ライフサイエンスコーパス: electronics

1 ing for biomedical applications and wearable electronics).

2 in applications of flexible and stretchable electronics.

3 ctor promises interesting applications in 2D electronics.

4 ing a noncovalent method of tuning fullerene electronics.

5 ployed as a protective layer for implantable electronics.

6 ns of horizontal 2D MoS2 in electronics/opto-electronics.

7 xanes to function as molecular insulators in electronics.

8 can be monitored continuously with standard electronics.

9 as well as presence and age of furniture and electronics.

10 interactions between biological species and electronics.

11 ally used as an energy solution for wearable electronics.

12 -generation ultrathin, low-power, high-speed electronics.

13 es without prior knowledge of programming or electronics.

14 reless and self-powered sensors or low-power electronics.

15 y to the realisation of high-yield low-power electronics.

16 iocompatible, and ultralightweight transient electronics.

17 ty of AlN TRRAM for future transparent harsh electronics.

18 permeable membrane substrates for epidermal electronics.

19 king analog GKTFET potentially useful for RF electronics.

20 applications ranging from catalysis to novel electronics.

21 ith various form-factor designs for wearable electronics.

22 rmation provides a novel paradigm for future electronics.

23 al processing is a major challenge in modern electronics.

24 easibility of optically defined, transparent electronics.

25 tion to test the radiation hardness of space electronics.

26 or economical manufacturing of bioresorbable electronics.

27 y transparent hold unique promise for future electronics.

28 s paving new pathways toward atomically thin electronics.

29 vel electrochemical concepts in future oxide electronics.

30 tions that vastly exceed the capabilities of electronics.

31 to various electrodes for portable/wearable electronics.

32 f its potential use in materials for organic electronics.

33 c, air-stable, pentagonal 2D material for 2D electronics.

34 eration of wearable energy devices in modern electronics.

35 reat potential in smart textiles or wearable electronics.

36 e role in the development of next generation electronics.

37 tions in next-generation wearable functional electronics.

38 fields, ranging from composites to flexible electronics.

39 ous studies which have focused on automotive electronics.

40 es for applications in flexible and wearable electronics.

41 ce of intrachain charge transport in plastic electronics.

42 layered semiconductor of interest for valley electronics.

43 gh energy density are demanded for conformal electronics.

44 oses but also for cosmetics, agriculture and electronics.

45 apability are attractive for modern wearable electronics.

46 to fit the properties required in deformable electronics.

47 ticles as well as their potential for future electronics.

48 applications at the interface of biology and electronics.

49 ted systems, wearable devices and bio-sensor electronics.

50 es for globally deformable yet locally stiff electronics.

51 a mono-layer transition metal dichalcogenide electronics.

52 r novel high-speed low-power superconducting electronics.

53 d be highly beneficial for powering wearable electronics.

54 optical interconnects for silicon integrated electronics.

55 pment of organic photovoltaics and molecular electronics.

56 mperature process is very suitable for paper electronics.

57 sciences, and most importantly computers and electronics.

58 h-resolution displays and human-centric soft electronics.

59 the harvesting of solar energy and molecular electronics.

60 transistors in next generation semiconductor electronics.

61 nhancement and advance thermal management in electronics.

62 ations of 1-20 nm organic films in molecular electronics.

63 hly expected for soft tissue repair and soft electronics.

64 their application in wearable or stretchable electronics.

65 sue engineering, soft robotics, and wearable electronics.

66 tance for realizing tunable energy efficient electronics.

67 trate, enabling more complex low-dimensional electronics.

68 vices for next-generation wearable, portable electronics.

69 zing programmable logic elements in magnetic electronics.

70 sts a viable route for designing destructive electronics.

71 on transport is a generic feature of viscous electronics.

72 al for their practical applications in novel electronics.

73 ely a result of the density of furniture and electronics.

74 local electronic properties in silicon-based electronics.

75 ic transistor that forms the basis of modern electronics.

76 conductors and as active components in power electronics.

77 lications that span biomedicine to molecular electronics.

78 several domains of stretchable and wearable electronics.

79 polymers have great potential in large-area electronics.

80 potentially offer integrability into modern electronics.

81 s inspirations for smart designs in flexible electronics.

82 apacitors (MLCC) are widely used in consumer electronics.

83 Particularly with a view of organic electronics, achieving a maximum degree of crystallinity

84 in antimony, a component used in batteries, electronics, ammunitions, plastics, and many other indus

85 Space radiation is a great danger to electronics and astronauts onboard space vessels.

86 s widely expected to be integral to consumer electronics and beyond.

87 ies for passive heat exchange in stretchable electronics and bioinspired robotics, which we demonstra

88 ncluding plasmonics, metamaterials, flexible electronics and biosensors.

89 cal applications in the fields of magnetics, electronics and catalysis.

90 igns including mechanical, civil, materials, electronics and chemical engineering applications.

91 chargeable lithium-ion batteries in portable electronics and electric vehicles has spurred intensive

92 ddressing key materials challenges in modern electronics and enables control of dissipation at the na

93 ces could impact areas ranging from wearable electronics and energy harvesting devices to smart prost

94 doping strategies have enabled semiconductor electronics and forging enabled introduction the of iron

95 Such properties are attractive for flexible electronics and implantable devices.

96 ght emission, data communication, high-speed electronics and light harvesting (8-16) require a thorou

97 ical applications in voice control, wearable electronics and many other areas.

98 Measurement electronics and microfluidics are easily constructed for

99 With the rapid growth of flexible electronics and miniature sensors, the low-cost flexible

100 ilm can potentially open up a range of green electronics and nanofluidics.

101 ed microfluidics, instrumented with flexible electronics and optoelectronic sensors in a mechanically

102 re we performed a comprehensive study on the electronics and optoelectronics properties of the AlN/Ga

103 he application of these materials in organic electronics and optoelectronics, the construction of oli

104 band gap semiconductors with applications in electronics and optoelectronics.

105 foresee novel applications in the fields of electronics and optoelectronics.

106 xides have a wide variety of applications in electronics and other technologies.

107 rly attractive in the context of non-silicon electronics and photonics, where the ability to re-use t

108 the preferred materials of choice for power electronics and pulsed power applications.

109 Printed electronics and sensors enable new applications ranging

110 cessing is one of major challenges in modern electronics and spin caloritronics, but not yet well acc

111 to promising applications in single-molecule electronics and spintronics.

112 te to overcome both the speed limitations of electronics and the critical dimensions of photonics.

113 nal electrophysiology, spatially inefficient electronics and the need for tissue-to-electrode proximi

114 es combing transparent electronics, flexible electronics and thermoelectricity.

115 thinness, allowing for flexible transparent electronics and ultimate length scaling.

116 that combines nanomaterials with biology and electronics and, in so doing, offers the potential to ov

117 may find powerful applications in nanoscale electronics and/or mechanical devices.

118 in materials have great potential for use in electronics, and are thought to make possible the first

119 l greatly exceed the capabilities of current electronics, and are unlikely to be met by isolated impr

120 strategic materials in the defense, energy, electronics, and automotive industries.

121 g and controlling DNA origamis with standard electronics, and enable their use as moving parts in ele

122 stallation of building equipment, furniture, electronics, and first year of building use.

123 eir applications within soft and stretchable electronics, and future opportunities and challenges are

124 ipresence of lithium-ion batteries in mobile electronics, and hybrid and electric vehicles necessitat

125 challenges, here we integrate microfluidics, electronics, and inkjet printing to build an ultra-low-c

126 ing ultrathin films form the basis of modern electronics, and may lead to the scalable fabrication of

127 t of solid-state devices that couple ionics, electronics, and optics.

128 ls are increasingly found in consumer goods, electronics, and pharmaceuticals.

129 microscale inorganic LEDs, wireless-control electronics, and power supplies.

130 y desirable in fields of aerospace, portable electronics, and so on.

131 applications in tissue engineering, flexible electronics, and soft robotics call for approaches that

132 etardant added to building insulation foams, electronics, and textiles.

133 unction properties of MoS2, and thus impacts electronics application of MoS2.

134 t implications in a broad range of molecular electronics applications from designing robust molecular

135 le for transistors to be useful in practical electronics applications.

136 Printed electronics are a burgeoning area in electronics develop

137 ensors combined with low-power silicon-based electronics are a viable and efficient approach for medi

138 Flexible and stretchable electronics are becoming increasingly important in many

139 der development for next-generation wearable electronics are flexible, knittable, and wearable energy

140 alkyl- and arylthioamides with variations in electronics are tolerated.

141 Currently, consumer electronics are typically made with nondecomposable, non

142 lethora of materials employed in the organic electronics area for application in the bioelectronics f

143 dwater and communication devices to external electronics at standoff distances.

144 o transfer power from outside of the body to electronics at various locations along the GI tract.

145 Electronics-bandwidth-compatible (20 GHz) soliton mode l

146 platform for green, foldable and disposable electronics based on low cost and versatile materials.

147 Fully printed wearable electronics based on two-dimensional (2D) material heter

148 It has been suggested that electronics based upon ultra-thin TMDs may be appropriat

149 In this work, we describe an electronics-based Enzyme-Linked ImmunoSorbent Assay (eEL

150 re a promising material for high-performance electronics beyond silicon.

151 thus extending its potential use in wearable electronics beyond the power generation realm.

152 pplications in new technology areas, such as electronics, biomedical devices, and energy.

153 time-dependent histology studies of the mesh electronics/brain-tissue interface obtained from section

154 tion with numerous advantages as compared to electronics built from discrete components.

155 do for photonics what semiconductors did for electronics, but the challenge has long been in creating

156 Next-generation electronics calls for new materials beyond silicon, aimi

157 tivity of components of plastics coming from electronics' casings.

158 nge of applications, for example, in organic electronics, catalysis and bioengineering.

159 l to the next generation of multi-functional electronics compatible with human tissue.

160 A long standing question in organic electronics concerns the effects of molecular orientatio

161 lating electrodes in which the per-electrode electronics consume an area of 25.5 mum by 25.5 mum.

162 combining the paper sensor with conventional electronics, data concerning respiration can be transmit

163 However, progress in nanoscale electronics demands insulators just as it needs conducto

164 Printed electronics are a burgeoning area in electronics development, but are often stymied by the la

165 which are generally considered for molecular electronics development.

166 spintronic devices in flexible and wearable electronics devices for a plethora of biomedical sensing

167 is donor from the drift layer of Ga2O3 power electronics devices will be key to pushing the limits of

168 What are the strategies to construct electronics devices with engineered phages?

169 the difficulty in powering millimeter-sized electronics devices without using batteries, which compr

170 however, limit its integration with flexible electronics devices.

171 d for fabrication of flexible and disposable electronics devices.

172 In printed electronics, devices are built layer by layer and conven

173 use of self-assembled monolayers in organic electronics, discuss the mechanism of interaction of SAM

174 cess of the doses needed to damage TMD-based electronics due to defects generated in common dielectri

175 ost promising candidates for next-generation electronics due to their atomic thinness, allowing for f

176 arded as a promising candidate for low-power electronics due to their high capacitance.

177 o be potential materials for atomically thin electronics due to their unique electronic and optical p

178 These types of electronics (e.g., wearable or implantable electronics,

179 ies to meet the growing demands for portable electronics, electric vehicles and grid-scale energy sto

180 development and clinical testing of a novel electronics enabled microfluidic paper-based analytical

181 und numerous applications in pharmaceutical, electronics, environmental, cosmetics, and hygiene indus

182 ental studies show that the established skin-electronics exhibit superior mechanical enhancements aga

183 ifunctional technologies combing transparent electronics, flexible electronics and thermoelectricity.

184 rent properties of polymers and soft organic electronics for applications at the interface of biology

185 es investigate the functionality of the soft electronics for HCI-enabled swallowing training, which i

186 a promising processing technique in organic electronics for microstructure/charge transport modifica

187 egrated with the next generation stretchable electronics for realizing low-power, stand-alone, self-s

188 tes the synergy of direct ink writing and RF electronics for wireless applications.

189 cal allows for the physical isolation of the electronics from the human body while enabling efficient

190 A key target in molecular electronics has been molecules having switchable electri

191 The booming field of molecular electronics has fostered a surge of computational resear

192 the increasing energy consumption in silicon electronics has motivated research into emerging devices

193 ever-growing market of flexible and wearable electronics has nourished progress in building multifunc

194 Molecular doping of organic electronics has shown promise to sensitively modulate im

195 Paper microfluidics and printed electronics have developed independently, and are incomp

196 emands and shorter use lifetimes of consumer electronics have resulted in the rapid growth of electro

197 Wearable electronics have the potential to advance personalized h

198 iles with potential applications in wearable electronics, home security, and personalized healthcare.

199 ocused on chemicals applied to furniture and electronics; however, camping tents sold in the United S

200 We recently reported ultraflexible open mesh electronics implanted into rodent brains by syringe inje

201 trates clinical feasibility of the ergonomic electronics in HCI-driven rehabilitation for patients wi

202 current interest for a variety of low power electronics in which the magnetic state is used either f

203 ium-ion batteries are ubiquitous in portable electronics, increased charge rate and discharge power a

204 ential for representing a paradigm change in electronics, information processing and unconventional c

205 Organic and printed electronics integration has the potential to revolutioni

206 Single-molecular electronics is a potential solution to nanoscale electro

207 roduces all-printed flexible and stretchable electronics is demonstrated.

208 ls based on gallium for soft and stretchable electronics is discussed.

209 complex nanofluidic systems with integrated electronics is essential to realizing ubiquitous, compac

210 This emerging class of electronics is motivated, in part, by the new opportunit

211 such, the radiation stability of WSe2-based electronics is not expected to be limited by the radiati

212 nge to the deployment of such gastroresident electronics is the difficulty in powering millimeter-siz

213 While many aspects of electronics manufacturing are controlled with great prec

214 ulation for sensitive components in flexible electronics.Minerals are rarely explored as building blo

215 ar monolayers, which is central to molecular electronics (MolEl), using large-area junctions (NmJ).

216 nce of novel applications such as catalysis, electronics, nanomaterial synthesis and biosensing.

217 nefit significantly from lightweight organic electronics, now spanning from displays to logics, becau

218 ropolarity of the local surroundings and the electronics of the core carbazole unit.

219 ination is controlled by the solvent and the electronics of the cyclopentadienyl (Cp(x)) ligand on Ir

220 regioisomers has been dictated by the innate electronics of the fluorinated arene, limiting the synth

221 hich is of fundamental interest in molecular electronics, oligo(arylene-ethynylene) (OAE) molecular w

222 Monolithic integration of microfluidics and electronics on paper is demonstrated.

223 Ultraflexible mesh electronics, on the other hand, have demonstrated neglig

224 y bringing all-transparent, high-power oxide electronics operating at room temperature a step closer

225 conductivity provides a venue for nonlinear electronics, optical applications, and the development o

226 tional applications of horizontal 2D MoS2 in electronics/opto-electronics.

227 ng of MoS2 to fabricate suitable devices for electronics, optoelectronics, and energy conversion.

228 enum disulfide (MoS2) structures, in various electronics, optoelectronics, and flexible devices requi

229 assemblies and materials for use in optics, electronics, optoelectronics, photonics, magnetic device

230 didates for a broad scope of applications in electronics, optoelectronics, topological devices, and c

231 ting species in areas as relevant as organic electronics or biomedicine has motivated the search for

232 ure cryptographic hash that does not rely on electronics or software.

233 n transistors are at the frontiers of modern electronics owing to their discrete voltage regulated op

234 many measurements in the field of molecular electronics, particularly those measurements based on si

235 of microsystems for numerous applications in electronics, photonics and other areas often requires mi

236 ain slices containing nearly the entire mesh electronics probe showed that the tissue interface was u

237 antation achieved by ultraflexible open mesh electronics probes provide substantial advantages and co

238 scalable scheme for highly multiplexed mesh electronics probes to bridge the gap between scalability

239 Recent development of epidermal electronics provides an enabling means to continuous mon

240 future synthetic targets for single-molecule electronics, qualitative design rules are needed, which

241 Most of the magnetic devices in advanced electronics rely on the exchange bias effect, a magnetic

242 Soft and conformable wearable electronics require stretchable semiconductors, but exis

243 ng elastomers, plastics, hydrogels, flexible electronics, resins, engineering polymers and composites

244 nanophotonics, towards establishing an opto-electronics roadmap, akin to the International Technolog

245 have many potential applications in wearable electronics, robotics, health monitoring, and more.

246 f electronics (e.g., wearable or implantable electronics, sensors for soft robotics, e-skin) must ope

247 in various fields such as biomedicine, soft electronics, sensors, and actuators.

248 By keeping the electronics separate from microfluidic chips, the former

249 ded in a compact system comprising dedicated electronics, shielding, and pumping unit controlled by c

250 ar and parallel brain slices containing mesh electronics showed that the distribution of astrocytes,

251 t may find potential application in wearable electronics, soft robotics, and biomedical devices.

252 ng phenomena that underlie conventional spin electronics (spintronics), and provides a mechanism for

253 now a strong driving force in areas such as electronics, spintronics and photovoltaics.

254 al fabrication method in areas as diverse as electronics, structural materials, tissue engineering, a

255 ently as a promising option for use in power electronics such as thermoelectric and piezoelectric gen

256 offers new opportunities in next-generation electronics, such as augmented reality devices, smart su

257 microglia are nearly the same from the mesh electronics surface to the baseline far from the probes,

258 The electronics surrounding us in our daily lives rely almos

259 tractive for applications in a wide range of electronics systems that desire ultralow power operation

260 iointegration of various sensors in wearable electronics systems, and toward advanced bionic skin app

261 Bioresorbable silicon electronics technology offers unprecedented opportunitie

262 printing is a new method for producing soft electronics that combines direct ink writing of conducti

263 ation of the network structure of automotive electronics that enables a comprehensive quantification

264 olymer transistors for solution-based analog electronics that meets performance and power-dissipation

265 pintronics is an alternative to conventional electronics that offers devices with high performance, l

266 devices pave the way for a new generation of electronics that will change the way we see and interact

267 Advances in wireless technologies, low-power electronics, the internet of things, and in the domain o

268 In the context of micro-electronics, the real-time manipulation and placement of

269 e device size and integrate it with wearable electronics, there is an urgent requirement of realizing

270 reate geometries potentially useful for opto-electronics, thermoelectrics, and quantum computing.

271 The field of organic electronics thrives on the hope of enabling low-cost, so

272 e to their diverse applications from printed electronics to biomedical devices.

273 ented here open up the potential of consumer electronics to cut lengthy test waiting times, giving pa

274 State-of-the-art sensors use active electronics to detect and discriminate light, sound, vib

275 s for a wide range of studies from molecular electronics to DNA sequencing.

276 e fact through the increasing application of electronics to interface with human neurons in the limbs

277 tectural choices that combine photonics with electronics to optimize performance, power, footprint, a

278 ng from unconventional computing to adaptive electronics to robotics.

279 ations in industry, healthcare, and consumer electronics, to emerging product categories of high pote

280 This scalable scheme for mesh electronics together with demonstrated long-term stabili

281 significant expansion of the single-molecule electronics "tool-box" for the design of junctions with

282 first step in integrating biology with nano-electronics towards realizing fully self-assembled biona

283 ology is of critical importance for portable electronics, transportation and large-scale energy stora

284 are widely used, e.g. as casings of consumer electronics (TVs, computers, routers, etc.), which are p

285 e field of energy, to the area of large-area electronics using MHPs as the semiconductor material.

286 ighly efficient low-power analog and digital electronics using ZnO and/or other semiconducting nanoma

287 limited counting rate imposed by the readout electronics, we show that both core-loss and low-loss sp

288 e received increasing attention in robotics, electronics, wearable, and healthcare applications.

289 gated radical polymers in energy storage and electronics, where careful attention to the redox potent

290 We propose bio-inspired electronics which adopt the fractal geometry of the neur

291 such as electrochemistry, catalysis, and SM electronics, which all benefit from the vibrational char

292 Radio-frequency (RF) electronics, which combine passive electromagnetic devic

293 Electronics, which functions for a designed time period

294 s open an intriguing perspective for quantum electronics with atomic-scale structures.

295 st solution for high performance stretchable electronics with broad applications in industry, healthc

296 The realization of large-area electronics with full integration of 1D thread-like devi

297 storage calls for the development of modern electronics with multiple stacking architectures that in

298 crystal thin films and fabricating flexible electronics with these conventionally rigid materials.

299 Only a reduced electronics with very low power consumption is required

300 and opportunities in the area of MHPs-based electronics, with particular emphasis on manufacturing,