ライフサイエンスコーパス: CNT

1 CNT thread partially insulated with a thin polystyrene c

2 CNT-Nb microelectrodes were used to monitor stimulated d

3 CNTs are synthesized at a 100-fold price reduction compa

4 CNTs can be grown on carbon fiber microelectrodes (CFMEs

5 CNTs need to be dispersed in aqueous solution for their

6 CNTs/MnO2 were selected due to their high surface area a

7 CNT concentrations and doping degree and (2) CNT fiber with aligned, long-length microstructure.

8 The 3D CNTs-AMB1 nanocomposite scaffold is further demonstrated

9 A CNT modified-CFRP show 300%, 450% and 230% improvements

10 e films have been rationalized in terms of a CNT cell bridging mechanism where the strongly enhanced

11 and simple approach for the processing of a CNT film-Fe3O4-large scale graphene composite is studied

12 Aligned CNT fiber, already on the metal side of the insulator to

13 Our results suggest horizontally aligned CNT arrays exhibit remarkably enhanced in-plane thermal

14 sters across the surface of a partly aligned CNT textile in air, suspended from its ends.

15 nning electron microscopy shows that aligned CNTs are grown on metal wires after chemical vapor depos

16 target and non-target linkers of the aligned CNTs.

17 This all-CNT thread three electrode cell has been evaluated as a

18 duce structural defects resulting in altered CNT-biomolecule interactions.

19 Although CNT shows the promise to be used as reinforcement in a h

20 f four ENM (nano-TiO2, nano-ZnO, nano-Ag and CNT) to environmental compartments and to quantify their

21 f four ENM (nano-TiO2, nano-ZnO, nano-Ag and CNT) to the environment and to quantify their amounts in

22 ote tumor growth of human lung carcinoma and CNT-transformed lung epithelial cells.

23 s in the modification of MFCs using CNTs and CNT-based composites, and the extent to which each modif

24 estingly, the wall spacings of CNTs/MnO2 and CNTs were obviously expanded by 10.92% and 2.59%, respec

25 hells and a nanosheet-like morphology around CNT.

26 with a diameter of only 25 mum were used as CNT substrates; these have potential in tissue applicati

27 ed due to fabrication imperfections, such as CNTs, and hence lays the foundation to deeply investigat

28 indrical surface insures intimate contact at CNT-SiO2 interface.

29 The turnover frequency (TOF) of the LDH-Au/CNTs COE catalyst was much higher than the previous repo

30 area was used as the working electrode; bare CNT thread was used as the auxiliary electrode; and a mi

31 way to utilize manganese nanoparticles based CNTs composite for the determination of other bio-molecu

32 tions accounting for the interaction between CNTs and encapsulated fullerenes.

33 l merits of the F-Wood/CNTs membrane-a black CNT-coated hair-like surface with excellent light absorb

34 ocessing stages of composites by co-braiding CNT-enabled fiber sensors into the reinforcing fiber fab

35 ue to the carbothermic reduction of Fe3O4 by CNTs during high temperature solid state reaction.

36 = 7 with 3 Sun illumination, the n-Si/TiO2/C/CNT/[1+1(O)] electrodes exhibited current densities of 1

37 ractions in individual suspended ultra-clean CNTs.

38 The Ag|AgCl coated CNT thread electrode provided a stable potential compara

39 Escherichia coli CNT family member NupC resembles hCNT1 in permeant selec

40 ime, a lightweight, flexible, and conductive CNT-multilayered graphene edge plane (MLGEP) core-shell

41 rties of macroscopically long and continuous CNTs.

42 ssembled carboxylated carbon nanotubes (COOH-CNTs) and poly-L-lysine (PLL) film was developed and app

43 m dispersed, and more negatively charged CuO-CNTs heteroaggregates, and thus reduced the nanoparticle

44 textiles, that selectively removes defective CNTs and other carbons not forming a threshold thermal p

45 curring on the surface of the gold-deposited CNT electrode.

46 wo-dimensional GO sheets and one-dimensional CNTs modified membranes.

47 successful use, and most methods to disperse CNTs rely on tedious and time-consuming acid-based oxida

48 be applied to the development of various dry CNT adhesives with novel features.

49 e electrode was fabricated by electroplating CNT thread with Ag and then anodizing it in chloride sol

50 CNT-grown metal microelectrodes, especially CNTs grown on Nb microelectrodes, are useful for monitor

51 rt channels, and the replacement of the fine CNT tips with their cylindrical surface insures intimate

52 Novel approaches for CNT-based systemic therapeutic brain delivery following

53 However, standard methods for CNT quantification are not yet available.

54 ew each component of the current methods for CNT quantification including CNT extraction approaches,

55 We verified the expression of four CNTs across stages.

56 h-temperature combustion yields freestanding CNT or reduced GO microtubular fibers.

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

58 amarium chloride-filled amino-functionalized CNTs with [SmCl3@SWCNT-mAb (3)] or without [SmCl3@SWCNT-

59 Furthermore, CNT aerogel formation requires a critical threshold of F

60 32% reduction in the band gap of narrow-gap CNTs.

61 The chromatographic method (HPLC-GCE-CNTs) allowed the separation and the determination of he

62 odified with multiwall carbon nanotubes (GCE-CNTs), was prepared and its response compared to a conve

63 Amylase immobilization onto GO-CNT (bamyl@GO-CNT) and Fe3O4 (bamyl@Fe3O4), resulted into approximatel

64 Graphene oxide-carbon nanotube composite (GO-CNT), Graphene oxide nanosheets (GO) and Iron oxide nano

65 beta-Amylase immobilization onto GO-CNT (bamyl@GO-CNT) and Fe3O4 (bamyl@Fe3O4), resulted int

66 In this work, we successfully grew CNTs on niobium substrates for the first time.

67 ate (E2; n = 10), or vehicle (control group, CNT; n = 10).

68 on-nanotube composite membrane, dubbed "HNCM/CNT".

69 Natural abundance (12)CO2 forms hollow CNTs, while equivalent synthetic conditions with heavier

70 in S compared with the properties of hollow CNTs at room temperature.

71 model of CNT membrane architecture for human CNTs, revealed extended conformationally mobile regions

72 ture which can be electrically conductive if CNT are able to form a conductive path.

73 Along with recent advance in CNT growth technique, we will be able to directly measur

74 hypermethylation of p16/Ink4a and p19/Arf in CNT- and asbestos-induced inflammatory lesions precedes

75 nal role of CAF-like cells and podoplanin in CNT tumorigenic process.

76 con, the nature of the transport band gap in CNTs is not fully understood.

77 The transport gap in CNTs is predicted to be strongly driven by electron-elec

78 elucidate the nature of the transport gap in CNTs, and show that dielectric environment offers a mech

79 ent methods for CNT quantification including CNT extraction approaches, potential biases, limits of d

80 we demonstrate the limit in which increasing CNT results in decreasing the mechanical strength of the

81 orting the Young's modulus of the individual CNT up to 1 TPa.

82 rbon nanotube (CNT) textiles with individual CNT lengths magnitudes longer than competing processes,

83 The EAPC on intact CNTs can improve enzyme loading and stability with key r

84 CNTs and simply-adsorbed GOx (ADS) on intact CNTs, respectively.

85 use of crosslinked enzyme coatings on intact CNTs, while obviating the chemical pretreatment that can

86 Our observations reveal a new single-ion/CNT heterostructure with novel electronic properties, an

87 ario concentrations ranging from 6.7 mug/kg (CNT) to about 40000 mug/kg (nano-TiO2).

88 tical response, whereas thin layers of large CNT had the lowest capacitance and the highest permeatio

89 posites with one-layer graphene in six-layer CNT film-Fe3O4 prepared from 0.04 M FeCl3.

90 Under optimized synthesis conditions, LFO/CNT composites could be synthesized without the formatio

91 Li5FeO4/carbon nanotube (LFO/CNT) composites composed of sub-micron sized LFO and a n

92 d characterization of a sub-micron sized LFO/CNT composites.

93 ere we show that instillation of either long CNTs or long asbestos fibers into the pleural cavity of

94 hesis by ultrasound-assisted cutting of long CNTs in the presence of lipid amphiphiles, and for valid

95 ge form a common molecular signature of long-CNT- and long-asbestos-fiber-induced pathology.

96 or, together with a high conductivity at low CNT concentrations.

97 ble reference for future studies of magnetic CNTs.

98 This novel structure makes CNT film promising for applications in chip-level heat d

99 ctive functionalization of carbon materials (CNTs/graphene/graphite) in a polyphosphoric acid (PPA)/p

100 Moreover, CNT with two different sizes and PTFE membrane with two

101 Nanoengineered CNT-based materials show remarkable electrochemical prop

102 ng continuous production of carbon nanotube (CNT) aerogels.

103 Carbon nanotube (CNT) based microelectrodes exhibit rapid and selective d

104 t morphology evolution on a carbon nanotube (CNT) cathode of a working solid-state Li-O2 nanobattery

105 nsor was developed based on carbon nanotube (CNT) deposits with controlled thicknesses for enhanced e

106 nter-intuitive behaviour of carbon nanotube (CNT) dry adhesives that show a temperature-enhanced adhe

107 studies were performed with carbon nanotube (CNT) films and 3D graphene foams.

108 to-resistance (MR) with two carbon nanotube (CNT) material classes: (1) unaligned single-wall CNTs (S

109 formation of self-entangled carbon nanotube (CNT) networks in all three dimensions, employing the CNT

110 s begins with deposition of carbon nanotube (CNT) or graphene oxide (GO) particles on the FN layer.

111 uniquely generates aligned carbon nanotube (CNT) textiles with individual CNT lengths magnitudes lon

112 ll were fabricated based on carbon nanotube (CNT) thread.

113 re the possibility of using carbon nanotube (CNT) to introduce and control the temperature coefficien

114 erface was implemented with carbon nanotube (CNT) yarn electrodes to chronically record neural activi

115 hobic surface mimicked by a carbon nanotube (CNT), which also represents a potential intruder in the

116 y, are detected easily with carbon nanotube (CNT)-assisted low-voltage ambient ionization mass spectr

117 A new type of carbon nanotube (CNT)-based impedimetric biosensing method has been devel

118 havior of trees, the use of carbon nanotube (CNT)-modified flexible wood membrane (F-Wood/CNTs) is de

119 tical work predicts that 3D carbon nanotube (CNT)/graphene hybrids are one of the most promising ligh

120 Vpp) to a porous thin-film carbon nanotube (CNT)/polymer composite Joule heating element can prevent

121 ely and rapidly assembling carbon nanotubes (CNT) across two parallel electrodes via sequential DC el

122 channel and semiconducting carbon nanotubes (CNT) allows for an exceptional experimentally measured o

123 Si coated with multiwalled carbon nanotubes (CNT) and the ruthenium-based water oxidation precatalyst

124 de (TMO) nanostructures on carbon nanotubes (CNT) with ready control of phase and morphology.

125 ch as graphene oxide (GO), carbon nanotubes (CNT), carbon blacks, and solvent, as well as polymers an

126 s on tensile properties of carbon nanotubes (CNT), reporting the Young's modulus of the individual CN

127 our approach, we selected carbon nanotubes (CNT)-based inkjet-printed disposable electrodes for the

128 particles and multi-walled carbon nanotubes (CNT).

129 of highly aligned vertical carbon nanotubes (CNTs) acting as supercapacitors, capable of providing la

130 A bilayer actuator made of carbon nanotubes (CNTs) and boron nitride (BN) is developed that can withs

131 face comprising a blend of carbon nanotubes (CNTs) and graphene (GR) was employed to enhance the surf

132 dered graphitic materials (carbon nanotubes (CNTs) and graphene).

133 Carbon nanotubes (CNTs) are a promising material for high-performance elec

134 Manufactured carbon nanotubes (CNTs) are similar to asbestos in terms of their fibrous

135 roelectrodes modified with carbon nanotubes (CNTs) are useful for the detection of neurotransmitters

136 itride (g-C3N4), graphene, carbon nanotubes (CNTs) as well as other forms of carbon-containing materi

137 ion of intact multi-walled carbon nanotubes (CNTs) by adding them directly into an aqueous solution o

138 Carbon nanotubes (CNTs) can be filled with a wide range of inorganic mater

139 initiated decomposition of carbon nanotubes (CNTs) can lead to medical, military, and other applicati

140 frameworks on multiwalled carbon nanotubes (CNTs) followed by adsorption of furfuryl alcohol and pyr

141 l properties of individual carbon nanotubes (CNTs) has been an important open question since the firs

142 Carbon nanotubes (CNTs) have long been regarded as promising carriers in b

143 Carbon nanotubes (CNTs) have numerous exciting potential applications and

144 Although carbon nanotubes (CNTs) have shown great potential for enhancing the perfo

145 Carbon nanotubes (CNTs) have shown marked capabilities in enhancing antige

146 gle proteins to individual carbon nanotubes (CNTs) in solution and with single-molecule control.

147 ss to modify properties of carbon nanotubes (CNTs) including size, capping, and functionalization.

148 l slicing of micron length carbon nanotubes (CNTs) is effective on laser irradiation of the materials

149 r mixed with single-walled carbon nanotubes (CNTs) is reported.

150 the polymer sizing, namely carbon nanotubes (CNTs) on the carbon fibres, which in addition imparts el

151 TiO2 and carbon nanotubes (CNTs) supported vanadium oxides (VOX/TiO2-CNTs) modified

152 d-stabilized single-walled carbon nanotubes (CNTs) that can be inserted into phospholipid membranes t

153 as immobilized on modified carbon nanotubes (CNTs) through electrostatic interactions.

154 moiety, was immobilized on carbon nanotubes (CNTs) via three different preparation covalent attachmen

155 moiety, was immobilized on carbon nanotubes (CNTs) via three different preparation methods: covalent

156 um nanoparticles decorated carbon nanotubes (CNTs) was applied for the determination of capsaicin in

157 Carbon nanotubes (CNTs) were used as a conductive skeleton to anchor highl

158 sor consists of a layer of carbon nanotubes (CNTs) which were casted on a carbon working electrode ar

159 ight 3D solid structure of carbon nanotubes (CNTs) with interconnected porosity.

160 e, we investigated whether carbon nanotubes (CNTs), a widely used nanomaterial with known carcinogeni

161 GNPs), quantum dots (QDs), carbon nanotubes (CNTs), and graphene oxide (GO).

162 or nanocarbons [fullerene, carbon nanotubes (CNTs), and graphenes] with tailor-made supramolecular (s

163 ylonitrile (PAN) contained carbon nanotubes (CNTs), being pre-dispersed into a tubular level of dispe

164 uch as gold nanoparticles, carbon nanotubes (CNTs), magnetic nanoparticles, and graphene in POC devic

165 n nanomaterials, including carbon nanotubes (CNTs), may be carcinogenic.

166 n adsorption on individual carbon nanotubes (CNTs), which, because of the severely restricted one-dim

167 ffected by the presence of carbon nanotubes (CNTs).

168 materials, in contrast to carbon nanotubes (CNTs).

169 anese nanostructures based carbon nanotubes (CNTs-Mn NPs) composite, for the determination of ascorbi

170 direct transformation into carbon nanotubes, CNTs, is demonstrated through isotopic labeling, and pro

171 scan cyclic voltammetry, CNT-coated niobium (CNT-Nb) microelectrodes exhibit higher sensitivity and l

172 to this property, membranes having sub-5 nm CNTs as conductive pores feature outstanding breathabili

173 trends on the development and application of CNT-based nanotechnologies, with a particular focus on t

174 Development of CNT-based CD4(+) T cell imunosensors remains in its infa

175 carbon fibers makes evaluating the effect of CNT enhancement difficult.

176 s of such porous structures as a function of CNT loading and the method used for their surface functi

177 ent fabrication strategies and geometries of CNT microelectrodes have been characterized, relatively

178 Our findings unveil a novel mechanism of CNT-induced carcinogenesis through the induction of CAF-

179 newly developed structural homology model of CNT membrane architecture for human CNTs, revealed exten

180 approach to fully explore the potentials of CNT and graphene, for developing advanced multifunctiona

181 The presence of CNT unfolds HA via pi-pi interactions with the aromatic

182 eriously damage the electron conductivity of CNTs.

183 irectly observed the structural evolution of CNTs/MnO2 during the lithiation process using transmissi

184 ns developmental processes while hundreds of CNTs were found to be widely expressed and predicted to

185 20-25nm, anchored along the whole length of CNTs, in the form of patches having a diameter of 50-500

186 As such, quantitative measurements of CNTs in key environmental matrices (water, soil, sedimen

187 oscopy confirmed the surface modification of CNTs by amine groups, whereas dynamic light scattering e

188 rther studies confirmed that the presence of CNTs caused the formation of large, incompact, non-unifo

189 The unique physicochemical properties of CNTs make them among prime candidates for numerous appli

190 g of how altering the physical properties of CNTs may influence antigen uptake by antigen presenting

191 irect evidence for understanding the role of CNTs/MnO2 in the lithiation process used in lithium ion

192 Interestingly, the wall spacings of CNTs/MnO2 and CNTs were obviously expanded by 10.92% and

193 However, toxicity of CNTs has been a major concern for their use in biomedica

194 and 4.5 times higher activity per weight of CNTs than those of CA and EC, respectively.

195 The effect of tissue fouling on CNT yarns was studied for the first time, and the relati

196 Gel-nanocomposites based on CNTs and graphenes and their functionalized (covalent/no

197 The grafted MLGEPs on CNTs can obviously enhance the penetration losses of mic

198 that the oxygen-reduction reaction (ORR) on CNTs initially produces LiO2, which subsequently disprop

199 CA, EC and EPC of POx on CNTs were used to fabricate enzymatic electrodes for enz

200 mplex was immobilized by pi-pi stacking onto CNTs that had been deposited by drop casting onto Si ele

201 With its intrinsic thermal stability, our CNT adhesive sustains many temperature transition cycles

202 First, a continuous mesoporous PAN/CNT based 3D monolith was established by using a templat

203 ting the advantageous performance of the PAN/CNT based 3D-NDP-ACMs.

204 ontaining multiwalled carbon nanotubes (PETG-CNT, electrodes).

205 e dispersing abilities of this cationic PIL, CNT-hydrogel composites were successfully prepared.

206 f the sample due to lack of adequate polymer-CNT bond.

207 demonstration of the laser-induced polynitro-CNT explosion, its chemical mechanism, and the time scal

208 es the possibility of photoinduced polynitro-CNT explosion and provides a detailed chemical mechanism

209 a picosecond, resulting in a rapid polynitro-CNT heating.

210 The products of the polynitro-CNT decomposition are nontoxic: carbon dioxide and molec

211 ing which the local temperature of polynitro-CNTs and its fragments rises as high as 4000 K.

212 ed; the energy can be delivered to polynitro-CNTs using near-infrared light within the biological win

213 We demonstrate that porous CNT/polymer composites can be used as self-heating membr

214 world scenarios such as monitoring potential CNT discharge into a river or ecotoxicity testing by a t

215 composite Joule heating element can prevent CNT degradation in ionizable environments such as high-s

216 ion principle is proved further by producing CNTs using alternative catalyst systems; Fe nanoparticle

217 s explosives, pyrotechnics, and propellants, CNTs can be activated remotely by a visible or infrared

218 LCPM from PU-CNT shows significantly higher cytotoxicity compared to

219 rmoplastic enabled with carbon nanotubes (PU-CNT).

220 (-2) (4 mm x 4 mm), among the strongest pure CNT dry adhesives, over a temperature range from -196 to

221 Compared to PVA/CNTs, the tensile strength, Young's modulus and electric

222 High quality CNTs are grown at a high density as a result of a 35 nm

223 tally because of the difficulty of realizing CNT-encapsulated molecules as part of thermal transport

224 directly on complex technologically relevant CNT electrodes.

225 These RGO-CNT paper ribbons routinely reach 3000 K before failure,

226 The composite of RuNPs-CNTs was characterized by scanning electron microscopy (

227 The proposed voltammetric platform, RuNPs/CNTs/GCE, highly improved the voltammetric process of ca

228 opening up new possibilities for large-scale CNT synthesis.

229 ction in the transport gap of semiconducting CNTs, and a 32% reduction in the band gap of narrow-gap

230 ose oxidase (GOx), resulting in simultaneous CNT dispersion and facile enzyme immobilization through

231 tivity (kappa) and thermopower (S) of single CNT bundles that encapsulate C 60, Gd@C 82 and Er 2@C 82

232 AC dielectrophoresis (DEP), and with single-CNT electron tunneling conductance.

233 The method produces sliced CNTs with minimal defects in the absence of any chemical

234 Thick layers made of small CNT exhibited the lowest sheet resistance and the greate

235 a complete Au shell (CNTR@AuNS) and straight CNT@AuNP.

236 rface area and unique needle-like structure, CNTs are uniquely equipped to carry therapeutic molecule

237 This study demonstrates that CNT-grown metal microelectrodes, especially CNTs grown o

238 d of mesothelioma development and shows that CNT and asbestos pose a similar health hazard.

239 The CNT enabled smart fabrics, fabricated by a cost-effectiv

240 The CNT thread auxiliary electrode provided a stable current

241 In addition, the CNT-MLGEP hybrids also exhibit a great potential as nano

242 fined by a varying local potential along the CNT, determined by local environmental factors such as t

243 formation of chromium carbide (Cr7C3) at the CNT/copper (Cu) interface.

244 To form the sensor device, the CNT deposits were functionalized via electrocoating of p

245 ctrical and thermal transports, enabling the CNT dry adhesive for efficient electrical and thermal ma

246 -like moving mechanism of the ion@C60 in the CNT.

247 amic range up to 5 decades by increasing the CNT numbers.

248 cle dynamics within the system influence the CNT aerogel formation, thus limiting effective scale-up.

249 statistically investigates the effect of the CNT dimensions including length, diameter and volume on

250 hieved the enhanced functionalization of the CNT surface and the removal of the byproduct of spray-co

251 effect, and the lithiation mechanism of the CNT wall expansion was systematically analyzed.

252 the binding of E. coli B to T2 phage on the CNT-modified electrode.

253 e detection of neurotransmitters because the CNTs enhance sensitivity and have electrocatalytic effec

254 works in all three dimensions, employing the CNTs in their high tensile properties.

255 optimized to avoid any decomposition of the CNTs and to obtain multiwalled carbon nanotubes embedded

256 The attractive properties of the CNTs entice also their use in the brain environment.

257 tensile strength and Young's modulus of the CNTs investigated in this study are measured to be 0.85

258 We propose that each of the CNTs is segmented into a chain of zero-dimensional state

259 mly aligned along the axial direction of the CNTs.

260 MnO2 layer caused structural defects on the CNTs surface that could allow penetration of Li(+) and M

261 MLGEPs are seamlessly grown on the CNTs, and the hybrid foam exhibits excellent EMI shieldi

262 Additionally, changes to the CNTs (e.g., agglomeration) after environmental release a

263 ic process of capsaicin in comparison to the CNTs/GCE and bare GCE.

264 r intrusion and classical nucleation theory (CNT) for extrusion-because of the peculiar behavior of w

265 These CNT deposits were characterized using confocal laser mic

266 Moreover, these CNT-based composites offer significant flexibility in th

267 Hz due to the low heat capacity of the thin CNT layer.

268 he excellent performance of the flow-through CNT membrane integrated in a flow cell makes it an appea

269 s evidence that low-cost and high throughput CNT aerogel routes may be achieved by decoupled and enha

270 ners decomposed well over VOX-MnOX-CuOX/TiO2-CNTs.

271 ngeners were removed well over VOX-CuOX/TiO2-CNTs.

272 ngeners were removed well over VOX-MnOX/TiO2-CNTs, while high chlorination level PCDD/Fs congeners we

273 s (CNTs) supported vanadium oxides (VOX/TiO2-CNTs) modified with MnOX and CuOX, which were reported t

274 ically encoded azide group and then bound to CNT ends in different configurations: in close proximity

275 ed that CuO NPs were more easily attached to CNTs rather than cell surface because of the lower energ

276 sitivity and lower DeltaEp value compared to CNTs grown on carbon fibers or other metal wires.

277 CO2 is converted directly to CNTs and does not require pre-concentration of the airbo

278 e effects of direct and indirect exposure to CNTs on cellular and molecular levels and more globally

279 pts (PNTs) and completely novel transcripts (CNTs) (novelty score >/= 70%) revealed that the PNTs are

280 ily of concentrative nucleoside transporter (CNT) proteins has three members: hCNT1, hCNT2, and hCNT3

281 covalently-attached GOx (CA) on acid-treated CNTs and simply-adsorbed GOx (ADS) on intact CNTs, respe

282 t advances in the modification of MFCs using CNTs and CNT-based composites, and the extent to which e

283 By use of fast-scan cyclic voltammetry, CNT-coated niobium (CNT-Nb) microelectrodes exhibit high

284 material classes: (1) unaligned single-wall CNTs (SWCNT) films with controlled metallic SWCNT concen

285 e show for the first time that single-walled CNT and to a lesser extent multi-walled and its COOH-fun

286 lly transparent film comprised of few-walled CNTs with profound and unique improvement in microstruct

287 d 171 nm for single, double and multi walled CNTs respectively, as established using atomic force mic

288 nt a structural modification of multi-walled CNTs (MWCNTs) to fully utilize their fascinating mechani

289 ite, relatively thick and short multi-walled CNTs (MWCNTs) were introduced in the metal matrix with i

290 ring the physical properties of multi-walled CNTs (MWNTs)-antigen conjugates, e.g. length and surface

291 in the formation of the BC on single-walled CNTs (SWCNTs) due to physicochemical alterations in stru

292 Here we show that sealed single-walled CNTs filled with lead, barium and even krypton can be pr

293 s only 62.3%, but it increased to 81.1% when CNTs appeared in this circumstance.

294 The mechanism by which CNT-induced CAF-like cells promote tumor growth involved

295 f biological water transporters and of wider CNT pores by an order of magnitude.

296 barriers are reduced eightfold compared with CNT, the intrusion pressure is increased due to nanoscal

297 efactor determined from the RP equation with CNT based on the Kramers formalism yields an analytical

298 ndles that are stronger than those made with CNTs.

299 steam generation device based on the F-Wood/CNTs membrane demonstrates a high efficiency of 81% at 1

300 m the unique structural merits of the F-Wood/CNTs membrane-a black CNT-coated hair-like surface with

301 CNT)-modified flexible wood membrane (F-Wood/CNTs) is demonstrated as a flexible, portable, recyclabl