechnology.

33 ) was developed using surface imprinting and nanotechnology.

34 sing a combination of surface imprinting and nanotechnology.

35 n all-time high due to the emerging field of nanotechnology.

36 als science, geology, biology, tribology and nanotechnology.

37 at bPoNAs will have utility in both bio- and nanotechnology.

38 tionalizing VLPs using the principles of DNA nanotechnology.

39 entions to communicate with the public about nanotechnology.

40 ties for the development of aqueous adaptive nanotechnology.

41 s promising multifunctional 2D materials for nanotechnology.

42 espread applications in chemical biology and nanotechnology.

43 , and should be valuable to the field of DNA nanotechnology.

44 ing targets for supramolecular chemistry and nanotechnology.

45 hlight important recent advances relevant to nanotechnology.

46 ogues in biology research, (epi)genetics and nanotechnology.

47 space and material scalability for bottom-up nanotechnology.

48 terest in biotechnology applications such as nanotechnology.

49 ecome central building blocks in dynamic DNA nanotechnology.

50 ortance in the fields of surface science and nanotechnology.

51 trategy to improve cancer immunotherapy with nanotechnology.

52 erent applications in science, medicine, and nanotechnology.

53 ed shapes would support many applications in nanotechnology.

54 tructural biology, biophysics, and molecular nanotechnology.

55 Here, we report on an in vivo pH mapping nanotechnology.

56 re-program in vivo cellular responses using nanotechnology.

57 tion of biological processes in nucleic acid nanotechnology.

58 obtained with design tools imported from DNA nanotechnology.

59 tions of native CDs in materials science and nanotechnology.

60 RNA function and quantitative design of RNA nanotechnology.

61 ientific fields-interventional radiology and nanotechnology.

62 y offer great potential for membrane protein nanotechnologies.

63 velopment of the first combined audio-visual nanotechnologies.

64 advent of supramolecular chemistry and later nanotechnology a great deal of research has been focused

65 Simultaneously, the advance of nucleic acid nanotechnology, a platform within which reactions can be

66 We also discuss emerging trends in nanotechnology affecting the cardiovascular field that m

67 Nanotechnology allows for a further enhancement of the t

68 The recent advances in nanotechnology, although opening up new opportunities fo

69 s article, we provide an overview of popular nanotechnologies and a summary of the current and potent

70 as well as technologies, such as micro- and nanotechnologies and additive manufacturing, have been i

71 erapies is growing, fueled by innovations in nanotechnology and advances in understanding of the unde

72 Some of these challenges are not unique to nanotechnology and are common in the development of othe

73 Recent advanced in the fields of nanotechnology and atmospheric sciences underline the in

74 erforms diverse functional roles in biology, nanotechnology and biotechnology, but current methods fo

75 Cancer nanotechnology and cancer immunotherapy are two parallel

76 that synthetic biology may be preferred over nanotechnology and conventional methods for high expecte

77 olitical or religious polarization regarding nanotechnology and genetically modified foods.

78 n essential mechanism in active nucleic acid nanotechnology and has also been hypothesized to occur i

79 al and stereocontrol is a major objective of nanotechnology and holds great promise for many applicat

80 rent state of metrological techniques in DNA nanotechnology and look forward to emerging technologies

81 ng, renewable energy, environmental science, nanotechnology and material science, to name only a few

82 ng towards applications in chemical biology, nanotechnology and material science.

83 We also show that by combining advances in nanotechnology and materials science with CL, new avenue

84 with recent developments in communications, nanotechnology and materials sciences, there has been ex

85 ing new field within the disciplines of both nanotechnology and medicine.

86 f-assembly, and present new biomaterials for nanotechnology and medicine.

87 in assemblies have potential applications in nanotechnology and medicine; however, a major challenge

88 which is essential for their optimal use in nanotechnology and nanomedicine applications.

89 iscuss recent advances in material sciences, nanotechnology and nucleic acid chemistry that have yiel

90 te of the art in the field of structural DNA nanotechnology and presents some of the challenges and o

91 w to integrate the tools provided by DNA/RNA nanotechnology and related new technologies to construct

92 ere, we report two technical advances in DNA nanotechnology and single-molecule genomics: (1) we desc

93 for rational control of membrane proteins in nanotechnology and synthetic biology by manipulating glo

94 s for environmental remediation by comparing nanotechnology and synthetic biology to conventional rem

95 uld provide biomaterials for applications in nanotechnology and synthetic biology.

96 Structural DNA nanotechnology and the DNA origami technique, in particu

97 ologies, including emerging biotechnologies, nanotechnologies, and microfluidics, hold the potential

98 tures in the fields of material engineering, nanotechnology, and biomedicine.

99 version and storage, catalysis, electronics, nanotechnology, and biotechnology.

100 optoelectronics, photonics, magnetic device, nanotechnology, and biotechnology.

101 rm new approaches for metabolic engineering, nanotechnology, and drug delivery.

102 Advances in miniaturization, nanotechnology, and microfluidics, along with developmen

103 sive applications in DNA scaffolds, sensors, nanotechnology, and other chemical applications.

104 a comprehensive overview on the landscape of nanotechnology application in medicine.

105 le-cell protein, biopolymers, components for nanotechnology applications (surface layers), soluble me

106 biological relevant targets, can be used in nanotechnology applications, and are valuable methodolog

107 gn of oligonucleotides for biotechnology and nanotechnology applications, but parameters currently in

108 g reagents or biomaterials in biomedical and nanotechnology applications.

109 at can be used for a range of biomedical and nanotechnology applications.

110 ver, the most intriguing applications of DNA nanotechnology - applications that best take advantage o

111 present review discusses new developments in nanotechnology applied to dentistry, focusing on the use

112 t of methamphetamine (METH) abuse, we used a nanotechnology approach to customize the in vivo behavio

113 gy besides novel techniques based on various nanotechnology approaches and molecular biology tools in

114 trong preclinical results suggest that these nanotechnologies are set to transform the therapeutic pa

115 ning novel wood-based materials via advanced nanotechnologies are summarized, including both the cont

116 e process may be of high value to commercial nanotechnology, as it can be easily scaled up to the fab

117 generator, which have exploited advances in nanotechnology at all hierarchical levels of device cons

118 We present a novel RNA nanotechnology based approach to produce multiple compon

119 ome of the advancements made in the field of nanotechnology based assays for microbial detection sinc

120 Nanotechnology- based delivery systems grabbed tremendou

121 signing and fabricating electrode materials, nanotechnology-based approaches have demonstrated numero

122 Finally, some recent nanotechnology-based approaches to devise macrophage-spe

123 Moreover, few nanotechnology-based colorimetric and paper-based immuno

124 study examines the applicability of a novel nanotechnology-based drug delivery system, which induces

125 r new potential therapeutic agents including nanotechnology-based photosensitizers used in PDT.

126 To overcome these challenges, we developed a nanotechnology-based plasmonic gold chip for autoantibod

127 This protocol describes a nanotechnology-based single-cell and single-molecule per

128 o the development of investigative tools and nanotechnology-based solutions.

129 Modern methods and future directions of nanotechnology-based targeted and personalized therapy a

130 A chemical free, nanotechnology-based, antimicrobial platform using Engin

131 ropolishing of metal wires is attractive for nanotechnology because it provides centimeter long and m

132 trapped charge is thus essential for future nanotechnologies, but their direct detection and manipul

133 There is great interest in DNA nanotechnology, but its use has been limited to aqueous

134 sts in designing sequences to be used in DNA nanotechnology, by putting limits on the suppression of

135 Encouragingly, nanotechnology can enhance the efficacy of immunostimula

136 ll the results indicated that this novel RNA nanotechnology can overcome conventional cancer therapeu

137 DNA nanotechnology can produce functional structures with su

138 stics to target acne, we used an established nanotechnology capable of generating/releasing NO over t

139 amples and share the experience with the NCI Nanotechnology Characterization Laboratory assay cascade

140 Taken together, advances in nanotechnology, combined with the right animal models fo

141 Structural DNA nanotechnology combines branched DNA junctions with stic

142 The nanotechnology consists of an optical pH indicator, SNAR

143 Active research in nanotechnology contemplates the use of nanomaterials for

144 nt role in membrane protein crystallization, nanotechnology, controlled drug delivery, and pathology

145 ts an array of research activities in cancer nanotechnology, convened a strategic workshop to explore

146 ally in such nanocapsules demonstrating that nanotechnology could be a viable method to improve selec

147 This innovation translates nanotechnology developed for delivery of RNAi for human

148 With the advancement of nanotechnology, development of nanomedicines to efficien

149 process should find ready application in DNA nanotechnology, DNA computing, and in vitro evolution of

150 With the recent advances in DNA nanotechnology, DNA nanostructures present a great oppor

151 Nowadays, tremendous advances in nanotechnology-empowered diagnostics are serving a subst

152 Recent advancements in nanotechnology enable novel lenses, such as, superlens a

153 remarkable advances in material science and nanotechnology enable rational design of heterostructure

154 cate the robustness and adaptability of this nanotechnology-enabled 'detection and perturbation' stra

155 Here, we report a nanotechnology-enabled high-throughput screen to identif

156 regnant women to safely reap the benefits of nanotechnology-enabled products and assist in the implem

157 e, we show how the modularity offered by DNA nanotechnology enables multiplexing by incorporating ort

158 Recent progress in nanotechnology enables the production of atomically abru

159 generative medicine from research to clinic, nanotechnology, especially magnetic nanoparticles have a

160 ns in optics, photonics, adaptive materials, nanotechnology, etc.

161 The SUN consortium (Project on "Sustainable Nanotechnologies", EU seventh Framework funding) uses me

162 One of the long-standing goals of the DNA nanotechnology field has been the assembly of periodic,

163 Structural DNA nanotechnology finds applications in numerous areas, but

164 rmations on individual virions using our new nanotechnology, "flow virometry", and a panel of antibod

165 nge of applications proposed in biomedicine, nanotechnology, food science, cosmetics, etc.

166 anoscale and the development of new kinds of nanotechnologies for chemical transport, chemical commun

167 In particular, nanotechnologies for health-related genomics and single-

168 otube field-effect transistors-promising new nanotechnologies for use in energy-efficient digital log

169 nanoparticles for biomedicine, and wearable nanotechnologies for wellness monitoring are briefly cov

170 We have merged cells with nanotechnology for an integrated molecular processing ne

171 Despite significant efforts to translate nanotechnology for cancer application, lack of identific

172 here we report an advantage of applying RNA nanotechnology for directional control.

173 Recent investigations in nanotechnology for drug delivery and tissue engineering

174 work represents the rational application of nanotechnology for immunoengineering and can provide a b

175 Using nanotechnology for optical manipulation of molecular pro

176 is is the first report on this kind of novel nanotechnology for pediatric fixed-dose combinations of

177 tical to the exploitation of nanoscience and nanotechnology for production of electronic devices, ene

178 this area despite increasing exploitation of nanotechnology for this purpose.

179 ties would open up exciting opportunities in nanotechnology, for example, as artificial (molecular st

180 ofiles accompany pre-clinical development of nanotechnology-formulated drugs.

181 iew recent progress in the transition of DNA nanotechnology from the test tube to the cell.

182 DNA will expand the scope of applications in nanotechnology, gene editing, and DNA library constructi

183 are the main cost factor for studies in DNA nanotechnology, genetics and synthetic biology, which al

184 A long-standing goal of DNA nanotechnology has been to assemble 3D crystals to be us

185 Nanotechnology has begun to play a remarkable role in va

186 Over the past few years, nanotechnology has contributed to a tremendous improveme

187 g synthetic gene regulatory networks and DNA nanotechnology has developed greatly, little control exi

188 Nanotechnology has emerged as an attractive alternative

189 Nanotechnology has emerged in the past 2 decades as a fi

190 Recent progress in the field of DNA nanotechnology has exhibited collective efforts to emplo

191 The field of DNA nanotechnology has harnessed the programmability of DNA

192 Nanotechnology has introduced many manufactured carbon-b

193 oom Temperature Phosphorescence (SS-RTP) and nanotechnology has led to a new approach in the detectio

194 The rapid development of nanotechnology has led to concerns over their environmen

195 Nanotechnology has recently allowed us to design and pre

196 RNA nanotechnology has recently emerged as an important fiel

197 The field of nanotechnology has recently seen vast advancements in it

198 Photodynamic therapy combining nanotechnology has shown great potential with improved t

199 Nanotechnology has the potential to drastically improve

200 Nanotechnology has tremendous potential to contribute to

201 Several recent micro- and nanotechnologies have provided novel methods for biologi

202 Advances in nanotechnology have allowed the origins of wear processe

203 ng in cell-free settings, researchers in DNA nanotechnology have been able to scale up system complex

204 Recent developments in the field of DNA nanotechnology have begun to address these goals, demons

205 Polymer self-assembly and DNA nanotechnology have both proved to be powerful nanoscale

206 Advances in nanotechnology have led to the development of a variety

207 id pace in the area of materials science and nanotechnology have made it possible to synthesize nanop

208 Recent advances in nanotechnology have provided numerous opportunities to t

209 Advances in nanotechnology have provided unprecedented physical mean

210 ary, opening the door for "heterochiral" DNA nanotechnology having fully interfaced d-DNA and l-DNA c

211 Advancing biosensing nanotechnologies in chemically "noisy" bioenvironments r

212 Here, we review the key roles of nanotechnologies in the recent literature, in both diagn

213 te systems is critical to the utilization of nanotechnology in biomedical applications.

214 summary of the current and potential uses of nanotechnology in cell and organ transplantation.

215 Administration (FDA) is tracking the use of nanotechnology in drug products by building and interrog

216 e the current trends and potential impact of nanotechnology in MSC-driven regenerative medicine.

217 no reviews that outline the applications of nanotechnology in this area despite increasing exploitat

218 potentially wide applications in biology and nanotechnology including single molecule studies and syn

219 Nanotechnology indeed promises to revolutionize diagnost

220 The booming nanotechnology industry has raised public concerns about

221 National Science Foundation's (NSF) National Nanotechnology Infrastructure Network (NNIN), an integra

222 2000 the United States launched the National Nanotechnology Initiative and, along with it, a well-def

223 This new nanotechnology involves low catalyst loadings, is highly

224 sing the promise of next-generation magnetic nanotechnologies is contingent on the development of nov

225 the results demonstrated that the novel ISNP nanotechnology is a promising platform to manufacture pa

226 Nanotechnology is currently driving the dental materials

227 Nanotechnology is now offering new tools and insights to

228 One of the key goals of structural DNA nanotechnology is to construct three-dimensional (3D) cr

229 order to fully realize the potential of DNA nanotechnology, it is crucial to overcome the lack of ro

230 n of MVs for applications in biomedicine and nanotechnology.It is unclear how Gram-positive bacteria,

231 Despite its important role in biology and nanotechnology, many questions remain regarding the mole

232 potential for combinatorial treatments with nanotechnology, markedly increasing the efficacy of exis

233 characterization and benchmarking of similar nanotechnology materials.

234 As DNA nanotechnology matures, there is increasing need for fas

235 Nanotechnology may offer fast and effective solutions fo

236 ivery methods and the transformative role of nanotechnology, microfluidics and laboratory-on-chip tec

237 Since innovative nanotechnologies might alleviate the limitations of curr

238 e decades, the field has been overwhelmed by nanotechnology, nanomedicine, and many nano-sized drug d

239 n order to be competitive, current biosensor nanotechnologies need significant improvements, especial

240 a novel biosensor which combines the use of nanotechnology (non-woven nanofibre mat) with Solid Surf

241 The advantages of DNA/RNA nanotechnology offer numerous opportunities for in-cell

242 However, nanotechnology offers a new route to potentially remedia

243 Nanotechnology offers many benefits, and here we report

244 Nanotechnology offers many possibilities to improve drug

245 research into the antisense, diagnostic, and nanotechnology oligonucleotide fields.

246 The impact of nanotechnology on analytical science is hardly overlooke

247 rucial in evaluating the potential impact of nanotechnology on the environment and agriculture.

248 The influence of nanotechnology on the healthcare industry is substantial

249 y and Computed Tomography have the impact of nanotechnology on their improved performance, they are h

250 tors have gained an increasing importance in nanotechnology owing to their contributions to both fund

251 This nanotechnology platform offers a powerful tool in fundam

252 des a focused overview of recent advances in nanotechnology platforms for the systemic delivery of th

253 Nonetheless, the emergence of nanotechnology presents a serious challenge to both pers

254 Recent advances in nanotechnology provide unparalleled flexibility to contr

255 Nanotechnology provides the possibility of creating deli

256 binding to surfaces is an important tool in nanotechnology, quantitative information about the resid

257 Nanotechnology refers to the fabrication, characterizati

258 The advance of magnetic nanotechnologies relies on detailed understanding of nan

259 RNAi nanotechnology represents a promising strategy for cance

260 advance of chemistry, materials science, and nanotechnology, significant progress has been achieved i

261 Researchers have explored the use of nanotechnology, specifically nanoparticles and nanofiber

262 Advances in nanotechnology suggest that the next generation of recor

263 th scales, however, we are bound to top-down nanotechnology techniques to realise order.

264 of salivary diagnostic electronics based on nanotechnologies that can offer rapid, yet highly accura

265 This review will inspire more exciting nanotechnologies that had accounted for the complexities

266 tal and economic development relies on novel nanotechnologies that offer maximum efficiency at minima

267 Here, we outline recent advancements in nanotechnology that could be exploited to overcome the m

268 We discovered a novel nanotechnology that produced in situ self-assembly nanop

269 DNA origami is a DNA-based nanotechnology that utilizes programmed combinations of

270 Developing nanotechnology that would allow molecular-level phenomen

271 pite continuous advances in the field of DNA nanotechnology, the intracellular fate of DNA nanostruct

272 The foundational goal of structural DNA nanotechnology-the field that uses oligonucleotides as a

273 With the development in nanotechnology, there have been great interests in using

274 ve led to promising advances in the field of nanotechnology, there remain significant research gaps a

275 ign parameter for engineering of dynamic DNA nanotechnology, thereby expanding the types of architect

276 d, transformative nanosystems, which use new nanotechnologies to simultaneously realize improved devi

277 ular properties, enable minimalistic peptide nanotechnology to deliver on its promise.

278 emerging discipline of dynamic nucleic acid nanotechnology to develop a robust method for multi-colo

279 The aim of this study was to develop a nanotechnology to formulate a fixed-dose combination of

280 ept of 'nanochemoprevention' i.e. the use of nanotechnology to improve the outcome of cancer chemopre

281 delivery with a focus on the application of nanotechnology to mitochondrial medicine.

282 t development along this line would help RNA nanotechnology to reach the structural control that is c

283 e summarize the current abilities of DNA/RNA nanotechnology to realize applications in live cells and

284 n the novel drug delivery approach that uses nanotechnology to selectively deliver recovery-inducing

285 review will outline the application of micro/nanotechnology to specifically address the physiological

286 in, we demonstrate the strategy of novel bio-nanotechnology to successfully fabricate high-performanc

287 f the state-of-the-art in the application of nanotechnology to waterborne pathogen sampling and detec

288 RNA nanotechnology uses RNA structural motifs to build nanos

289 es which are highly relevant in the field of nanotechnology using colored silica and gold nanoparticl

290 ing on recent developments in DNA structural nanotechnology, we introduce the nanoswitch-linked immun

291 Nanotechnology, which by its very nature is multidiscipl

292 ISNP granules, were prepared using the ISNP nanotechnology, which spontaneously produced drug-loaded

293 ther improve targeting properties of current nanotechnologies while simultaneously enable carriers wi

294 This was done by combining DNA nanotechnology with colloidal science.

295 opens the prospect of a new class of quantum nanotechnology with potential applications including pho

296 By further integration of nanotechnology with semisolid formulations, very promisi

297 silicon is a perfect route to enrich silicon nanotechnology with spin filter functionality.

298 the development and application of CNT-based nanotechnologies, with a particular focus on the carrier

299 rials for the development of nanoscience and nanotechnology, with applications in very diverse areas

300 that have relevance in chemical biology and nanotechnology, with diverse areas of applications.