ライフサイエンスコーパス: nanorod

1 etics are maintained within the neighbouring nanorod.

2 oustic signals, compared to a plasmonic gold nanorod.

3 loy different editors to modify the original nanorod.

4 epends on the spatial separation between the nanorods.

5 d samples, showed arrangement of fibers into nanorods.

6 epitaxial growth on the tips of rutile TiO2 nanorods.

7 ng and cooling rates disappears for small MG nanorods.

8 he unique heterophase characteristic of gold nanorods.

9 compared to that from an ensemble of random nanorods.

10 rg-Gly-Asp (RGD) peptide-functionalized gold nanorods.

11 shells on PEG-disulfide functionalized gold nanorods.

12 provide the aspect ratio and the size of the nanorods.

13 atalytic activities on single titanium oxide nanorods.

14 d magnetic nano-clusters and radiopaque gold nanorods.

15 ompared to that of the conventional fcc gold nanorods.

16 ics of vertically aligned assemblies of gold nanorods.

17 ded growth of chiral platinum shells on gold nanorods.

18 for the chiral three-dimensional assembly of nanorods.

19 lationships in electrochromic tungsten oxide nanorods.

20 oth endogenous (melanin) and exogenous (gold nanorods) absorbers.

21 we report the synthesis of miniaturized gold nanorods absorbing in the NIR-II that are 5-11 times sma

22 nal transition of CdSe using single nanowire/nanorod absorption spectroscopy.

23 As a result, the dual-doped Ni, Zn CoO nanorods achieve current densities of 10 and 20 mA cm(-2

24 le 800CW fluorophore), a polymer-coated gold nanorod acting as a plasmonic antenna and biotin as a hi

25 Further, silver nanorod (Ag NR) was identified as a photosensitizer and

26 tive rapid detection of H2S gas using silver nanorods (AgNRs) arrays on glass substrates at ambient c

27 The silver nanorods (AgNRs) arrays sensors were fabricated by glanc

28 nd transported nanorods; in the second mode, nanorods aligned along the tori's self-generated streaml

29 ctions designed into colloidal semiconductor nanorods allow both efficient photocurrent generation th

30 cal system; free electrons pass a magnetized nanorod and far-field electron diffraction is observed.

31 on transport is not confined within a single nanorod and may provide a paradigm shift for one-dimensi

32 tron density is distributed through the gold nanorod and partially localized on the protonated suppor

33 y adopted to assess the toxicity of CdSe/CdS nanorods and CdTe QDs.

34 ally observe 113 individual heterostructured nanorods and demonstrate the scalable production of thre

35 Longer nanorods tint darker than shorter nanorods and exhibit a Li-ion gradient that increases fr

36 bioinspired hybrids with near-infrared gold nanorods and folic acid can serve as molecular high-cont

37 temperature expedites random curving of ZnO nanorods and forms nano-worms.

38 The nonspherical nanoparticles like gold nanorods and hexagonal boron nitride nanosheets were als

39 at the nanoscale, using metallic glass (MG) nanorods and in situ transmission electron microscopy.

40 This method uses plasmonic gold nanorods and interferometric reflectance imaging to dete

41 visible microspheres that included both gold nanorods and magnetic clusters.

42 hape transformation of Au@Ag core-shell NPs (nanorods and nanocubes) into octahedral nanorattles via

43 ous nanoantennas such as V-shape structures, nanorods and nanoslits.

44 y give insight into the interactions between nanorods and the stability of their assemblies, thereby

45 e observations that physical contact between nanorods and virus particles was not required for viral

46 , graphene, MoS(2) ), metal oxides (e.g., Zn nanorods), and conducting polymers (e.g., poly(3,4-ethyl

47 y used morphologies: nanostars, nanospheres, nanorods, and nanoplates is designed.

48 raft a variety of plain nanorods, core-shell nanorods, and nanotubes with precisely controlled dimens

49 o selectively functionalize the ends of gold nanorods, and robust methods are developed to reliably d

50 rystallization experiments on metallic glass nanorods, and show that structural ordering strongly aff

51 ion in the KRAS gene were conjugated to gold nanorods, and the localized surface plasmon resonance ab

52 Unexpected etching of nanocrystals, nanorods, and their heterostructures by one of the most

53 ed surface plasmon resonance (LSPR) modes in nanorod antennas.

54 Smectic-like ordering of the nanorods appears very early in the process, as soon as n

55 nanosecond pulsed laser illumination, small nanorods are about 3 times more thermally stable and gen

56 ectrochemical activity of single-crystal CoO nanorods are in the oxygen vacancies that can be readily

57 Uniquely, the nanorods are intrinsically photoacoustic and phototherma

58 edox tag, the volume and surface area of the nanorods are measured, and provide the aspect ratio and

59 The resulting thiolate-NHC-stabilized gold nanorods are stable towards excess glutathione for up to

60 Magnetic-plasmonic hybrid Fe(3) O(4) /Ag nanorods are synthesized using an unconventional templat

61 sensors were assembled onto a patterned ZnO nanorod array deposited on the synthetic silicone hydrog

62 nsity femtosecond lasers with aligned copper nanorod array targets.

63 The silver nanorods array fabricated by glancing angle deposition t

64 ond optical nonlinearity of indium tin oxide nanorod arrays (ITO-NRAs) following intraband, on-plasmo

65 Here Ti nanorod arrays (TNrs) with different densities were prod

66 l reactions on electrochemically grown metal nanorod arrays in porous anodic aluminum oxide templates

67 -cell fusion using bulk metallic glass (BMG) nanorod arrays with varying biophysical cues, i.e. nanot

68 tipole plasmon modes for closely spaced gold nanorod arrays, offering a new insight into the higher o

69 free colorimetric assay using palladium-gold nanorod as nanozyme is reported for malathion detection.

70 ied effective models by describing a pair of nanorods as a single effective metamolecule.

71 Here, using gold nanorods as model plasmonic systems, InAs quantum dots (

72 ally functionalize the ends or the side of a nanorod, as well as the gaps between two rods, with diff

73 ported other artificial swimmers, bimetallic nanorods, as well as passive colloidal particles.

74 -Au single crystals, and two-dimensional MOF nanorod assemblies.

75 Gold "Janus" nanorods (Au JNRs), partially coated with silica to enha

76 , gold triangular nanoprisms (Au TNPs), gold nanorods (Au NRs), and gold spherical nanoparticles (Au

77 also facilitate loading the prodrug on gold nanorod (AuNR)-encapsulated graphitic nanocapsule (AuNR@

78 report the controlled encapsulation of gold nanorods (AuNRs) by a scu-topology Zr-MOF, via a room-te

79 proach that utilizes DNA-functionalized gold nanorods (AuNRs) in an indirect competitive assay format

80 e encapsulated with antibody-conjugated gold nanorods (AuNRs) in droplets to evaluate their secretion

81 Here, we report on the self-assembly of gold nanorods (AuNRs) into 2D films at the vapor/liquid inter

82 multifunctional nanocomposite system of gold nanorods (AuNRs) was developed.

83 phene) (P3HT) nanoribbons and plasmonic gold nanorods (AuNRs) were crafted by a co-assembly of thiol-

84 Gold nanorods (AuNRs) were first loaded into PLTs by electrop

85 s) with diameters from 1.2 to 25 nm and gold nanorods (AuNRs) with aspect ratios from 1.4 to 3.9.

86 Among plasmonic nanoparticles, gold nanorods (AuNRs) with specific dimensions enabling them

87 0.20 wt% poly(ethylene glycol)-modified gold nanorods (AuNRs) without apparent aggregation is demonst

88 Gold nanorods (AuNRs)-assisted plasmonic photothermal therapy

89 ld of the obtained NPs, which in the case of nanorods avoids the need for additives such as Ag(+) ion

90 Since this GaN nanorod-based PhC slab is designed for practical light e

91 Here we present a gold nanorod-based platform for the sequence-specific detecti

92 We report a hexagonal GaN nanorod-based two-dimensional photonic crystal (PhC) sla

93 articles (NPs), with preselected morphology (nanorods, bipyramids, and decahedra) and aspect ratio.

94 d near-infrared light sensitivity using gold nanorods bound to temperature-sensitive engineered trans

95 ic optical perturbation that are confined by nanorod boundaries, modelled as finite cylindrical poten

96 he tetragonal superlattice of octagonal gold nanorods, breaking through the only hexagonal symmetry o

97 ct tinting dynamics and reversibility as the nanorod building blocks are assembled into a thin film.

98 the potential use of such emerging dual mode nanorod bundles as photon sources for next generation fl

99 ting/downshift Y1.94O3:Ho(3+)0.02/Yb(3+)0.04 nanorod bundles by a facile hydrothermal route has been

100 These luminescent nanorod bundles exhibit strong green emission at 549 nm

101 lop a hierarchically ordered array of silver nanorod bundles for surface-enhanced Raman scattering (S

102 A hierarchically ordered array of Ag-nanorod bundles is achieved using an inexpensive binary-

103 cence intensity distribution in upconverting nanorod bundles using confocal microscopy is reported.

104 photoluminescence microscope throughout the nanorod bundles.

105 ional single-crystal cobalt (II) oxide (CoO) nanorods by creating oxygen vacancies on pyramidal nanof

106 performance of chemical bath deposited TiO2 nanorods by decorating Pd nanoparticle catalyst.

107 plex patterns of high quality single crystal nanorods can be formed in-situ with significant advantag

108 of the outermost surface of cobalt(II) oxide nanorods can turn them into efficient electrocatalysts f

109 Transferrin-coated endocytic gold nanorod cargoes initially undergo active rotational diff

110 Photoexcited electrons from cadmium sulfide nanorods (CdS NRs) transfer to 2-oxoglutarate:ferredoxin

111 ed on dual signal amplification by CeO(2)@Ir nanorods (Ce@IrNRs) and enzyme-free DNA walker, a novel

112 ssembled novel stair-like and coil-like gold nanorod chiral metastructures, which is strongly affecte

113 e of the colloidal stability of side-to-side nanorod clusters.

114 rystals (such as gold nanoparticles and gold nanorods) coated with mixed hydrophilic and hydrophobic

115 on conditions to provide multi-coloured gold nanorod conjugates.

116 The gold nanorod conjugation with antibody has enhanced the sensi

117 general strategy to craft a variety of plain nanorods, core-shell nanorods, and nanotubes with precis

118 ropy, the plasmonic excitation of the hybrid nanorods could be collectively regulated using magnetic

119 the polarized emission of individual quantum nanorods coupled to the dynein ring, we determined the a

120 hod incorporates the structural advantage of nanorod-covered interdigitated electrodes and the micros

121 his problem, we conjugate the phages to gold nanorods, creating a reagent that can be destroyed upon

122 ges with the photothermal properties of gold nanorods, creating a well-controlled platform for system

123 As an example, copper nanorods (CuNRs) are successfully grown in a limited spa

124 Dual-functional cupric oxide nanorods (CuONRs) as peroxidase mimics are proposed for

125 ing the chiral directional "bonding" of gold nanorods decorated by the surface adapter.

126 he novel formulation contains 50-100 nm long nanorods decorated with two types of glycomimetic polyme

127 estigations reveal that the heterophase gold nanorods demonstrate a distinct optical property compare

128 By controlling the MG nanorod diameter and crystallization kinetics, we can tu

129 that are heated versus cooled decreases with nanorod diameter and vanishes for very small rods.

130 d nanorod heights while the influence of the nanorod diameter is relatively insignificant.

131 and dynamic control over an assembly of gold nanorods dispersed in liquid crystals (LC) is demonstrat

132 ng tumour-bearing mice, these small targeted nanorods display a 30% improvement in efficiency of agen

133 m when the electric double layer between the nanorods does not overlap.

134 ertion in hexagonal tungsten oxide (h-WO(3)) nanorods during chronoamperometry and cyclic voltammetry

135 ladder cancer using the NMP22 MIP-coated ZnO nanorods electrodes that were integrated into a portable

136 orientational ordering of the semiconductor nanorods emerge from competing long-range elastic and el

137 having both an (active) blue-color-emitting nanorod emitters and a (passive) normal reflector of pho

138 it a Li-ion gradient that increases from the nanorod ends to the middle.

139 improves the overall performance of a given nanorod--even though more improvement in photocurrent ef

140 Single nanorods exhibit a particle-dependent waiting time for t

141 These CoO nanorods exhibit superior catalytic activity and durabil

142 of well-defined heterophase fcc-2H-fcc gold nanorods (fcc: face-centred cubic; 2H: hexagonal close-p

143 The utility of luminomagnetic nanorods for biological applications in high-contrast ce

144 We also demonstrate the utility of these nanorods for in vitro photothermal therapy.

145 ificant advantages over competing methods of nanorod formation for plasmonics, energy storage and sen

146 Nanorod formation involves cobalt nucleation, a fast ato

147 Mixed micelles adsorb on gold nanorods, forming quasihelical patterns that direct seed

148 ope to observe the transformation of an HfO2 nanorod from monoclinic to tetragonal, with a transforma

149 Particularly, we template nanorods from a mixture of superparamagnetic Zn0.2Fe2.8O

150 paramagnetism of Zn0.2Fe2.8O4 prevents these nanorods from spontaneous magnetic-dipole-induced aggreg

151 be a novel two step method to construct gold-nanorod functionalized polydiacetylene (PDA) microtube f

152 c coupling between PCN and [001]-oriented HP nanorods gave rise to the enhanced visible light absorpt

153 cancer cells with goserelin-conjugated gold nanorods (gGNRs) promotes gonadotropin releasing hormone

154 An innovative gold nanorod (GNR) array biochip was developed to systematica

155 thiolated pH-responsive DNA conjugated gold nanorod (GNR) was developed as a multifunctional nanocar

156 ed stem cells (ADSC) were labelled with gold nanorods (GNR) and injected into the renal artery using

157 Here, we present the use of gold nanorods (GNR) with the localized Surface Plasmon Resona

158 Gold nanorods (GNRs) are a well-defined functional building b

159 rties, tunability and biocompatibility, gold nanorods (GNRs) are being investigated as multifunctiona

160 based on thiolated probe-functionalized gold nanorods (GNRs) decorated on the graphene oxide (GO) she

161 switchable, light-dependent effects of gold nanorods (GNRs) on paramagnetic properties of nitroxide

162 face-functionalized with an IR 808 dye, gold nanorods (GNRs), and gold nanourchins (GNUs), were studi

163 sensing weakly constrained diffusion of gold nanorods (GNRs).

164 hermal therapy of anti-CD11b Abs-linked gold nanorods (GNRs-CD11b) are combined to treat the carcinom

165 , GNPs; silver nanoparticles, SNPs; and gold nanorods, GNRs) were imaged and sliced in the z-directio

166 ntal data provide critical insights into the nanorod growth mechanism and unequivocal evidence for a

167 soon as nanoparticle elongation appears, and nanorod growth takes place inside organized superlattice

168 Gd2O3:Eu(3+) nanorods have been characterized by studying its structu

169 owth of hierarchical supercrystals of cobalt nanorods have been studied by in situ tandem X-ray absor

170 Magnetic-plasmonic hybrid nanorods have been synthesized through a unique space-co

171 65,520 distinct multicomponent metal sulfide nanorods having as many as 6 materials, 8 segments, and

172 ing as densely populated small clusters in a nanorod heated from the glass state, and similar behavio

173 eatly tuned by changes in inter-rod gaps and nanorod heights while the influence of the nanorod diame

174 e of plasmonically active silver-coated gold nanorods (henceforth referred to as plasmonic nano vecto

175 we show how both goals can be achieved in a nanorod heterostructure with type-II band offsets.

176 Four distinct classes of VO2 -TiO2 -VO2 nanorod heterostructures are accessible by modulating th

177 nder the PhC slab is employed to sustain the nanorods in the PhC slab.

178 into a unique type of microphase-segregated nanorods in water.

179 nstrating anisotropic silica coating of gold nanorods in which silica is deposited only on the sides

180 ion of Se precursors to the partially etched nanorods in Zn oleate solution can lead to epitaxial gro

181 l mode, the tori accumulated and transported nanorods; in the second mode, nanorods aligned along the

182 small systems of strongly coupled plasmonic nanorods, including the cases of both super-radiant and

183 ntional mechanochromic films based on hybrid nanorods integrated with magnetic and plasmonic anisotro

184 studies demonstrate the high accumulation of nanorods into HeLa cells whereas viability analysis supp

185 etration of functionalized, fluorescent gold nanorods into large (>500 mum) multicellular 3D tissue s

186 tates convenient incorporation of the hybrid nanorods into polymer films with a well-controlled orien

187 arvesting nanoparticles, carbon black and Au nanorods, into a highly transparent curable polymer.

188 When the nanorod is annealed, we observe with atomic-scale resolu

189 via coherent transformation dislocation; the nanorod is reduced to hafnium on cooling.

190 The LPG response of 21% for pristine TiO2 nanorods is enhanced to 49% after Pd catalyst decoration

191 in uniform, one-dimensional brookite titania nanorods is highly enhanced by engineering their length.

192 unimaginable complexity in heterostructured nanorods is now routinely achievable with simple benchto

193 ulfur and hydrocarbons to the surfaces of Ag nanorods is observed when they are stored in ambient ove

194 The nanorod length is varied such that the m = 1, 2, and 3 L

195 A further increase in the nanorod length leads to a decrease in the THz pulse ener

196 identify unique contrast agents: large gold nanorods (LGNRs).

197 all-solution-processed double-heterojunction nanorod light-responsive light-emitting diodes open feas

198 Photoresponsive hybrid gold nanorod-liquid crystalline matrices were prepared and lo

199 We report unexpected inter-nanorod lithium-ion transport, where the reaction fronts

200 tumors were analyzed by incorporating a gold nanorod-locked nucleic acid biosensor.

201 t reagents for the functionalization of gold nanorod materials are reported.

202 the rational synthesis of a heterostructured nanorod megalibrary.

203 This electrically driven plasmonic nanorod metamaterial platform can be useful for the deve

204 hexagonal-cubic core-shell architecture with nanorod morphology, the concentric CdS nanorod phase jun

205 he effect of PEGylation of mesoporous silica nanorods (MSNR) on hemolysis, colloidal stability, mitox

206 Such conjugated polymer/plasmonic nanorod nanocomposites may find applications in fields,

207 l-defined morphologies (e.g., nanoparticles, nanorods, nanocubes and nanowires) and controlled crysta

208 fying concepts of 1D-photoanodes (nanotubes, nanorods, nanofibers, nanowires) based on titania, hemat

209 dopted for synthesizing Ta2O5 nanoparticles, nanorods, nanotubes and nanowires while Ta2O5 nanofibers

210 hesize extended gold nanostructures, such as nanorods, nanowires and nanosheets, with nanosecond coal

211 Tin oxide nanorods (NRs) are vapour synthesised at relatively lowe

212 Herein, for gold nanorods (NRs) capped with end-grafted nonchiral polymer

213 ce plasmon resonance (LSPR) excitation of Au nanorods (NRs) dramatically improves the electrocatalyti

214 es (NPs) in the presence of 40 x 5 nm WO2.72 nanorods (NRs) for the synthesis of AgPd/WO2.72 composit

215 synthesis of multimetallic phosphide CoMP(x) nanorods (NRs) wherein M can be controlled to be Fe, Ni,

216 sition-metal (M)-doped brookite-phase TiO(2) nanorods (NRs) with unprecedented wide-range tunability

217 Initially, the different compositions of ZnO nanorods (NRs), with varying content of carbon nanostruc

218 Rod-shaped ZnSe nanocrystals (nanorods, NRs) with a Ni(BF(4) )(2) co-catalyst suspende

219 ticles are constituted by the aggregation of nanorods of akaganeite.

220 responses to different wavelengths, by using nanorods of different lengths, and to different radiant

221 In CdS nanorods of non-uniform width, we observe the recombinat

222 es the arrangement of spatially varying gold nanorods on a flexible, conformable epoxy resist membran

223 also investigated by generating cylindrical nanorods on a planar electrode.

224 ercome such challenge, we propose to form Ti nanorods on their surface to promote the new bone format

225 , since they provided a better response than nanorods or nanospheres.

226 attainable even using confined nanocrystals, nanorods or nanowires.

227 dipoles placed in the gap between a metallic nanorod, or nanosphere, and a metallic substrate.

228 ally, e.g., self-assembled nanoparticles and nanorods, or introduced by postsynthesis particle irradi

229 Various nanorod orientations are also investigated to explore re

230 ed by the spatial arrangement of neighboring nanorod pair.

231 Importantly, DNA-modified porphyrinic MOF nanorods (PCN-222) were assembled into 2D superlattices

232 with nanorod morphology, the concentric CdS nanorod phase junctions (NRPJs) obtained demonstrate ext

233 in imaging the near field of the full set of nanorod plasmon modes of either parity.

234 rocatalyst based on amorphous RuTe(2) porous nanorods (PNRs) is successfully fabricated.

235 Moreover, the heterophase gold nanorods possess superior electrocatalytic activity for

236 cation-exchange reactions to copper sulfide nanorod precursors.

237 evation angles of anisotropic plasmonic gold nanorod probes in live cells.

238 nd the ratio of the polymer ligand length to nanorod radius.

239 ncrement from the nanoparticle radii and ZnO nanorod random curving gives raise an enhancement in det

240 wing excitation by near-infrared light, gold nanorods release energy through nonradiative decay pathw

241 ed-light-induced photothermal effect of gold nanorods, respectively.

242 consider a such CDSD made of two dissimilar nanorods separated by a thin but finite potential barrie

243 The fabricated silver nanorods show single-crystal structure with a low resist

244 c field can rapidly convect the analyte onto nanorod structured electrodes within a few seconds and e

245 The characteristic time scale for the nanorod-structured electrode increased by the surface en

246 nce spectroscopy measurements for planar and nanorod-structured gold disk electrodes at 100 Hz to 1 M

247 Ps are high surface area macromolecules with nanorod structures constructed from helical arrangements

248 shape of ellipsoidal magnetic nanoparticles (nanorods) subjected to an external AC magnetic field: fi

249 N nanoparticles uniformly decorated on NiMoN nanorods supported on Ni foam, which serves as an eminen

250 ing of the infrared transmission of a hybrid nanorod suspension using an external magnetic field.

251 For copper nanorod targets with a length of 5 mum, a maximum 13.8 t

252 ximum energy enhancement of 28 times for the nanorod targets with a length of 60 mum.

253 ich are efficiently enhanced with the use of nanorod targets.

254 ibute this to the lack of nuclei in small MG nanorods that approach the nucleation length, thus coine

255 ports a degradation mechanism of silver (Ag) nanorods that are used as substrates for surface enhance

256 ce to the dense c-axis self-assembled BaZrO3 nanorods, the elimination of large misoriented grains, a

257 t streptavidin previously conjugated to gold nanorods, the LSPR shift is 26-fold enhanced.

258 such as geometric difference between the two nanorods, their volumes and the barrier width on quality

259 etics, we can tune the number of nuclei in a nanorod, thereby tailoring the resulting crystallization

260 affects crystal growth and is controlled by nanorod thermal history.

261 yl trimethylammonium bromide-stabilized gold nanorods through ligand exchange.

262 Longer nanorods tint darker than shorter nanorods and exhibit a

263 We showcase Adenita by re-using a large nanorod to create a new nanostructure through user inter

264 sulting in the transformation from short CAM nanorods to long CAM-Ag nanofibers (length over 1000 mum

265 so imaged after a systemic injection of gold nanorods to observe their passive accumulation in the re

266 ogical magnetic rotational spectroscopy with nanorods to quantitatively study nucleation of cell aggr

267 ion and biomineral nanoparticle/nanoplatelet/nanorod translation, and crack reorientation at the nano

268 the quantum dynamics of electrons inside the nanorods under a periodic optical perturbation that are

269 mall gaps are formed between adjacent silver nanorods upon solution evaporation.

270 ween the existence and non-existence of gold nanorod utilization was evaluated.

271 ea measurements of pristine TiO2 and Pd:TiO2 nanorods was examined by high resolution transmission el

272 ing performance of pristine TiO2 and Pd:TiO2 nanorods was investigated in different LPG concentration

273 al methods and immobilized on rutile titania nanorods was investigated using aberration-corrected sca

274 of bismuth oxide (Bi2O2.33) nanostructures (nanorods) was developed.

275 ydrogen evolution reaction catalyst of NiMoN nanorods, we have achieved the industrially required cur

276 These BiO nanorods were cast onto mass disposable graphite screen-

277 Gold nanorods were functionalized via polyethylene glycol wit

278 Polyhedral ceria and nanorods were more effective than ceria cubes at anchori

279 ow, [001]-oriented Hittorf's phosphorus (HP) nanorods were successfully grown on polymeric carbon nit

280 ny small gaps are formed between adjacent Ag-nanorods, where "hot spots" are generated.

281 -ion transport within and between individual nanorods, where the impact of oxygen deficiencies is del

282 shaped antennas consisting of two orthogonal nanorods which lengths and coupling strength can be inde

283 ed the catalytic potential of palladium-gold nanorods, which can be employed as nanozyme for developi

284 ) via 805 nm femtosecond pulses through gold nanorods whose localized surface plasmon resonance overl

285 the amount of antigen to be captured, a gold nanorod with 119 nm in length and 25 nm in width was int

286 e 5-11 times smaller than regular-sized gold nanorods with a similar aspect ratio.

287 onal phase of isomorphous ZrO2, has produced nanorods with a twinned version of the room temperature

288 e bundles are composed of several individual nanorods with diameter of 100 nm and length in the range

289 on and forms a porous network, imparting the nanorods with high mechanical strength and polarization-

290 ectrode surface was covered with cylindrical nanorods with known height, diameter, and separation dis

291 ted only on the sides by functionalizing the nanorods with poly(ethylene glycol) methyl ether thiol (

292 ng an array of electrically driven plasmonic nanorods with up to 10(11) tunnel junctions per square c

293 inding the center in asymmetric cases (i.e., nanorods) with high precision and accuracy.

294 luminomagnetic Gd2-xEuxO3 (x = 0.05 to 0.5) nanorod, with a diameter of ~20 nm and length in ~0.6 mu

295 results in reproducible formation of shaped nanorods, with independent control over their density an

296 the evolution of the orientational order of nanorods within side-to-side 2D assemblies and shows tha

297 to non-spherical nanomaterials, such as gold nanorods, would greatly expand their utility as surface

298 We developed nickel-capped zinc oxide nanorod (ZnO/Ni NR) structures by e-beam evaporation of

299 lopment of immunosensor photoluminescent ZnO nanorods (ZnO-NRs) were deposited on glass substrate.

300 Herein, we demonstrate a Zinc Oxide nanorods (ZnONRs) integrated ultrasensitive label-free b