ライフサイエンスコーパス: SWCNT

1 SWCNTs were quantified in intestinal tissues using a NIR

2 agnetic field effects in nano-carbon C(6)(0)-SWCNT bulk heterojunctions at room temperature, where th

3 (mono-Si), the environmental impacts from 1% SWCNT was approximately 18 times higher due mainly to th

4 und to functionalize the less reactive (7,3)-SWCNTs, driving the chemical reaction to near exclusion

5 r and electronic structure, (6,5)- and (7,3)-SWCNTs, we are able to activate the diazoether compound

6 ngth and sharp excitonic transition of (6,5) SWCNTs, we achieve large Rabi splitting (>110 meV), effi

7 ical reaction to near exclusion of the (6,5)-SWCNTs.

8 The slope of a SWCNT electrode in a target concentration range (10(2) 1

9 The slope of a SWCNT electrode in a target concentration range (10(2)~1

10 We have investigated the interactions of a-SWCNTs with heme (FePP), protoporphyrin (PP), coproporph

11 of H2O2, forming CO2 and strongly aggregated SWCNT products that precipitated.

12 odes of GNSs/nanoporous Li4Ti5O12 aggregates/SWCNTs networks, GNSs and SWCNTs serve as conducting bri

13 t of SWCNTs, building uniformly well-aligned SWCNT channels, and enhancement of the electrical perfor

14 ecrease in NIR fluorescence signals) for all SWCNT chiral species reacting with .OH was estimated to

15 ring the nature of surfactant coverage along SWCNT sidewalls, thereby reducing potential physical int

16 iton dissociation and charge transport in an SWCNT network, which have bottlenecked development of ph

17 centers on the surface of the electrode, and SWCNT improves the electrocatalytic activity along with

18 the selective adsorption between agarose and SWCNTs suspended with sodium dodecyl sulfate (SDS).

19 4Ti5O12 aggregates/SWCNTs networks, GNSs and SWCNTs serve as conducting bridges, effectively interwea

20 mum) coated with polyethylenimine (PEI) and SWCNTs were aligned to form a 2 x 2 junction array, func

21 In the first approach, SWCNTs were used in the bottom-up design of sensors as a

22 In the second approach, SWCNTs were decorated with iron oxide nanoparticles.

23 Evidence for a direct interaction between SWCNTs and CYP3A4 was also provided.

24 nt for understanding the interaction between SWCNTs and lipid biocorona.

25 In response to fibrinogen binding, SWCNT fluorescence decreases by >80% at saturation.

26 eoretical maximum for a van der Waals bonded SWCNT junction.

27 by MDSC requires their interaction with both SWCNT and tumor cells.

28 vivo via activation of TGFbeta production by SWCNT-attracted and -presensitized MDSC.

29 e that the oxidation of electron donors by C-SWCNT can be a light-independent source of ROS in water,

30 In the same suspensions (i.e., containing C-SWCNT, NADH, and O2), pBR322 DNA plasmid was cleaved, al

31 sed to measure the accumulation of H2O2 in C-SWCNT suspensions containing O2 and NADH.

32 rboxylated single-walled carbon nanotubes (C-SWCNT) to molecular oxygen in water in the dark.

33 In the presence of C-SWCNT, the oxidation of NADH (beta-nicotinamide adenine

34 second-order rate constant for carboxylated SWCNTs reacting with (*)OH was estimated to be in the ra

35 ined the phototransformation of carboxylated SWCNTs and associated amorphous carbon impurities in the

36 tics similar to those of parent carboxylated SWCNTs whose amorphous carbon was removed by base washin

37 Further studies using carboxylated SWCNTs with and without base washing indicate that amorp

38 We found that while carboxylated SWCNTs were rather unreactive with respect to direct sol

39 Photoreaction caused SWCNTs to lose oxygen-containing functionalities, and in

40 ial classes: (1) unaligned single-wall CNTs (SWCNT) films with controlled metallic SWCNT concentratio

41 oaches based on tailored single-walled CNTs (SWCNTs) architectures to develop immunosensors for the b

42 e formation of the BC on single-walled CNTs (SWCNTs) due to physicochemical alterations in structure

43 Either empty amino-functionalized CNTs [SWCNT-NH2 (1)] or samarium chloride-filled amino-functio

44 the removal of the byproduct of spray-coated SWCNTs that hinders charge transfer and stable CD4(+) T

45 Based on these complementary SWCNT thin-film transistors, we simulate, design and fab

46 By controlling SWCNT concentrations and interfacial interactions, nano-

47 ications as well as length sorted empty-core SWCNTs.

48 ight sources we show that nanocavity-coupled SWCNTs perform as single-molecule thermometers detecting

49 ence values of element mass fractions in CRM SWCNT-1, thus expanding its usability for more accurate

50 nanotube certified reference material (CRM) SWCNT-1.

51 hat ssDNA binds preferentially to the curved SWCNT surface, leading us to conclude that the differenc

52 that binding strength of ssDNA to the curved SWCNTs is much greater than to flat graphite, which also

53 grafted on iron-oxide-nanoparticle-decorated SWCNTs to functionalize them with hydrazide groups that

54 Here we demonstrate SWCNT excitons coupled to plasmonic nanocavity arrays re

55 Ts, and the mechanism of chirality-dependent SWCNT partition is not well understood.

56 Derivatized SWCNTs were significantly more photoreactive than deriva

57 urement trends indicating that the developed SWCNT-based multi-junction biosensor has potential for s

58 e focused on the bioeffects of the different SWCNTs in the as-produced mixture, which contain both me

59 ated only separation of surfactant-dispersed SWCNTs, and the mechanism of chirality-dependent SWCNT p

60 We show that partition of DNA-SWCNT hybrids in a given polymer two-phase system is str

61 y dense and rapid assembly with an effective SWCNT surface coverage of ~99% as characterized by capac

62 The real-time monitoring of embedded SWCNT sensors also allows residence times in the roots,

63 lycarbodiimides to noncovalently encapsulate SWCNTs with a diverse set of functional coatings, enabli

64 h subsequently repel surfactant encapsulated SWCNTs.

65 tural sensitivity of the cells, we evaluated SWCNT-induced cellular changes in relation to cell attac

66 since the photophysical properties of every SWCNT are enhanced by at least one order of magnitude.

67 Here, we explore SWCNT assembly with steroid- and alkyl-based surfactants

68 tionalized single-walled carbon nanotubes (F-SWCNTs).

69 e(II) enhances the interaction between the F-SWCNTs and CO.

70 qualitative analysis of solvation energy for SWCNT colloids in a polymer-modified aqueous phase.

71 Using GO as a solubilizing agent for SWCNTs establishes a new class of carbon electrodes for

72 ate, and an efficient electron transfer from SWCNTs to PDIs in the excited state.

73 Carboxy-functionalised SWCNTs were covalently tethered onto gold electrodes via

74 ission, and polyvinyl-alcohol functionalized SWCNTs that act as an invariant reference signal-embedde

75 biological environments, and functionalized SWCNTs also serve as building blocks for conjugation wit

76 mation and removal pathway of functionalized SWCNTs in the aquatic environment, and that the residual

77 roxidase, H2O2, and NaCl, the oxidized HiPco SWCNTs underwent complete oxidation (i.e., degradation).

78 ufficiently stable and spatially homogeneous SWCNT thin-film transistors, the development of large-sc

79 y presents valuable data for elucidating how SWCNTs interact with chemicals that are already present

80 We attribute the change in SWCNT photoluminescence to the formation of oxygen-conta

81 s generating .OH lead to distinct changes in SWCNT fluorescence efficiency in the near-infrared (NIR)

82 are less than the exciton binding energy in SWCNT.

83 arbon associated with SWCNTs plays a role in SWCNT stabilization.

84 We found that SOX9 is upregulated in SWCNT-exposed cells, which is consistent with their abil

85 However, current techniques for integrating SWCNT architectures with flexible substrates are largely

86 findings provide a mechanistic insight into SWCNT-induced carcinogenesis and the role of SOX9 in CSC

87 uced mixture, which contain both metallic (m-SWCNT) and semiconducting (s-SWCNT) species.

88 ive adsorption onto hydrogels, high purity m-SWCNT and s-SWCNT fractions were produced and their biol

89 ains mixtures of s-SWCNTs and metallic- (m-) SWCNTs with wide diameter distributions, typically inade

90 CNTs (SWCNT) films with controlled metallic SWCNT concentrations and doping degree and (2) CNT fiber

91 s toward semiconducting rather than metallic SWCNTs is also observed in the aqueous dispersions.

92 ral method for building suspended nano/micro SWCNT architectures suitable for flexible sensing and ac

93 e and well-defined suspended nano/microscale SWCNT networks on 3D patterned flexible substrates with

94 he reorganization energy for PET for a model SWCNT/acceptor system.

95 Also, the G/My-SWCNT/Nafion modified electrode demonstrated a great pot

96 s realized with the obtained electrode (G/My-SWCNT/Nafion) showed a voltammetric signal due to a one-

97 y carbon black, single wall carbon nanotube (SWCNT) and fullerene, exhibited distinct, species and EN

98 (LOx) onto a single-walled carbon nanotube (SWCNT) electrode.

99 s-transferred single-walled carbon nanotube (SWCNT) film infiltrated with 2,2,7,-7-tetrakis(N,N-di-p-

100 Ti3 C2 Tx and single-walled carbon nanotube (SWCNT) films are also fabricated.

101 d assembly of single-walled carbon nanotube (SWCNT) networks with high density and deposition rate is

102 developed for single walled carbon nanotube (SWCNT) PV cells, including a laboratory-made 1% efficien

103 ar and p-type single-walled carbon nanotube (SWCNT) thin-film transistors (TFTs) are reliably integra

104 hemical-doped single-walled carbon nanotube (SWCNT) transistors.

105 ons on a bent single walled carbon nanotube (SWCNT) with a radius of curvature of order 10 nm results

106 ene oxide (GO), single wall carbon nanotube (SWCNT), multi-wall carbon nanotube (MWCNT), and carbon n

107 , we report a single-walled carbon nanotube (SWCNT)-assisted approach that enables near-infrared ligh

108 ully-integrated single wall carbon nanotube (SWCNT)-based immunosensor capable of selective capture a

109 semiconducting single-wall carbon nanotube (SWCNT)-based sensing elements on a Kapton((R)) substrate

110 his study, a single walled carbon nanotube- (SWCNT) based multi-junction sensor was designed for pote

111 procedure of single-walled carbon nanotubes (SWCNT) and use it against a panel of human blood protein

112 e the use of single-walled carbon nanotubes (SWCNT) covalently functionalized with polytyrosine (Poly

113 with various single-walled carbon nanotubes (SWCNT) either bare or functionalized by mimicking the pr

114 exposure to single-walled carbon nanotubes (SWCNT) induces recruitment and accumulation of lung-asso

115 lobin (My) - single walled carbon nanotubes (SWCNT) mixture on the surface of a graphite electrode wi

116 metal-filled single-walled carbon nanotubes (SWCNT) under in vitro, ex vivo and in vivo settings.

117 NCs@BSA) and single-walled carbon nanotubes (SWCNT) was synthesized to fabricate a highly sensitive e

118 g individual single-walled carbon nanotubes (SWCNT), graphene flakes, biological particles, SERS-acti

119 mobilized onto single wall carbon nanotubes (SWCNT).

120 PET) between single-walled carbon nanotubes (SWCNTs) and fullerene derivatives by employing time-reso

121 of selected single-walled carbon nanotubes (SWCNTs) and multiwalled carbon nanotubes (MWCNTs).

122 ures are the single-walled carbon nanotubes (SWCNTs) and the self-assembling cyclic peptide nanotubes

123 Single-walled carbon nanotubes (SWCNTs) are promising absorbers and emitters to enable n

124 The use of single-walled carbon nanotubes (SWCNTs) as near-infrared optical probes and sensors requ

125 nanosensors-single-walled carbon nanotubes (SWCNTs) conjugated to the peptide Bombolitin II to recog

126 olymers from single-walled carbon nanotubes (SWCNTs) deposited on methyl-terminated self-assembled mo

127 en filled into single-wall carbon nanotubes (SWCNTs) from the liquid and thereby stabilized against t

128 miconducting single-walled carbon nanotubes (SWCNTs) has been a difficult synthetic goal for more tha

129 research on single-walled carbon nanotubes (SWCNTs) has elucidated their many extraordinary properti

130 Single-wall carbon nanotubes (SWCNTs) have a variety of potential and demonstrated app

131 Single-walled carbon nanotubes (SWCNTs) have been incorporated in many emerging applicat

132 Single-walled carbon nanotubes (SWCNTs) implementation in a variety of biomedical applic

133 ucting (6,5) single-walled carbon nanotubes (SWCNTs) in a microcavity-integrated light-emitting field

134 frared using single-walled carbon nanotubes (SWCNTs) in a polymer matrix and a planar metal-clad cavi

135 adsorbed to single-walled carbon nanotubes (SWCNTs) in colloidal suspension.

136 fullerene in single-walled carbon nanotubes (SWCNTs) known as peapods as well as in double-walled car

137 e nature, if single-walled carbon nanotubes (SWCNTs) make their way into aquatic environments, they m

138 s (GNSs) and single-walled carbon nanotubes (SWCNTs) network are reported as new hybrid electrodes fo

139 Sorting single-wall carbon nanotubes (SWCNTs) of different chiralities is both scientifically

140 Suspended single-walled carbon nanotubes (SWCNTs) offer unique functionalities for electronic and

141 ed in either single-walled carbon nanotubes (SWCNTs) or C(6)(0) under a small magnetic field due to t

142 ray based on single-walled carbon nanotubes (SWCNTs) rendered selective to dopamine to study its rele

143 fluorescent single-walled carbon nanotubes (SWCNTs) that allow for the selective detection of specif

144 r commercial single-walled carbon nanotubes (SWCNTs) to different substrates is proposed.

145 ial threats of single-wall carbon nanotubes (SWCNTs) to living organisms upon release to aquatic syst

146 odification of single wall carbon nanotubes (SWCNTs) via ozone and OH radical oxidation is investigat

147 Ms) based on single-walled carbon nanotubes (SWCNTs) with a resolution of 9.3 points per inch (ppi) r

148 Single-walled carbon nanotubes (SWCNTs) with proper functionalization are desirable for

149 teraction of single-walled carbon nanotubes (SWCNTs) with the drug-metabolizing cytochrome P450 enzym

150 synthesis of single-walled carbon nanotubes (SWCNTs), a proposition which has recently been realised.

151 odified with single-walled carbon nanotubes (SWCNTs), sputtered gold, and conductive polymer poly(3-o

152 low-dose of single-walled carbon nanotubes (SWCNTs).

153 fraction of living cells deposited on both O-SWCNT and O-MWCNT/PNC surfaces decreased exponentially w

154 that, despite oxidation, the inclusion of O-SWCNTs or O-MWCNTs caused PNC surfaces to exhibit antimi

155 Using oxidized single-wall (O-SWCNTs) and multi-wall CNTs (O-MWCNTs), we explored the

156 entially with increasing CNT loading, with O-SWCNTs being approximately three times more cytotoxic on

157 e phase transition also changes the observed SWCNT corona phase, modulating the recognition of ribofl

158 The excellent electrocatalytic activity of SWCNT-Polytyr towards NADH oxidation has also made possi

159 ecially toward tuning the controllability of SWCNT assembly for thin-film transistors.

160 experiments confirmed the immobilization of SWCNT during the biosensor construction and X-ray photoe

161 The major impacts of SWCNT PV came from the cell's materials synthesis.

162 tant process scheme for nanomanufacturing of SWCNT-based electronics.

163 oach toward universal solution processing of SWCNT-based materials.

164 coupled to charged residues near the site of SWCNT attachment.

165 We demonstrate thermalization of SWCNT polaritons, exciton-polariton pumping rates approx

166 facilitate improvement in the arrangement of SWCNTs, building uniformly well-aligned SWCNT channels,

167 onstrated through a roll-to-roll assembly of SWCNTs on plastic substrates for large-area thin-film tr

168 rticles, and subsequent air-spray coating of SWCNTs layer once again.

169 , diameter, and metallic impurity content of SWCNTs.

170 both the redox activity and cytotoxicity of SWCNTs significantly decreased when exposed to ambient u

171 Detection of SWCNTs in complex matrices presents a unique challenge a

172 ool for examining uptake and distribution of SWCNTs in aquatic vertebrates.

173 released through the photothermal effect of SWCNTs and becomes active.

174 Additionally, the effect of SWCNTs on the number of T lymphocytes, B lymphocytes and

175 bserved changes in near-infrared emission of SWCNTs are important for understanding the interaction b

176 ndicating that covalent functionalization of SWCNTs occurs.

177 Furthermore, covalent functionalization of SWCNTs with polyethylene glycol (PEG) chains mitigated t

178 ithelial cells upon exposure to a library of SWCNTs with user-defined physico-chemical properties.

179 to provide a unified partition mechanism of SWCNTs dispersed by surfactants and by DNA, we present a

180 y be a significant transformation pathway of SWCNTs in aquatic systems.

181 d the direct and indirect photoreactivity of SWCNTs under sunlight conditions.

182 Additionally, the presence of SWCNTs did not reduce the extent of EE2-driven induction

183 The reactivity of SWCNTs to .OH is dependent on the specific chiral struct

184 Increased ball-milling time of SWCNTs resulted in enhanced structural defects.

185 rganics in the atmosphere on the toxicity of SWCNTs should be investigated further.

186 In this paper, a homogeneous transference of SWCNTs films to nonconductor and transparent supports, s

187 ive cutting-edge electronic devices based on SWCNT-TFT AMs.

188 ct of polyunsaturated fatty acids (PUFAs) on SWCNT photoluminescence.

189 A helical arrangement of PP2b assemblies on SWCNTs dominates in aqueous dispersions, while a single

190 a single layer of PP2b and PP3a was found on SWCNTs in organic dispersions.

191 NA coronae act as conformational switches on SWCNTs, which reversibly modulate the SWCNT fluorescence

192 Our findings shed light onto SWCNT/dispersant molecular interactions, and introduce a

193 atency-associated peptide is conjugated onto SWCNTs, where TGF-beta is inactive.

194 ivity of ethinyl estradiol (EE2) sorbed onto SWCNTs in a fish gastrointestinal (GI) tract.

195 0 000 cycles), exceeding that of graphene or SWCNT-based transparent supercapacitor devices.

196 struction was the immobilization of oxidized SWCNT onto a platinum electrode modified with 4-aminothi

197 densation reaction of the resulting HOOC-Phe-SWCNT with 1-(3-aminoethyl)-4,4'-bipyridinium bromine an

198 The V-Phe-SWCNT hybrids were characterized by using different spec

199 alent linkage of HRP and anti-TGF onto V-Phe-SWCNT hybrids.

200 -beta1 with signal amplification using V-Phe-SWCNT(-HRP)-anti-TGF conjugates as carrier tags.

201 he methodology involved preparation of V-Phe-SWCNT(-HRP)-anti-TGF conjugates by covalent linkage of H

202 yclic voltammetry and compared with HOOC-Phe-SWCNTs/SPCE.

203 Our results also indicate that photoexcited SWCNTs can catalyze lipid peroxidation similarly to lipo

204 ch have bottlenecked development of photonic SWCNT-based infrared detectors.

205 rrier mobility and excellent photostability, SWCNTs represent a promising new avenue towards practica

206 These findings suggest that our polymer-SWCNT constructs can act as fluorescent neurotransmitter

207 functionalized with polytyrosine (Polytyr) (SWCNT-Polytyr) as a new electrode material for the devel

208 so fabricated hybrid materials from the PP2b/SWCNT dispersions.

209 and improve their biocompatibility, pristine SWCNTs are often coated with surfactants, polymers, DNA,

210 that the direct photoreactivity of pristine SWCNTs is generally low; however, indirect photoreaction

211 itation methods for tracking and quantifying SWCNTs in an aquatic vertebrate model in conjunction wit

212 valuable tool for detecting and quantifying SWCNTs in environmental samples by exploiting their inna

213 ide reactions after the treatment of reduced SWCNTs with electrophiles is strongly influenced by the

214 However, centrifugation to remove SWCNTs and adsorbed EE2 significantly reduced ER activit

215 on onto hydrogels, high purity m-SWCNT and s-SWCNT fractions were produced and their biological impac

216 subcapitata exposed to high purity m- and s-SWCNT fractions.

217 Using multimode ridge waveguides, guided s-SWCNT photoluminescence is demonstrated for the first ti

218 at the high-pressure CO conversion (HiPco) s-SWCNT fraction separated by selective adsorption causes

219 iconducting single-walled carbon nanotube (s-SWCNT) and a PC71 BM blended active layer.

220 emiconductive single-wall carbon nanotube (s-SWCNT) to form a molecular building block for uncooled i

221 om a broad perspective, this work on novel s-SWCNT/Cyt c nanohybrid infrared detectors has developed

222 oth metallic (m-SWCNT) and semiconducting (s-SWCNT) species.

223 Finally, the toxicity of the s-SWCNT fraction is mitigated by increasing the concentrat

224 rriers at the heterojunction formed on the s-SWCNT/Cty c interface and charge transport along the ele

225 eptor) and hole conducting channel through s-SWCNT (donor).

226 Using these building blocks, uncooled s-SWCNT/Cyt c thin film infrared detectors were synthesize

227 miconducting single-wall carbon nanotubes (s-SWCNTs) dispersed in a polyfluorene derivative are fabri

228 conducting single-walled carbon nanotubes (s-SWCNTs) with a narrow diameter distribution are required

229 the as-grown material contains mixtures of s-SWCNTs and metallic- (m-) SWCNTs with wide diameter dist

230 ere, the progress in realizing high purity s-SWCNTs in as-grown and post-processed materials is highl

231 These findings suggest that s-SWCNTs are the primary factor driving the adverse biolog

232 maintain the quality and integrity of the s-SWCNTs with a few notable exceptions.

233 been proposed to improve the purity of the s-SWCNTs.

234 tant Coated-Single Wall-Carbon Nanotubes (SC-SWCNTs) was added to the buffer solution to improve the

235 transistors, the development of large-scale SWCNT CMOS integrated circuits has been limited in both

236 the enrichment of high-purity semiconducting SWCNTs have enabled recent circuit demonstrations includ

237 ples, including length sorted semiconducting SWCNTs, which are important for electronics applications

238 ing the cyclic peptide components of similar SWCNT/SCPN hybrids.

239 filled amino-functionalized CNTs with [SmCl3@SWCNT-mAb (3)] or without [SmCl3@SWCNT-NH2 (2)] Cetuxima

240 with [SmCl3@SWCNT-mAb (3)] or without [SmCl3@SWCNT-NH2 (2)] Cetuximab functionalization were tested.

241 ible to selectively functionalize a specific SWCNT chirality within a mixture.

242 ble sorting and characterization of specific SWCNTs and other nanoparticles based on their increased

243 NIRF images showed strong SWCNT-derived fluorescence signals in whole fish and exc

244 their outstanding flexible nature, suspended SWCNT architectures have great potential for integration

245 We functionalized and suspended SWCNTs with a library of different polymers (n = 30) con

246 anical resonance properties of the suspended SWCNTs are characterized, including identifying metrics

247 ork opens opportunities to chemically tailor SWCNTs at the single chirality level for nanotube sortin

248 Sorption experiments indicated that SWCNTs effectively adsorbed EE2, but the chemical was st

249 This work suggests that SWCNTs could interfere with metabolism of drugs and othe

250 between the extent of polymerization and the SWCNT diameter.

251 e molecular interactions between DNA and the SWCNT surface, and have implications for molecular sensi

252 prolines or a single arginine attached, the SWCNT gained slightly on specificity when compared with

253 d poly-Si, CIGS, CdTe, and a-Si devices, the SWCNT devices would need a lifetime of 2.8, 3.5, 5.3, 5.

254 to reduce background noise and emphasize the SWCNT-based sensor's response to the biorecognition reac

255 This analysis showed that if the SWCNT device efficiency had the same value as the best e

256 It was also found that if the SWCNT PV has an efficiency of 4.5% or higher, its energy

257 A decrease in the SWCNT bandgap emission (E11) and a new red-shifted emiss

258 ert readily into chain structures inside the SWCNT "nanoreactors".

259 hes on SWCNTs, which reversibly modulate the SWCNT fluorescence.

260 Moreover, the SWCNT CMOS inverter circuits demonstrate a gain of 6.76

261 g" by the arginines, and the rigidity of the SWCNT introducing entropic penalties in the proper bindi

262 m yield and not covalent modification of the SWCNT or scavenging of reactive oxygen species.

263 No overt toxicity was observed in any of the SWCNT treated fish; however, histopathology observations

264 gap, near-infrared (nIR) fluorescence of the SWCNT.

265 ddition of 100 muM dopamine depending on the SWCNT chirality (n,m).

266 rmed covalent immobilization of LOx onto the SWCNT in the first method.

267 inating a pressure sensitive rubber onto the SWCNT-TFT AM.

268 est that attaching multiple arginines to the SWCNT has a detrimental effect on the binding affinity.

269 them effectively nonoperational, whereas the SWCNT-contacted devices show only a small linear efficie

270 ttky contacts between the electrodes and the SWCNTs might have played an important role in the gas se

271 In the resulting architecture, the SWCNTs can act as templates for the assembly of SCPNs th

272 high forces corresponds to peeling from the SWCNTs.

273 dent on the specific chiral structure of the SWCNTs and the surfactant associated with it.

274 were achieved, due to the combination of the SWCNTs' ability to promote electron transfer reactions w

275 These SWCNTs were hydrazide functionalized by electrochemical

276 The free energy of ssDNA binding to SWCNT adsorbed on this SAM also decreases in the same or

277 We conclude that pulmonary exposure to SWCNT favors the formation of a niche that supports ingr

278 d in the formation of unique BCs compared to SWCNTs incubated in normal serum.

279 re shown to alter the adhesion of the DNA to SWCNTs through direct protonation from solution, decreas

280 rease the level of adsorption of estrogen to SWCNTs by 5%.

281 s promelas) were exposed by single gavage to SWCNTs and their distribution was tracked using a custom

282 In order to test these transferences, SWCNTs films transferred on quartz were used as working

283 led carbon nanotube field-effect transistor (SWCNT-FET) to investigate accommodation of dNTP analogs

284 rformance of complementary p-type and n-type SWCNT thin-film transistors by controlling adsorbed atmo

285 tochemical patterning process, p- and n-type SWCNT transistors are successfully implemented on cylind

286 The p- and n-type SWCNT transistors exhibit field-effect mobility of 4.03

287 e combined with existing ultracentrifugation SWCNT sorting methods to produce "orthogonally sorted" s

288 All unaligned SWCNT films showed localized hopping transport where hig

289 By using SWCNTs as the semiconducting layer and poly(ethylene ter

290 ry to the biological response observed using SWCNTs separated by density gradient ultracentrifugation

291 Viologen-SWCNT hybrids are synthesized by aryl-diazonium chemistr

292 Viologen-SWCNTs were used for the preparation of an electrochemic

293 ition of enzyme activity was alleviated when SWCNTs were pre-coated with bovine serum albumin.

294 These results suggest that while SWCNTs adsorb EE2 from aqueous solutions, under biologic

295 glassy carbon electrodes (GCE) modified with SWCNT-Polytyr at potentials high enough to oxidize the t

296 he residual amorphous carbon associated with SWCNTs plays a role in SWCNT stabilization.

297 ce intensity of a single DNA- or RNA-wrapped SWCNT is enhanced by a factor of up to 5.39 +/- 1.44, wh

298 tudy of spontaneous partition of DNA-wrapped SWCNTs in several polymer aqueous two-phase systems.

299 changes in optical properties of DNA-wrapped SWCNTs with ionic strength, pH, adsorbed O2, and ascorbi

300 11 nM [K(d) = 433 nM for (GT)15 DNA-wrapped SWCNTs].

301 pecific single-stranded DNA- and RNA-wrapped SWCNTs by 58-80% upon addition of 100 muM dopamine depen