ライフサイエンスコーパス: antenna

1 walk approximations of the excitation in the antenna.

2 between two sensory organs, the eye and the antenna.

3 oes from all olfactory organs, including the antenna.

4 rties as the firing activity measured at the antenna.

5 the organization described in the Drosophila antenna.

6 PQ through quenching of the associated LHCII antenna.

7 ncident on the radar aperture using a single antenna.

8 receive input primarily from the ipsilateral antenna.

9 on and focusing, similar to a parabolic dish-antenna.

10 In this study, we extend our analysis to the antenna.

11 iological analysis of the Glossina morsitans antenna.

12 e bolometer pairs corresponding to each slot antenna.

13 nidentified components of the photosystem II antenna.

14 onents and their associated light-harvesting antenna.

15 tes the hygrosensory triad in the Drosophila antenna.

16 ens dipoles excited in an individual dipolar antenna.

17 to an inductor-capacitor resonator, i.e., an antenna.

18 k inserted between an RF transceiver and its antenna.

19 ed by the migration of the excitation in the antenna.

20 cal element to focus the IR radiation to the antenna.

21 ng the change of current passing through the antenna.

22 s as a function of the absorbed power by the antenna.

23 ce plasmon resonance (LSPR) modes in nanorod antennas.

24 en the excited dyes and plasmonically active antennas.

25 limits on radiation from electrically small antennas.

26 pplications for portable, electrically small antennas.

27 terahertz electric field of custom-tailored antennas.

28 ncrete, which can improve the performance of antennas.

29 s improves the bandwidth and S11 of embedded antennas.

30 such as lasers, grating couplers and optical antennas.

31 er in two closely-spaced, directive infrared antennas.

32 n general difficult to obtain for SSPP based antennas.

33 th, over phased array antennas and reflector antennas.

34 The upcoming Laser Interferometer Space Antenna(2) (LISA) is expected to detect tens of thousand

35 In this paper, an Advanced Short Backfire Antenna (A-SBFA), augmented with anisotropic metamateria

36 RFID sensor tags consist of an antenna, a radio frequency integrated circuit chip (RFIC

37 and steady-state mid-infrared semiconductor antennas.Achieving large tunability of subwavelength res

38 To show the new QCTO modified Luneburg lens antenna, an example lens antenna was designed at Ka-band

39 er-coated gold nanorod acting as a plasmonic antenna and biotin as a high-affinity biorecognition ele

40 efficient than a comparably sized electrical antenna and capable of bit rates up to 60 bit/s.

41 embrane between pedicel and flagellum of the antenna and line up in a ring-like organization.

42 ic trigger waves in a universal framework of antenna and percolation theory(25,26), and reveal a phas

43 how many fucose residues are on the specific antenna and provides additional information on the topol

44 ns share the ambiguous responses of a single antenna and receive input primarily from the ipsilateral

45 he functional organization of the tsetse fly antenna and that of the fruit fly Drosophila melanogaste

46 d be used to deduce the composition of the 6-antenna and to distinguish isomers.

47 o prepare arrays of nanocube-based plasmonic antennas and deliberately place dyes with sub-nm precisi

48 compare fabrication techniques for flexible antennas and demonstrate that screen and stencil printin

49 cle, we fabricate chromium and tungsten nano-antennas and demonstrate that they can handle 110 and 30

50 o conventional DoA estimators where multiple antennas and receivers are classically required.

51 angle and broad bandwidth, over phased array antennas and reflector antennas.

52 y-efficient large-area mid-infrared sensors, antennas, and metasurfaces.

53 rs with large grabbing force, reconfigurable antennas, and sequential logic for computing.

54 Dimensions of the antenna are 8.6 x 8.6 x 0.0503 mm(3).

55 o known as red chlorophylls) residing in the antenna are important for energy transfer dynamics and y

56 neuropils associated with the antennule and antenna are markedly pronounced when compared to the oth

57 The antennas are excited by coupling electromagnetic energy

58 In addition, given that nano-antennas are passive devices driven by external light so

59 Since the near-fields of the optical antennas are related to the currents in the optical ante

60 Nano-antennas are replicas of antennas that operate at radio-

61 comparable performance with that of a copper antenna array at 28 GHz, which is a target frequency in

62 uctures to improve the performance of a MIMO antenna array at the 60-GHz band.

63 The single element of the MIMO antenna array covered the mmW band from 57 GHz to 63 GHz

64 mprovement of performance of a metaresonator antenna array in terms of a small shift in the resonance

65 bed here, a cross-polarized microstrip patch antenna array is connected to the source and drain probe

66 le and salient features of the proposed MIMO antenna array shows the potential for on-chip applicatio

67 over, it is demonstrated that an MXene patch antenna array with integrated feeding circuits on a conf

68 e of a multiple-input multiple-output (MIMO) antenna array.

69 is study to develop a passive retrodirective antenna array.

70 stantially improved the overall gain of MIMO antenna array.

71 e microelectromechanical movement of silicon antenna arrays created in standard silicon-on-insulator

72 By introducing hybrid random antenna arrays with small metallic nanoparticles and ult

73 Our findings reveal dielectric nano-antennas as a promising platform for engineering light-m

74 that of a standard 35 um thick copper patch antenna at about 15% of its thickness and 7% of the copp

75 xposure of synthesized aerosol to the insect antenna, AuNPs reached the brain within an hour.

76 he performance parameters of a novel on-chip antenna based on metasurface technology at terahertz ban

77 Using antenna-based near-field microscopy, propagating surface

78 communication systems.The miniaturization of antennas beyond a wavelength is limited by designs which

79 ing Ln(3+) -bound water molecule as the CEST antenna but this design often added additional line-broa

80 y depends upon the in-plane structure of the antennas but also the size of the gap, which is regulate

81 ementing QCTO-enabled modified Luneburg lens antenna by designing a broadband anti-reflective layer a

82 ptical cross-section of the light-harvesting antenna by selectively reducing chlorophyll b levels and

83 Next, the beta-GlcNAc terminating antenna can be converted into LacNAc by galactosylation

84 ptical cross-section of the light-harvesting antenna can lead to substantial improvements in algal ph

85 Working in the opposite direction, the antenna can receive an external radio frequency signal,

86 Furthermore, the gap mode of the antennas can be modified in situ by utilizing the solven

87 being damaged at adequately high power (some antennas can handle just a few milliwatts).

88 Having a small footprint, nano-antennas cannot handle high fluences (energy density per

89 ex vivo measurements, we designed mid-field antennas capable of operating efficiently in tissue at 1

90 At full sunlight the light-harvesting antenna captures photons at a rate nearly 10 times faste

91 Postsynaptic to the antenna cells are a group of inhibitory primary interneu

92 l and projecting excitatory sensory neurons (antenna cells).

93 The resistivity of each bolometer-antenna changes as a function of the absorbed power by t

94 nt spatio-temporal code at the output of the antenna circuits determines the level of complexity of o

95 ght-harvesting complex II (LHCII) is the key antenna complex for plant photosynthesis.

96 The monomeric photosystem I-light-harvesting antenna complex I (PSI-LHCI) supercomplex from the extre

97 hosphorylates components of light-harvesting antenna complex II (LHCII).

98 nal electronic spectroscopy to the principal antenna complex, LHCII, in a near-native membrane.

99 -green light, OCP binds to the phycobilisome antenna complex, providing an excitonic trap to thermall

100 not previously incorporated within a natural antenna complex.

101 Conformational changes of the photosynthetic antenna complexes activate dissipation by leveraging the

102 energy transfer through the dense network of antenna complexes and into the reaction center.

103 ent chromophores present in light-harvesting antenna complexes are introduced, and then we examine th

104 in vivo, where contributions from homologous antenna complexes cannot be disentangled.

105 lisomes are highly organized pigment-protein antenna complexes found in the photosynthetic apparatus

106 n with the nearest chlorophylls in the plant antenna complexes LHCII, CP26, CP29 and LHCI.

107 N >= 9 carotenoids found in light-harvesting antenna complexes represent a vital compromise that reta

108 mbrane organization into small pools of core antenna complexes that rapidly trap energy absorbed by s

109 sfers energy efficiently through a series of antenna complexes to the reaction center where charge se

110 ical cross section of plant light harvesting antenna complexes which capture photons at a rate nearly

111 ap energy absorbed by surrounding peripheral antenna complexes.

112 state of the phycobilisome light-harvesting antenna components.

113 Analysis of Lhc antenna composition identified Lhc(s) specific for eithe

114 The antenna, connected to a laptop for recording the data, w

115 The device uses novel on-body antennas contacting the human wrist under an applied, op

116 -magnitude improvement in the sensitivity of antenna-coupled nanothermocouple (ACNTC) infrared detect

117 ironments, cyanobacteria express IsiA, a PSI antenna, critical to their survival.

118 Adopting this concept for antenna design allows approaching long-standing contests

119 n review recent developments in the areas of antenna design, fabrication, and characterization.

120 However, miniaturized antenna designs often have lower performance.

121 Superdirective antennas developed over the last century have received r

122 Here, we demonstrate nonreciprocal antenna devices based on atomically thin NbSe(2).

123 Based on this nonreciprocity, our NbSe(2) antenna devices exhibit a reversible nonreciprocal sensi

124 trol of the nonreciprocal sensitivity of the antenna devices has been achieved by applying electromag

125 In the Drosophila antenna, different subtypes of olfactory receptor neuron

126 The detector consists of two orthogonal slot antennas, each loaded with two microbolometers at its ed

127 g NPS-SC4AD-NiB system exhibits an ultrahigh antenna effect (33.1) at a high donor/acceptor ratio (25

128 Additionally, the optical antenna effect of nanowire-based QDHSCs can further enha

129 NH(2)-TPDC photoluminescence was due to the "antenna effect" of Gsp, as evidenced by spectroscopic st

130 0% quantum yield and a signal amplification (antenna effect) of 25.

131 omplex-slotted EBG ground planes between the antenna elements for the performance improvement.

132 cant coupling reduction between the mmW MIMO antenna elements.

133 The antenna ensures a local TF supply, enables gene tracking

134 the resonant coupling between molecular and antenna excitations as well as the spatial extent of the

135 Photoredox quenching of the carbostyril antenna excited states was observed for all Eu(III)-comp

136 (and hence radiation properties), developing antennas exploiting these distributions can challenge co

137 n with multiple CR-absorbing (water-soluble) antenna followed by intramolecular-FRET/TBET energy tran

138 nd used is the presence of a phenylacetylene antenna for optimal chirality recognition and CD/UV resp

139 remain in the development of high-efficiency antennas for biointegrated electronic/optoelectronic sys

140 mples range from dipole, monopole, and patch antennas for far-field RF operation, to magnetic loop an

141 ead to energy-efficient grating couplers and antennas for light detection and ranging.

142 for far-field RF operation, to magnetic loop antennas for near-field communication (NFC), where the k

143 is also beneficial for rapid recognition of antenna from core fucosylation in glycans detected with

144 the hot junction by thermally isolating the antenna from the substrate.

145 cal resonances that endow them with valuable antenna functions.

146 troscopy experiments performed on individual antennas, further supported by electrodynamical simulati

147 e matching, accompanied with moderately high antenna gain, is among the existent challenges.

148 nd grade, RENAL nephrometry score, number of antennas, generator power, and duration of ablation.

149 ight-harvesting devices using plasmonic nano-antenna gratings, that enhance the absorption of light o

150 Conclusion Robotic antenna guidance reduces the need for antenna reposition

151 The proposed SSPP antenna has achieved a continuous through endfire scanni

152 The antenna has been further tested experimentally for scann

153 ethodology, the swore-shaped surface plasmon antenna has both edges corrugated with an array of recta

154 nsisting of densely packed arrays of optical antennas have been demonstrated to provide an effective

155 Plasmonic photoconductive antennas have great promise for increasing responsivity

156 These ME antennas have potential implications for portable wirele

157 Importantly, the molecules and nanodisk antennas have spectrally coincident resonances, and our

158 Noble metals based nano-antennas have the ability to enhance photoinduced phenom

159 Smaller light-harvesting antenna, however, may not exhibit optimal photosynthetic

160 In this paper an automatic adaptive antenna impedance tuning algorithm is presented that is

161 epair economy by preserving intact PSII core antennas in a single complex available for PSII reassemb

162 plate made of anisotropic T-shaped plasmonic antennas in near-infrared wavelength range, where the ac

163 of 37.5 muW, 123 muW and 173 muW received by antennas in the respective locations, while keeping radi

164 The versatility of MXene antennas in wide frequency ranges coupled with the flexi

165 one antenna outside the body, and the other antenna inside the body endoscopically, at the esophagus

166 By incorporating slot-groove antennas into the metal electrode, we show that LED emis

167 The Johnston's organ (JO) in the insect antenna is a multisensory organ involved in several navi

168 The proposed metasurface on-chip antenna is constructed on an electrically thin high-perm

169 n process of an emitter close to a plasmonic antenna is enhanced due to strong local electromagnetic

170 Each directive LWIR antenna is in the form of a three-element Yagi-Uda array

171 The structure of each antenna is optimized to act both as the collector of the

172 The metasurface on-chip antenna is shown to exhibit an average measured gain in

173 the proposed GaAs-based metasurface on-chip antenna is viable for applications in terahertz integrat

174 ure or function of primary cilia, ubiquitous antenna-like organelles essential for cellular signal tr

175 they dynamically localize in primary cilia, antenna-like solitary organelles present on most cells.

176 These antenna-like structures are synthesized by intraflagella

177 Cilia are small, antenna-like structures on the surface of eukaryotic cel

178 l light sources, the potential damage of the antennas limits their use with high power lasers: this l

179 he temperature difference between a resonant antenna locally heated by infrared radiation and the sub

180 ion efficiency of a 5.5 um thick MXene patch antenna manufactured by spray-coating from aqueous solut

181 es, arising from interference of 2 radiating antenna modes differently coupling light out of the nano

182 y parameters and to address the influence of antenna morphology and excitation wavelength on polariza

183 ips) that are homologous to light-harvesting antenna of plants and algae.

184 ny areas of science and technology, from the antennas of interferometric gravitational wave detectors

185 The gradient-index (GRIN) Luneburg lens antenna offers significant benefits, e.g. high aperture

186 orders of magnitude smaller than electrical antennas offers the promise for orders of magnitude effi

187 sing system uses two facing microstrip patch antennas operating at 60 GHz, which are placed across in

188 To overcome this problem, Mechanical Antennas or 'Mechtennas' for Ultra Low Frequency Communi

189 Thus, the antenna organization of centric diatoms, as well as the

190 vo in five anesthetized pigs, by placing one antenna outside the body, and the other antenna inside t

191 b lines exhibit a truncated light-harvesting antenna phenotype with reduced amounts of light-harvesti

192 otein dephosphorylation and the more complex antenna phosphorylation patterns in C. reinhardtii compa

193 In particular, a subwavelength loop antenna, placed underneath the matching layer, efficient

194 pare the accuracy of freehand versus robotic antenna placement in CT-guided microwave ablation (MWA)

195 a concentric circular ring plasmonic optical antenna (POA) array using a simple lumped coupled circui

196 s and circuits, thinned silicon ICs, printed antennas, printed energy harvesting and storage modules,

197 tonal organs (Johnston's organ) of the adult antenna project into the centrolateral neuropil column o

198 in the minor light harvesting complex (LHC) antenna protein LHCB6, which was dependent on STN8 kinas

199 to investigate the mus dynamics of this key antenna protein of plants.

200 he PSII subunits (psbA, psbB, and PSBW), the antenna proteins (LHCA1, LHCB1, and LHCB4), the ribulose

201 Photosynthetic antenna proteins can be thought of as "programmed solven

202 t-protein complex does contain the PSII core antenna proteins CP47 and CP43, as well as most of their

203 Diatoms contain higher numbers of antenna proteins than vascular plants for light harvesti

204 io-temporal encoding model of the Drosophila antenna provides a theoretical foundation for understand

205 A cavity etched under the antenna provides two benefits.

206 ansition from noble metals to aluminum based antenna-reactor heterostructures in plasmonic photocatal

207 -abundant embedded aluminum in cuprous oxide antenna-reactor heterostructures that operate more effec

208 of small, stretchable, radio frequency (RF) antennas realized using these strategies compare favorab

209 to the regulatory sites in proximity of the antenna region, NADH acts as a positive allosteric modul

210 The position of the antenna relative to the excitation field determines its

211 roup of inhibitory primary interneurons, the antenna relay neurons (antRNs), which then project asymm

212 obotic antenna guidance reduces the need for antenna repositioning in microwave ablation to accuratel

213 In the robotic arm, no antenna repositioning was required.

214 The primary outcome was the number of antenna repositionings, which was compared by using the

215 Miniaturized, stretchable antennas represent an essential link between such device

216 However, the highest radiation efficiency antennas require size at the scale of the wavelength (he

217 (MOFs), can emulate the functionality of the antenna rings of chlorophylls in light-harvesting comple

218 del reveals the mutual couplings between the antenna rings.

219 The low dissipation and the antenna's subwavelength spatial definition could facilit

220 c components, including transistors, diodes, antennas, sensors, and even batteries.

221 dedicated moving transmitting and receiving antenna set-up.

222 nctional 3D devices including reconfigurable antenna, shape-shifting structures, and microfluidics.

223 , the fundamental reduction in efficiency as antenna size decreases below a wavelength (30 m at 1 MHz

224 rescence spectroscopy indicated that the PSI antenna size in vivo is even larger than that of the pur

225 nters, and an increase in the relative LHCII antenna size of photosystem I (PSI) compared to PSII.

226 int where further reductions or increases in antenna size reduce photosynthetic efficiency, tolerance

227 sted a constitutively small light-harvesting antenna size relative to other green algae.

228 ed that there is an optimal light-harvesting antenna size that results in the greatest whole plant ph

229 This organization maximizes the antenna size while maintaining fast excitation energy tr

230 eased pigmentation and larger photosystem II antenna size.

231 By surveying a range of light harvesting antenna sizes achieved by reduction in chlorophyll b lev

232 Plants with optimized antenna sizes are shown to perform well not only in cont

233 levels and correspondingly light-harvesting antenna sizes by light-activated Nab1 repression of CAO

234 ystem to dynamically adjust light-harvesting antenna sizes for enhanced photosynthetic performance.

235 Significantly, algae having light-regulated antenna sizes had substantially higher photosynthetic ra

236 ve been linked to regulation of the relative antenna sizes of PSI and PSII (state transitions), the P

237 The bulk acoustic waves in ME antennas stimulate magnetization oscillations of the fer

238 lectron mobility transistor (HEMT) with nano antenna structures was fabricated and demonstrated to be

239 gy transfer, in particular multichromophoric antenna structures, is shown to vary depending on the sp

240 -LHCI supercomplex can bind up to eight Lhcr antenna subunits, which are organized as two rows on the

241 This 2-MDa photosystem-antenna supercomplex structure reveals more than 700 pig

242 Harvesting Complexes (LHC), constituting the antenna system of both photosystem I (PSI) and PSII.

243 Therefore, the light-harvesting antenna system of photosystem II in thylakoid membranes,

244 Antenna systems serve to absorb light and to transmit ex

245 ding to EET optimization of light-harvesting antenna systems while exploring the structure and functi

246 , electric field meters, fast electric-field antenna systems, and for two seasons, a Lightning Mappin

247 ads to energy quenching in both PSI and PSII antenna systems.

248 , bearing two specific picolinate two-photon antennas (tailor-made for each targeted metal) and one a

249 s significant development over other on-chip antenna techniques reported to date.

250 metamaterials, when applied to conventional antenna technology, can provide significant performance

251 Such DNA organization operates as an antenna that attracts TF molecules in a promiscuous exch

252 re, we introduce a low-profile bidirectional antenna that can be mounted on a large ground plane and

253 This performance is unprecedented for an antenna that has seen widespread use, but few design cha

254 Nano-antennas are replicas of antennas that operate at radio-frequencies, but with con

255 The flagellum has been recognized as an "antenna" that plays a core role in sensing environmental

256 expressed in multiple tissues, including the antenna, the male reproductive glands and is transferred

257 he ratio of the resistance change in the two antennas, the angle of arrival of the LWIR signal can be

258 s are related to the currents in the optical antennas, the LCC model provides a useful tool for the a

259 Fluorescent molecules are like antennas: The rate at which they absorb light depends on

260 to structure the near field rely on optical antenna theory, involving nanostructures that locally co

261 l printing are both suitable for fabricating antennas; these different techniques are most useful at

262 preferentially flow along either edge of the antenna to a different extent.

263 the system hardware, requiring only a single antenna to achieve DoA estimation.

264 n transfer from the excited light-harvesting antenna to Eu(III) was investigated.

265 device, by efficient coupling of a plasmonic antenna to hyperbolic phonon-polaritons in hexagonal-BN

266 s, energy is transferred from photosynthetic antenna to reaction centers via ultrafast energy transfe

267 the electric and magnetic resonances of such antennas to achieve a very strong dependence of the opti

268 Finally, we use these antennas to create passive sensor tags and demonstrate o

269 orms all other materials evaluated for patch antennas to date.

270 ications ranging from optical waveguides and antennas to signal-enhanced fluorescent sensors.

271 mission line lengths required to connect the antennas to the lens for maximum re-radiation power is d

272 ically employed for cooling cellular network antennas) to achieve up to ~87% parahydrogen enrichment

273 -harvesting complexes, mimicking the modular antenna/transducer architecture of natural photosystems,

274 conditions and binds to the light-harvesting antenna, triggering the dissipation of captured light en

275 In addition, pencil-paper-based antennas, two-dimensional (2D) and three-dimensional (3D

276 anding of humidity sensing in the Drosophila antenna, uncover a neuronal substrate for early sensory

277 This paper presents a novel on-chip antenna using standard CMOS-technology based on metasurf

278 A paradigm shift to piezoelectric antennas utilizing strain-driven currents at resonant wa

279 diates to the far-field by coupling with the antenna via plasmonic states, whose presence increases t

280 ified Luneburg lens antenna, an example lens antenna was designed at Ka-band (26-40 GHz) and fabricat

281 Electromagnetic performance of the lens antenna was experimentally demonstrated.

282 MoS(2) rectifier with a flexible Wi-Fi-band antenna, we fabricate a fully flexible and integrated re

283 the Eu(III) center and the light-harvesting antenna were studied using cyclic voltammetry and steady

284 These antennas were then characterized in vivo in five anesthe

285 lications of these structures are leaky-wave antennas which utilize the low frequency dependence.

286 ternal oscillatory current to drive a dipole antenna, which radiates into free space.

287 the incident radiation reflected back to the antenna, which significantly increases the detector sens

288 inates more than 90 chlorophylls in its core antenna while achieving near perfect quantum efficiency.

289 Using a leaky-wave antenna with a broadband transmitter, we demonstrate a s

290 ange of resistance is sensed by biasing each antenna with a constant DC voltage and measuring the cha

291 er, we presented the four-element MIMO patch antenna with different types of EBG structures for the m

292 + Cu straight, 2r-rs strongly reclival, and antenna with homonomous flagellum, revealing new and imp

293 esting that the putative association of this antenna with the PSI supercomplex is absent or may be lo

294 Ultra-lightweight deployable antennas with high-gain are pivotal communication compon

295 lines with low-energy attenuation and patch antennas with high-power radiation at frequencies from 5

296 ndex dielectric gallium phosphide (GaP) nano-antennas with small mode volumes coupled to atomic mono-

297 sonances have enabled a new class of optical antennas with unprecedented functionalities.

298 ar systems, such as certain light-harvesting antennas, with cartwheeling charge motion upon excitatio

299 Small and portable ULF antennas within a diameter of 1 meter would operate unde

300 at extend the effective aperture area of the antenna without affecting its dimensions, and the concen