ライフサイエンスコーパス: tin oxide

1 nductive inorganic materials (such as indium tin oxide).

2 comparable to those fabricated using indium tin oxide.

3 d on chips coated with either gold or indium-tin oxide.

4 d yield become close to devices using indium tin oxide.

5 rresponding parameters for commercial indium-tin oxide.

6 ce > 70%) that are rivalling those of indium-tin oxide.

7 sordered monolayers consisting of alkyls and tin oxide.

8 ast a similar workfunction to that of Indium Tin Oxide.

9 onductive, transparent amorphous zinc indium tin oxide (a-ZITO) electrodes.

10 ate dielectric with an amorphous zinc-indium-tin oxide (a-ZITO) transparent oxide semiconductor (TOS)

11 z, and to conductor supports, such as indium tin oxide, aluminum, highly ordered pyrolytic graphite,

12 omposite thin film sandwiched between indium tin oxide and indium-gallium eutectic alloy exhibit a lo

13 ent conducting oxides (TCOs), such as indium tin oxide and zinc oxide, play an important role as elec

14 by drop-casting 1a in DCM on fluorine-doped tin oxide, and the ECL of the 1a film was found in phosp

15 A novel titanium/indium tin oxide annealed alloy is exploited as transparent ohm

16 0) cm(-2) at the interface between an indium tin oxide anode and the common small molecule organic se

17 n other transparent materials such as indium tin oxide ( approximately 80%) and ultrathin metals ( ap

18 considered a promising alternative to indium tin oxide as transparent conductors.

19 ade from graphene (at the bottom) and indium tin oxide (at the top) for dielectrophoretic cell trappi

20 ilized the metal particles on antimony-doped tin oxide (ATO) in sustained lower Ir oxidation states (

21 Five tin oxide-based Taguchi Gas Sensors were applied in the

22 We present indium-tin-oxide-based photocurrent measurements that reveal a

23 of naphthalenediimides were grown on indium tin oxide by ring-opening disulfide-exchange polymerizat

24 We report that indium tin oxide can acquire an ultrafast and large intensity-d

25 mit of transparent conductors such as indium tin oxide, carbon-nanotube films, and doped graphene mat

26 ical cell comprising an fcc3-modified indium tin oxide cathode linked to a cobalt phosphate-modified

27 = 8 to 50 nm) to amine-functionalized indium-tin oxide coated glass electrodes (Glass/ITO), obtaining

28 electrophoretically deposited on the indium tin oxide coated glass substrate at a low DC potential.T

29 made from polydimethylsiloxane on an indium-tin oxide coated microscope slide.

30 elluride quantum dots (CdTe-QDs) onto indium-tin-oxide coated glass substrate.

31 n external potential to a transparent indium tin oxide-coated electrode (the substrate), which enable

32 sting of a platinum catalyst layer on indium-tin oxide-coated glass by the application of two differe

33 er Au nanoparticles (NPs) attached to indium tin oxide-coated glass electrodes in Br(-) and Cl(-) sol

34 ids generated by photochemistry at an indium tin oxide-coated substrate.

35 two electrodes and were fabricated on indium tin oxide-coated substrates (e.g., polyester) simply by

36 solar cells grown directly on fluorine-doped tin oxide-coated substrates without using any hole-block

37 tabilized Au nanoparticles (NPs) onto indium-tin-oxide-coated glass (glass/ITO) electrodes as studied

38 tal oxide film--indium tin oxide or antimony tin oxide--coated with a thin outer shell of TiO2 formed

39 th sputtered intrinsic zinc oxide and indium tin oxide contacts.

40 d that the increased conductivity allows the tin oxide conversion and alloying reactions to both be r

41 Since tin oxides dissolve at low pH values, acidic conditions

42 -aminopropyl-triethoxysilane modified indium tin oxide electrode (ITO/APTES/GO/HSA) has been develope

43 he oxidative polarization of an inert indium tin oxide electrode in phosphate-buffered water containi

44 Each microfabricated indium tin oxide electrode is located in a separate microfluidi

45 tailor-made hierarchically structured indium-tin oxide electrode that gives rise to the excellent int

46 cell, utilizes a transparent fluorine doped tin oxide electrode to sense O2.

47 oparticles (NPs) at the surface of an indium tin oxide electrode.

48 es onto a gold-nanoparticle-patterned indium tin oxide electrode.

49 ectrodeposition protocol on activated indium-tin oxide electrodes (ITO), producing conformal films th

50 rast, P450 BM3 adsorbed on unmodified indium tin oxide electrodes revealed 36% activity by electrode

51 Gold and indium tin oxide electrodes were characterized with respect to

52 Indium tin oxide electrodes were modified with DNA, and the gua

53 ese PCR fragments were immobilized to indium tin oxide electrodes, and oxidation of guanine in the fr

54 coated films of lipids on transparent indium tin oxide electrodes, we formed two-dimensional networks

55 matic assemblies on transparent indium-doped tin oxide electrodes, which are of interest in organic e

56 no catalysis was observed on fluoride-doped tin-oxide electrodes.

57 shown to be diminished by the formation of a tin oxide film on the surface of the mercury-rich gamma

58 he conducted experiments with a 10 nm indium tin oxide film, having plasmonic resonance in the 1500 n

59 been explained by the formation of a barrier tin oxide film, which dissolved only at the lowest pH.

60 Epitaxial indium tin oxide films have been grown on both LaAlO3 and yttri

61 graphene is much higher than that of indium tin oxide films, especially at large incident angles.

62 sembled on a polyethylene naphthalate-indium tin oxide flexible substrate with a PCE of 3.12% is demo

63 tion of pyrene pyrrole onto a fluorine-doped tin oxide (FTO) electrode allowed the targeted orientati

64 tic water oxidation occurs at fluoride-doped tin oxide (FTO) electrodes that have been surface-modifi

65 In this study, we prepare fluorine doped tin oxide (FTO) films by chemical vapor deposition with

66 ne/gold nanoparticles (AuNPs)/fluorine doped tin oxide (FTO) glass electrode.

67 alladium (ZnO/Pt-Pd) modified fluorine doped tin oxide (FTO) glass plate was fabricated for detection

68 lms on transparent conductive fluorine-doped tin oxide (FTO) substrates.

69 on a glass slide covered with fluorine-doped tin oxide (FTO), which acts as a biosensor.

70 (rGO) nanocomposite modified fluorine doped tin oxide (FTO).

71 Illumination of the resulting fluorine-doped tin oxide (FTO)|SnO2/TiO2|-[Ru(a) (II)-Ru(b) (II)-OH2](4

72 rys zeo were deposited on the Fluorine doped tin oxide glass electrode (FTO) by drop-casting method f

73 ctrode is shown to perform as well as indium-tin oxide glass.

74 electrophoretically deposited onto an indium-tin-oxide glass substrate and used for immobilization of

75 material on various surfaces (glass, indium tin oxide, gold) was evaluated with the tape peel-off me

76 Alternatives to indium tin oxide have recently been reported and include conduc

77 graphene electrodes has out-performed indium tin oxide in power conversion efficiency (PCE).

78 ance comparable to that of commercial indium tin oxide in the visible spectrum, but far superior tran

79 izing anti-E. coli antibodies onto an indium-tin oxide interdigitated array (IDA) microelectrode.

80 In all cases, tin oxide is codeposited in submonolayer amounts.

81 erest as an anode material to replace indium tin oxide, is calculated to be a two-dimensional-like me

82 he electron injection barrier between indium tin oxide (ITO) and C70 by 0.67 eV.

83 fabricated from these complexes using indium tin oxide (ITO) and gold contacts appears to be dominate

84 ted by a self-alignment of conducting Indium Tin Oxide (ITO) and rGO layer without etching of the rGO

85 iency solar cells, on semitransparent indium tin oxide (ITO) and titanium dioxide (TiO2) electrodes.

86 The technique is tested with Indium Tin Oxide (ITO) and with poly(3-hexylthiophene) (P3HT) n

87 ional conducting-polymer layer at the indium-tin oxide (ITO) anode.

88 Indium and indium tin oxide (ITO) are extensively used in electronic techn

89 y, slides coated with a thin layer of indium tin oxide (ITO) are the standard substrate for protein i

90 Silver (Ag) metal and indium tin oxide (ITO) are used for the fabrication of the SPR

91 d enzyme coated NPs were deposited on indium tin oxide (ITO) coated flexible polyethylene terephthala

92 s) deposited electrophoretically onto indium tin oxide (ITO) coated glass electrode and have been uti

93 HeLa cells were grown directly on indium tin oxide (ITO) coated glass slides.

94 of NiO nanoparticles deposited on an indium tin oxide (ITO) coated glass substrate serves as an effi

95 n electropolymerisation process on an indium-tin oxide (ITO) coated glass substrate.

96 um selenide quantum dots (QCdSe) onto indium-tin oxide (ITO) coated glass substrate.

97 same Au nanoparticle (AuNP)-modified indium tin oxide (ITO) coated glass surfaces.

98 e (GOx) was immobilized on a modified indium tin oxide (ITO) coated polyethylene terephthalate (PET)

99 ode show superior efficiency to their indium tin oxide (ITO) counterparts because of improved photon

100 The electrodes were indium tin oxide (ITO) covered with a thin layer of poly(3,4-et

101 an optically transparent thin film of indium-tin oxide (ITO) covering the exterior is described.

102 hick) were formed on quartz glass and indium tin oxide (ITO) directly from Nafion-[Ru(bpy)3]2+ Langmu

103 occus elongatus , on a nanostructured indium tin oxide (ITO) electrode and to covalently immobilize P

104 The distribution of current across an indium tin oxide (ITO) electrode can be altered by varying the

105 of affinity-purified antibodies onto indium tin oxide (ITO) electrode chips.

106 gold nanoparticle (AuNP) arrays on an indium tin oxide (ITO) electrode using efficient and low-cost m

107 supported Ru(bda) catalyst on porous indium tin oxide (ITO) electrode.

108 of single redox events on a modified indium-tin oxide (ITO) electrode.

109 of PVDF nanowires-PDMS composite film/indium tin oxide (ITO) electrode/polarized PVDF film/ITO electr

110 this paper we describe fabrication of indium-tin oxide (ITO) electrodes and the design of a ligand th

111 ensitized photocathodes on NiO-coated indium tin oxide (ITO) electrodes and their H2-generating abili

112 was studied at glassy carbon (GC) and indium-tin oxide (ITO) electrodes modified by gold nanoparticle

113 Immobilization on indium tin oxide (ITO) electrodes of 330- and 1200-base pair (b

114 icrochip device that uses transparent indium tin oxide (ITO) electrodes to measure quantal exocytosis

115 consists of nanostructured silver and indium tin oxide (ITO) electrodes which are separated by 5 nm t

116 otube (SWCNT) forests were printed on indium tin oxide (ITO) electrodes.

117 ymeric films on optically transparent indium tin oxide (ITO) electrodes.

118 ference devices using polycrystalline indium tin oxide (ITO) electrodes.

119 ssy Mode Resonances generated by thin indium tin oxide (ITO) films fabricated onto the planar region

120 d zinc-oxide-based semiconductors and indium tin oxide (ITO) gate electrodes.

121 a plano-convex PVC gel micro-lens on Indium Tin Oxide (ITO) glass, confined with an annular electrod

122 ly(aniline) (PANI) films deposited on indium-tin oxide (ITO) have been investigated using electrochem

123 This control is achieved by embedding indium tin oxide (ITO) into these cavities.

124 Whereas indium tin oxide (ITO) is a well-known transparent conductive o

125 e and limited resources of indium for indium tin oxide (ITO) materials currently applied in most of t

126 Monodisperse 11 nm indium tin oxide (ITO) nanocrystals (NCs) were synthesized by t

127 We first synthesize indium tin oxide (ITO) nanocrystals directly on functionalized

128 Indium tin oxide (ITO) nanoparticles were spray-coated on trans

129 t stripping of lead and cadmium on an indium tin oxide (ITO) optically transparent electrode (OTE) we

130 enuated total reflectance at an indium-doped tin oxide (ITO) optically transparent electrode coated w

131 ymer (MIP-FU) films were deposited on indium-tin oxide (ITO) or Au film-coated glass slides, Pt disk

132 ent is demonstrated by various shaped indium tin oxide (ITO) patterns.

133 Indium tin oxide (ITO) reacts with tetra(tert-butoxy)tin to giv

134 Using an indium tin oxide (ITO) sensor platform with a 50 nm Nafion film

135 and disposable immunosensor based on indium-tin oxide (ITO) sheets modified with gold nanoparticles

136 ide (Fe3O4) nanodots fabricated on an indium tin oxide (ITO) substrate via a block copolymer template

137 yt c photo-cross-linked onto an indium-doped tin oxide (ITO) substrate was 8.4 +/- 0.2 s-1, on the sa

138 lightmode spectroscopy (OWLS) and an indium tin oxide (ITO) substrate, we show that asymptotic kinet

139 njugated organic semiconductor on the indium tin oxide (ITO) surface followed by doping with a strong

140 hrome c directly immobilized onto the indium tin oxide (ITO) surface, we measured a reaction rate con

141 Bi NPs were fabricated on indium tin oxide (ITO) surfaces from a bismuth trichloride solu

142 d self-assembled monolayers (SAMs) on indium tin oxide (ITO) surfaces.

143 e was over-coated with a thin film of indium tin oxide (ITO) that served as an optically transparent

144 controlled potential coulometry in an indium tin oxide (ITO) thin-layer electrochemical cell.

145 An optically transparent patterned indium tin oxide (ITO) three-electrode sensor integrated with a

146 An indium tin oxide (ITO) transparent electrical heater is pattern

147 is more electrochemically inert than indium tin oxide (ITO) where ITO undergoes reduction-oxidation

148 We demonstrate Mn CSV using an indium tin oxide (ITO) working electrode both bare and coated w

149 was covalently bound to a transparent indium-tin oxide (ITO) working electrode, which also served as

150 ted by a 20-nm-thick metallic film of indium tin oxide (ITO), a plasmonic material serving as a low-c

151 t, PC-12 cells interacted poorly with indium tin oxide (ITO), poly(L-lactic acid) (PLA), and poly(lac

152 he most common transparent conductor, indium tin oxide (ITO), with a material that gives comparable p

153 Nanoporous films of indium tin oxide (ITO), with thicknesses ranging from 250 nm to

154 Amorphous indium tin oxide (ITO)-based thin-film transistors (TFTs) were

155 utral morpholino capture probes on an indium tin oxide (ITO)-coated glass slide.

156 position of the Co-Pi catalyst on the Indium Tin Oxide (ITO)-passivated p-side of a np-Si junction en

157 d self-assembled monolayers (SAMs) on indium tin oxide (ITO).

158 being considered as replacements for indium tin oxide (ITO).

159 coupled with a nanoscale transducer, indium tin oxide (ITO).

160 The working electrode was composed of indium tin oxide (ITO); the quasi-reference and auxiliary elect

161 For this purpose, we integrate indium-tin-oxide (ITO) as a tunable electro-optical material in

162 oparticles (Au NPs) attached to glass/indium-tin-oxide (ITO) electrodes as a function of particle siz

163 rolactone (PCL) electrospun fibers on indium-tin-oxide (ITO) glass provide a sufficient surface to re

164 A transparent indium-tin-oxide (ITO) nanolens was designed to focus the incid

165 as coupled to an optically absorptive indium-tin-oxide (ITO) substrate can generate >micrometre per s

166 electrophoretically deposited on the indium-tin-oxide (ITO) substrate.

167 ing of TPDSi(2) to PLED anodes (e.g., indium tin oxide, ITO) and its self-cross-linking enable fabric

168 uttered both intrinsic zinc oxide and indium tin oxide layers.

169 nechococcus elongatus on a mesoporous indium-tin oxide (mesoITO) electrode.

170 ptoelectronic properties of colloidal indium tin oxide nanocrystals is reported.

171 High surface area tin oxide nanocrystals prepared by a facile hydrothermal

172 of mesoporous, transparent conducting indium tin oxide nanoparticle (nanoITO) electrodes to prepare b

173 A silver nanowire-indium tin oxide nanoparticle composite and its successful appl

174 tion from an individual semiconductor indium tin oxide nanoparticle is significantly enhanced when co

175 near field localized at its gap; the indium tin oxide nanoparticle located at the plasmonic dimer ga

176 Chemically modified indium tin oxide nanoparticle modified electrodes were used to

177 10(6)-fold compared with an isolated indium tin oxide nanoparticle, with an effective third-order su

178 ub-picosecond optical nonlinearity of indium tin oxide nanorod arrays (ITO-NRAs) following intraband,

179 Tin oxide nanorods (NRs) are vapour synthesised at relat

180 r cells have a p-i-n structure (glass/indium tin oxide/NiO(x)/perovskite/ZnO/Al), in which the ZnO la

181 The sensor consisted of an indium tin oxide optically transparent electrode (ITO OTE) coat

182 tenuation of light passing through an indium tin oxide optically transparent electrode (ITO-OTE) acco

183 ace area conductive metal oxide film--indium tin oxide or antimony tin oxide--coated with a thin oute

184 ing SiO(x) as the active material and indium tin oxide or graphene as the electrodes.

185 l oxides, the most common of which is indium tin oxide, or ITO.

186 ype sensing platform consisting of an indium tin oxide OTE coated with a cation-selective, sol-gel-de

187 hannel integration is the use of gold/indium-tin oxide patterned electrode directly on a porous polym

188 ovskite solar-cell devices made on an indium tin oxide/poly(ethylene terephthalate) substrate via a l

189 conductive transparent electrodes for indium tin oxide replacement, e.g. in light-emitting diodes, or

190 Here we describe the application of tin oxide (SnO(2)) nanowires as an effective treatment a

191 The importance of tin oxide (SnO(x)) to the efficiency of CO(2) reduction

192 In this work, we use tin oxide, SnO2, as a representative anode material to e

193 Sol-gel tin oxide spin-coated on the thermally patterned arrays

194 Spiro-OMeTAD/Au, where FTO is fluorine-doped tin oxide, sTiO2 indicates solid-TiO2, and mpTiO2 is mes

195 In arrays of gold nanoparticles on an indium tin oxide substrate and arrays of 100-nanometer-diameter

196 l shaped of Mn3O4-Cn nanocomposite on indium tin oxide substrate.

197 itions onto conducting glass, fluorine-doped tin oxide substrate.

198 u nanoparticles (Au NPs) deposited on indium tin oxide substrates was investigated.

199 of their counterparts on rigid glass/indium tin oxide substrates, reaching a power conversion effici

200 solvothermally on conductive fluorine-doped tin oxide substrates.

201 This effect arises from a tin oxide surface layer that encapsulates small Pd-rich

202 ieve this first requires showing that indium tin oxide surfaces can be used for SMLM, then that these

203 to glassy carbon, gold, platinum, and indium tin oxide surfaces.

204 rs to enolate acceptors on conductive indium tin oxide surfaces.

205 When anchored to nanoITO (indium tin oxide), the ruthenium chromophore-catalyst assembly

206 Thin films of indium tin oxide-the prototypical transparent electrode materia

207 lue spot electrodeposited on an indium-doped tin oxide thin film as the electrochromic indicator.

208 ast to what was observed for an indium-doped tin oxide thin film coated on quartz.

209 s indicate that electrolyte gating in indium tin oxide triggers a pure electronic process (electron d

210 ectrode based on transparent layer of indium tin oxide was electrochemically modified with a layer of

211 ct a cell, voltage was applied to the indium-tin oxide while simultaneously applying vacuum at the di

212 tner (putidaredoxin) using an antimony-doped tin oxide working electrode.

213 presentative organic semiconductors and zinc-tin-oxide (Zn-Sn-O) as a representative inorganic semico

214 obility, 28.0 cm2 V(-1) s(-1), was from zinc tin oxide (ZTO), with an on/off ratio of 2 x 10(4).