ライフサイエンスコーパス: oxide

1 )) to 1.18 +/- 0.01 W/m(2) (sodium manganese oxide).

2 ffusion of reactant species through the gate oxide.

3 icromolar, or iNOS-derived, levels of nitric oxide.

4 to be targets of endothelium-derived nitric oxide.

5 xpression and beta-cell production of nitric oxide.

6 ectrons with either mesityl azide or nitrous oxide.

7 nding fundamental defect dynamics in layered oxides.

8 atomic NiCoCr powder with nano-scale yttrium oxides.

9 le metals such as Pt interact with reducible oxides.

10 ving giant intrinsic SHE in transition metal oxides.

11 are ubiquitous in physics; transition metal oxides(1,2), layered molecular crystals(3) and trapped-i

12 urating solutions of CO (160 mum) and nitric oxide (100 mum).

13 (2-chloro-6-methoxyquinolin-3-yl)methanimine oxide (17) is a novel agent for cerebral ischemia therap

14 hen converted in the liver to trimethylamine oxide, a causative agent for atherosclerosis.

15 r things, the production of trimethylamine N-oxide, a proinflammatory compound associated with cardio

16 on, supports a wide range of metal and metal oxide active phases.

17 Periodic ozone exposure during gate oxide ALD on SiGe is shown to reduce the integrated trap

18 trast to the more familiar perovskites, when oxides, allow for face-sharing of metal-oxygen octahedra

19 Probing assays demonstrated that magnesium oxide alone or as a mixture with a phagostimulant blend,

20 c oxide interfacial perimeter of copper/zinc oxide/alumina (CZA) catalyst.

21 structure made out of transparent conducting oxide (aluminum doped zinc oxide) and pure VO(2) using p

22 the high baseline fractional exhaled nitric oxide and blood eosinophil subgroups, respectively) and

23 rder rate law, first order in both propylene oxide and catalyst concentrations, and zeroth order in C

24 ion and the surface oxygen vacancies of each oxide and contributes to the more facile Li(+) transport

25 pper oxide, as well as conducting indium-tin oxide and copper metal.

26 uorescence immunosensor with use of graphene oxide and graphene quantum dot for detection Campylobact

27 lating with soil clay, and iron and aluminum oxide and hydroxide content.

28 oil-in-water emulsion stabilized by graphene oxide and including a silicate precursor to grow a stron

29 notubes during the self-assembly of graphene oxide and M13, and a similar porous macro-structure was

30 in response to exposure to both free nitric oxide and nitrosothiols (k (inact)/K(I) >= 5 m(-1) s(-1)

31 d innate immune indices (haptoglobin, nitric oxide and ovotransferrin concentrations, and haemaggluti

32 self-assembled heterostructures of graphene oxide and polyamine macromolecules, forming a network of

33 obese mice generated higher levels of nitric oxide and superoxide radicals, resulting in increased lo

34 (cNOR), which reduce nitric oxide to nitrous oxide and water.

35 emission ratios between NMVOCs and nitrogen oxides and hence the ozone chemistry in the east and sou

36 of chiral magnetism in low-damping magnetic oxides and identify paths toward engineering chiral and

37 nd complex small organic molecules via arene oxides and oxepines.

38 We conclude that phosphine oxides and related phosphorus-containing functional grou

39 resistive switching materials such as metal oxides and solid electrolytes.

40 enides (cadmium, manganese, iron, and nickel oxides and sulfides).

41 l product scaffolds: the (dihydro)pyrazine-N-oxides and the diazeniumdiolate, valdiazen.

42 and handling of high-nickel (>90 %) layered oxides and their use as high-energy-density cathodes for

43 atalyst (1,2,2,3,4,4-hexamethylphosphetane P-oxide) and a hydrosilane reductant to drive the conversi

44 parent conducting oxide (aluminum doped zinc oxide) and pure VO(2) using pulsed laser deposition tech

45 cations and ammonia relative to other metal(oxides) and biocides.

46 th biobased epsilon-decalactone, cyclohexene oxide, and carbon dioxide to make a series of poly(cyclo

47 nd gasotransmitters (carbon monoxide, nitric oxide, and hydrogen sulfide).

48 fts upon coordination with triethylphosphine oxide, and in one case by infrared spectroscopy.

49 anosheet structure is selected as the parent oxide, and Ir serves as the active metal species that pr

50 Li(+) -conducting oxides are considered better ceramic fillers than Li(+)

51 We demonstrate that phosphine oxides are highly polar functional groups leading to hig

52 r than previously reported for any monolayer oxides are observed.

53 int towards haemoglobin scavenging of nitric oxide as a key regulatory factor of brachial flow-mediat

54 The application of 2,3-dichloropyridine N-oxide as an oxygen atom transfer reagent reverses the re

55 ability to conduct Li(+) through the ceramic oxide as well as across the oxide/polymer interface.

56 indium-gallium-zinc oxide (IGZO) and copper oxide, as well as conducting indium-tin oxide and copper

57 Here, we report an associative zinc oxide band-gap excitation and copper plasmonic excitatio

58 enzene over ZSM-5-supported transition metal oxide-based catalysts (MO(x)/ZSM-5, where M = V, Cr, Mo,

59 st in a few cases, Keplerate-type molybdenum oxide-based porous, spherical clusters, shorthand notati

60 were developed by using commercial graphene oxide-based screen-printed electrodes and varying enzyme

61 decade, interest in the use of beta gallium oxide (beta-Ga(2)O(3)) as a semiconductor for high power

62 Here, the perovskite oxide Bi(0.15) Sr(0.85) Co(0.8) Fe(0.2) O(3-) (delta) (B

63 ylnicotinamide, +33%; P=6.1x10(-67)), nitric oxide bioavailability (arginine/ornithine + citrulline,

64 and bismuth chalcogenides, including bismuth oxide, bismuth sulfide, bismuth selenide, and bismuth te

65 rgy, it would be advantageous to make indium oxide black.

66 fundamental atomic distortion in perovskite oxides, but only a few patterns are predominantly presen

67 rational design of three major categories of oxide cathodes for lithium-ion batteries, and a personal

68 2.9%, -10.2%), and fractional exhaled nitric oxide, CCL26 and SERPINB2 mRNA expression in bronchial t

69 gle-site halide doping of homometallic metal oxide clusters.

70 While clozapine N-oxide (CNO) activation of interneurons suppressed firing

71 of muscarinic-based DREADDs with clozapine-N-oxide (CNO) has been widely used, sluggish kinetics, met

72 nthesis of thin-film carbon nanomaterials on oxide-coated silicon substrates provides a viable pathwa

73 y a single value based on the AO-extractable oxide content.

74 gy-loss spectroscopy, we show that beryllium oxide crystallizes in the planar hexagonal structure in

75 ng the carburization process by transferring oxide crystals to carbide crystals, leading to the surfa

76 ation, and highly diastereoselective nitrile oxide cycloaddition.

77 Furthermore, BFM improved nitric oxide-dependent vasorelaxation induced by acetylcholine

78 the interface evolves during the entire ALD oxide deposition due to diffusion of reactant species th

79 xisting low-kappa materials (such as silicon oxide derivatives, organic compounds and aerogels) have

80 in resistance has been found in case of zinc oxide derived MEMS devices.

81 lectively, these results suggest that nitric oxide-derived oxidants may causatively link nuclear and

82 are cytoplasmic proteins required for nitric oxide detoxification and nitrosative stress resistance u

83 Hexafluoropropylene oxide-dimer acid (HFPO-DA), a replacement compound for p

84 bosylation reactions using a chemical nitric oxide donor S-nitrosoglutathione and enzymatic ADP-ribos

85 Striving for applications in oxide-electronic devices, the lateral homogeneity of suc

86 Specifically, nitric oxide emissions (NO) lead to increased smog, acid rain,

87 orms of carbon in soil, on potential nitrous oxide emissions in particular.

88 , characterised by the measurement of nitric oxide, endothelin-1, tissue plasminogen activator and pl

89 traditional supports (N-doped carbon, metal oxides, etc.) remains a formidable challenge, especially

90 nt H doping in green solvent-processed metal oxide films and the promise of high-performance, ultra-s

91 ical properties in strain-released epitaxial oxide films by using electroactive substrates to impart

92 on in volume filtered, selection of aluminum oxide filters, selection of blue laser and lack of H(2)O

93 In contrast to commonly used graphene oxide flakes, pristine graphene flakes possess well-defi

94 Here we use two Li(+) -insulating oxides (fluorite Gd(0.1) Ce(0.9) O(1.95) and perovskite

95 g to their great stretchability, these metal oxide FNs can be laminated/embedded on/into elastomers,

96 ygen redox reactions in conventional layered oxides for high-capacity lithium-ion batteries.

97 etter ceramic fillers than Li(+) -insulating oxides for improving Li(+) conductivity in composite pol

98 to 84%) of the C12A7 support rather than the oxide form (coverage up to 15%).

99 ry (DFT) to potentially predict the titanium oxides formed and their stability with reference to the

100 urface area (SSA) of the natural metal-(hydr)oxide fraction is ~350-1400 m(2)/g, illustrating that th

101 monodisperse nanohelices based on gadolinium oxide (Gd(2)O(3)).

102 on sulfide nanoclusters that catalyse nitric oxide generation from benign sodium nitrite in the prese

103 mpared to traditional metallic, organic, and oxide glasses.

104 In this study, graphene oxide (GO) is conjugated with ZOL, and the nanostructure

105 torage and membrane applications of graphene oxide (GO) materials are dictated by its intrinsic mater

106 ocessed 2D-molybdenum disulfide and graphene-oxide (GO) that can be deposited on to stainless steel s

107 The direct treatment of graphene oxide (GO) with the commercially available Lawesson's re

108 Inorganic arsenic oxides have been identified as carcinogens in several hu

109 We synthesized 12 manganese oxides having different crystal structures and particle

110 Complex oxide heterointerfaces and van der Waals heterostructure

111 However, the electronic properties of oxide heterointerfaces crucially depend on their ionic c

112 hereby providing a new approach to designing oxide heterostructures for novel ionotronics and neuromo

113 in addition to adsorption to hydrous ferric oxide (HFO) and clay.

114 ved in redox signalling, for instance nitric oxide, hydrogen sulfide and oxidized lipids.

115 to either immobilized metals (IMAC) or metal oxides, i.e., Fe(3+), TiO(2), or Ti(4+).

116 The strategy involves graphene-oxide/I(2)-catalyzed nitrene insertion using PhINTs as a

117 and ferrous iron in their structures, these oxides if present within the Earth could also provide in

118 including semiconducting indium-gallium-zinc oxide (IGZO) and copper oxide, as well as conducting ind

119 ted with a nanometric thin layer of graphene oxide in order to provide functional groups for the cova

120 harge-ordering phenomena in transition-metal oxides in general.

121 by surface complexation with metal (oxyhydr)oxides in oxic environments.

122 y and nucleation behavior of iron(III) (hydr)oxides in subsurface and water treatment systems as well

123 t it occurs via the cis/anti form of nitroso oxide independently on the nature of a meta substituent.

124 To establish whether 4-nitroquinoline N-oxide-induced carcinogenesis mirrors the heterogeneity o

125 inone analogue 2-heptyl-4-hydroxyquinoline-N-oxide inhibited C. thermarum NDH-2 activity, and its pot

126 of the underlying mechanism regulating metal/oxide interfaces for the optimization of heterogeneous c

127 ntribute to charge transfer and screening at oxide interfaces, triggering a thermodynamic balance of

128 omote methanol-production at the copper-zinc oxide interfacial perimeter of copper/zinc oxide/alumina

129 ctronic conductors (MIECs) that display high oxide ion conductivity (sigma(o) ) and electronic conduc

130 Highly isotactic poly(propylene oxide) (iPPO) was investigated as a potential high-stren

131 sulator transition (MIT) in transition-metal-oxide is fertile ground for exploring intriguing physics

132 The formation mechanism of the oxides is also investigated.

133 use of a thin metal film modified Indium Tin Oxide (ITO) electrode as a highly conductive, transparen

134 Indium tin oxide (ITO) is one of the most widely used transparent c

135 Conductive indium-tin-oxide (ITO, In(2)O(3):Sn) mesoporous films were function

136 ut not the external shunt resistance, of the oxide Josephson junction that represents the MJJ.

137 Lanthanum oxide (La(2)O(3)) NPs are therapeutically advantageous d

138 between the electrostrictive and memristive oxide layers.

139 ate for epitaxial growth of other functional oxide layers.

140 opyranoside (DDM), and lauryldimethylamine N-oxide (LDAO).

141 tion and reduced resting steady-state nitric oxide levels in the blood Collectively, our data point t

142 m chemistry of a high-nickel lithium layered oxide, Li(Ni(0.91) Co(0.06) Mn(0.03) )O(2) (NCM9163), wi

143 on of small amounts of the Ru complex with N-oxide ligands can significantly activate single-site Ru-

144 However, the role and fate of the oxide ligands in such intriguing additional capacity rem

145 and pasture agroecosystems had higher nitric oxide losses.

146 formed by decomposition of a complex metal M oxide (M (4)O(5)) with a stoichiometry of (Fe(3+) (2.15)

147 ters with multimaterial fibres allows nitric oxide-mediated neuronal interrogation in vivo.

148 The printed graphene oxide microelectrodes were electrochemically reduced and

149 Mesoporous metal oxides (MMOs) have been demonstrated great potential in

150 materials, especially for sodium-ion layered oxides, motivating the exploration of high compositional

151 Nitrous oxide (N(2) O) emissions from soil contribute to global

152 oils are also an important source of nitrous oxide (N(2) O), a powerful greenhouse gas, and increasin

153 ncing production of greenhouse gases nitrous oxide (N(2)O) and nitrogen (N(2)) in arable soils includ

154 Elevated levels of nitrous oxide (N(2)O) emissions are a matter of concern in agric

155 se gas and an ozone-depleting agent, nitrous oxide (N(2)O) plays a critical role in the global climat

156 rganic N-N-bond-containing molecules nitrous oxide (N(2)O), dinitrogen (N(2)), and hydrazine (N(2)H(4

157 servations were not seen in chalcogenide and oxide nanocrystals and exclusively observed in perovskit

158 c-co-glycolic acid) shell incorporating iron oxide nanocubes (IONCs).

159 Our results were obtained on model metal oxide nanomaterials and they shed light on a general pro

160 Here we report the development of a tantalum oxide nanoparticle (NP)-based mass tag for MC immunoassa

161 pendent neurotoxicity of dextran-coated iron oxide nanoparticles (dIONPs), a common type of functiona

162 Doxorubicin (Dox), coated with magnetic iron oxide nanoparticles (gamma-Fe(2)O(3) NPs), and stabilize

163 In this study, biocompatible magnetic iron oxide nanoparticles (IONPs) stabilized with trimethoxysi

164 rhodamine-conjugated superparamagnetic iron oxide nanoparticles (SPIONs) intravenously to detect mac

165 er exposure, MOF crystals shrank while metal oxide nanoparticles formed giving rise to the HP-MOFs.

166 anese ions results in high-valent Mn(III,IV)-oxide nanoparticles of the birnessite type bound to phot

167 the results of 20-nm gold and magnetic iron oxide nanoparticles-assisted laser ablation on a porcine

168 Subsequently, copper (oxide) nanoparticles provided a large number of adsorpti

169 The presence of Magneli phases in titanium oxide nanotubes (NTs) can open up frontiers in many appl

170 Gallium oxide nanowire growth can be achieved by heating and oxi

171 n (FGR), due in part to reductions in nitric oxide (NO) bioavailability.

172 ated routes for nitrite (NO(2)(-)) to nitric oxide (NO) conversion and phenol oxidation are of prime

173 Constant therapeutic gas phase nitric oxide (NO) delivery is achieved from S-nitrosothiol (RSN

174 toglobin (Cygb) functions as a potent nitric oxide (NO) dioxygenase and regulates NO metabolism and v

175 Nitric oxide (NO) is a gasotransmitter with important roles in

176 Nitric oxide (NO) is a key signaling molecule that regulates di

177 d concerning the effects of augmented nitric oxide (NO) on skeletal muscle force production and oxyge

178 with pharmacological approaches that nitric oxide (NO) produced through the citrulline-NO pathway pr

179 h vascular complications and impaired nitric oxide (NO) production.

180 as abolished by pretreatment with the nitric oxide (NO) synthase inhibitor l-N (G)-nitro-l-arginine m

181 sduction of endothelium-dependent and nitric oxide (NO)-mediated vasodilator activity, given its cont

182 dizers by converting hydroxylamine to nitric oxide (NO).

183 Uniform-sized amine-functionalized tantalum oxide NPs (d ~ 5.7 nm) were synthesized via a one-pot tw

184 ng a negligible long-term impact of nitrogen oxides on the catalytic properties of the model catalyst

185 cellular electron acceptors such as graphene oxide or electrodes in microbial electrolysis cells.

186 lysts such as carbon materials, metal, metal oxides or dyes.

187 promising P2-layered sodium transition metal oxides (P2-Na(x)TmO(2)) often suffer from structural/che

188 On another layer, graphene oxide paper was applied as an LDI-MS substrate for sensi

189 disordered iron-binding domain, and an iron oxide particle was visualized at high resolution by cryo

190 presence of representative poorly conductive oxide particles in our experimental conditions was achie

191 c cases of molybdenum disulfide and graphene oxide particles, dispersed in a nematic liquid crystal,

192 y of photosystems to form extended manganese oxide particles.

193 actone (PCL) fibers surrounding polyethylene oxide (PEO) fibers that incorporated methoxy poly(ethyle

194 ncies to demonstrate two oxide/poly(ethylene oxide) (PEO)-based polymer composite electrolytes, each

195 accelerates the discovery of a series of new oxide perovskite catalysts with improved OER activity.

196 work, SR is used to guide the design of new oxide perovskite catalysts with improved oxygen evolutio

197 t room temperature using a halide perovskite/oxide perovskite heterostructure.

198 Epitaxial heterostructures based on oxide perovskites and III-V, II-VI and transition metal

199 As such, several hexagonal oxide perovskites have been identified as potential cand

200 enhanced structure dynamics as compared with oxide perovskites or more conventional semiconductors.

201 Like nitric oxide, pharmacological inhibition of mitochondrial oxida

202 hanism of this multi-redox reaction on metal-oxide photoanodes remains a significant experimental and

203 ation of oxygen vacancies to demonstrate two oxide/poly(ethylene oxide) (PEO)-based polymer composite

204 ough the ceramic oxide as well as across the oxide/polymer interface.

205 In this work, we take double perovskite oxide PrBa(0.5)Sr(0.5)Co(1.5)Fe(0.5)O(5+delta) (PBSCF) a

206 In vivo measurements of collagen and iron oxide probes showed a significant correlation with ex vi

207 ted the JAK/STAT1/IRF1 axis, inducing nitric oxide production and driving caspase-8/FADD-mediated PAN

208 of the simultaneous consideration of nitric oxide production and inactivation when investigating vas

209 o high glucose, with the reduction in nitric oxide production being the most notable.

210 ates permeability, leukocyte traffic, nitric oxide production, and coagulation, and harbors diverse g

211 events NMDA receptors from triggering nitric oxide production, thereby attenuating the flow increase

212 yer-to-tunnel structure transformation of Mn oxides, provided new insights for natural biotic and abi

213 wer production varied considerably among the oxides, ranging from no power produced (beta-MnO(2)) to

214 nets derived from inorganic materials (e.g., oxides, rare-earth-based, and intermetallic compounds) a

215 d hydrogen and/or the premonolayer palladium oxide redox processes at Pd.

216 We present a tyrosinase-conjugated zinc oxide-reduced graphene oxide (Tyr/ZnO-rGO) nanocomposite

217 duction of NO to N(2)O by flavodiiron nitric oxide reductases (FNORs) is related to the disruption of

218 tration of ozone in winter, reduced nitrogen oxides resulted in ozone enhancement in urban areas, fur

219 mical treatment to generate reduced graphene oxide (rGO) within 3D-printed polylactic acid (PLA) elec

220 electrodes by nanoflakes of reduced-graphene-oxide (rGO), and immobilizing specific viral antigens on

221 polymers and particulates, reduced graphene oxide (rGO), and metal-organic frameworks.

222 achieved on self-assembled reduced graphene oxide (rGO).

223 AAS catalyzes different reactions (styrene oxide ring-opening, vesidryl synthesis, Friedel-Crafts a

224 compositional complexity in the passivating oxide(s) and underlying metal interface exacerbates thes

225 puttering deposition and complementary-metal-oxide semiconductor (CMOS) processes.

226 A room temperature amorphous ferromagnetic oxide semiconductor can substantially reduce the cost an

227 mise of high-performance, ultra-stable metal oxide semiconductor electronics with simple binary compo

228 rature polycrystalline silicon and amorphous oxide semiconductors have partly replaced a-Si:H channel

229 ng aqueous-solution approaches of more metal-oxide semiconductors with exotic phase structures and pr

230 amperometric detection and reduced graphene oxide sensor for ascorbic acid determination in samples

231 Nitric oxide signalling is integral to NVC in humans, providing

232 Changes in haematocrit influence nitric oxide signalling through alterations in shear stress sti

233 endothelial function, likely through nitric oxide signalling.

234 transformation is absent in the constituent oxides, solid solutions and larger period superlattices.

235 azone motif linked to the 1,2,5-oxadiazole 2-oxide subunit was synthesized, indicating the stability

236 with concomitant loss of triphenylphosphine oxide, suggesting their possible role as intermediates i

237 der step-edges, hence highly confined by the oxide support.

238 imity at interfaces; however, in traditional oxide-supported materials, this requirement is met only

239 ependent redox chemistry of transition metal oxide surfaces.

240 (IK and SK) channels and endothelial nitric oxide synthase (eNOS) are present in the endothelium of

241 that radiotherapy increased inducible nitric oxide synthase (iNOS) in the tumor tissues.

242 binding proteins (GBPs) and inducible nitric oxide synthase (iNOS), which we found to inhibit R. park

243 (FBF) response to acetylcholine, and nitric oxide synthase (NOS) activity was defined as the inverse

244 further by triple labeling with CGRP, nitric oxide synthase (NOS) and calretinin (CALR) antibodies.

245 alance (e.g. oxytocin (OXT), neuronal nitric oxide synthase 1 (NOS1), melanocortin 4-receptor (MC4R),

246 bred mice that lack the gene encoding nitric oxide synthase 2 (Nos2) are susceptible to the related m

247 Increased activities of inducible nitric oxide synthase and NADPH oxidase 1 enzymes at myoendothe

248 ells, which are mediated by inducible nitric oxide synthase expression and beta-cell production of ni

249 ncoupling of endothelial and neuronal nitric oxide synthase, and vascular/brain infiltration with inf

250 endogenous inhibitor and uncoupler of nitric oxide synthase, has gained attention as a risk factor fo

251 by affecting the NF-kappaB-inducible nitric oxide synthase-endoplasmic reticulum stress pathway.

252 inhibition via the enzyme endothelial nitric oxide synthase.

253 revealed significant upregulation of nitric oxide synthetase (NOS1 and NOS3) and neuroprotective gen

254 onic properties of the Sn(1-x)Pb(x)O ternary oxide system.

255 photo- and electrocatalytic transition metal oxide systems.

256 manner, these findings indicate that nitric oxide targets the same metabolic pathways necessary for

257 Fractional exhaled nitric oxide testing is recommended to assist in diagnosis and

258 ) is the only known simple transition-metal oxide that demonstrates a near-room-temperature metal-in

259 this reaction are the corresponding nitroso oxides, the unimolecular consumption of which occurs via

260 obin) and oxygen, carbon dioxide, and nitric oxide-the three-gas respiratory cycle-that insures adequ

261 e been thoroughly investigated in perovskite oxides-the archetypal ferroelectric system(3).

262 stimuli and haemoglobin scavenging of nitric oxide; these two regulatory factors have not been assess

263 eficial for the realization of complementary oxide thin film transistors technology, transparent flex

264 uced conductivity modulation of a perovskite oxide thin film, SrTiO(3), that is well known to serve a

265 layer MoS(2) and a neighboring ferroelectric oxide thin film.

266 ctric domain walls in single-crystal complex oxide thin films are found to be orders of magnitude slo

267 Moreover, key physical properties of complex-oxide thin films, such as piezoelectricity and magnetost

268 by forming nanopillar regions in perovskite oxide thin films.

269 al and topological states in centrosymmetric oxides through rare-earth ion substitution.

270 and colleagues report that trimethylamine N-oxide (TMAO), an intestinal microbiome-dependent metabol

271 A gut-microbial metabolite, trimethylamine N-oxide (TMAO), has been associated with coronary atherosc

272 es requiring 5-fold less than trimethylamine oxide to elicit the same effect.

273 nt NO reductases (cNOR), which reduce nitric oxide to nitrous oxide and water.

274 ications that utilize transparent conductive oxides to accept or deliver electrons.

275 reversible, and it was absent in clozapine N-oxide-treated rats expressing an empty control virus.

276 inase-conjugated zinc oxide-reduced graphene oxide (Tyr/ZnO-rGO) nanocomposite system as a biosensing

277 te assessment of the reactivity of manganese oxides used as engineered geomedia for quinolone remedia

278 Generation of the oxygen-deficient vanadium oxide, [V(6)O(6)(OC(2)H(5))(12)](1-), was confirmed via

279 organyl-4-(organylchalcogenyl)isoquinoline-2-oxides via electrophilic cyclization between alkynylbenz

280 a molecular model for halogen-doped vanadium oxide (VO(2)) materials that have recently attracted gre

281 Herein, graphene oxide was used for creating disordered macro and mesopor

282 By combining metal-oxide WD catalysts that are efficient near the acidic pr

283 n bands of molybdenum disulfide and graphene oxide, we demonstrate that an accurate position can be o

284 y immunohistochemistry, and levels of nitric oxide were measured.

285 oval was achieved when antibiotics and metal oxides were allowed for preequilibration before starting

286 organyl-4-(organylchalcogenyl)isoquinoline-2-oxides were selectively obtained in yields of up 93% und

287 ck-poly(2-vinylpyridine)-block-poly(ethylene oxide) were used to interact with H(4) TPPS(2-) .

288 insight into the mechanisms by which nitric oxide, which is produced in hepatocytes in response to i

289 ism, and geological viability of these Xe-Fe oxides, which advance fundamental knowledge for understa

290 tal structures and morphologies of manganese oxides, which undergo redox reactions coupled to sodium

291 he phase-pure P2-Na(2)Mn(2)FeO(6) quaternary oxide with high uniformity of metal ion distribution as

292 orner coupling of the known A-ring phosphine oxide with the corresponding Grundmann ketones prepared

293 the generation of small nodules of manganese oxide with which the cells associated.

294 ial building blocks for designing functional oxides with remarkable properties, ranging from electric

295 doped MMOs, composite MMOs, and polymetallic oxide) with high crystallinity and remarkable porous pro

296 f soluble fumarate and heterogenous graphene oxide, with electrons from an external power source or a

297 g a suitable composition of transition metal oxide, with some groups identifying the underlying featu

298 permits access to sensitive monocyclic arene oxides without any noticeable decomposition to phenols.

299 cluding transition metal dichalcogenides and oxides, Xenes, Mxenes and other non-metallic 2D material

300 Zinc oxide (ZnO) is a stable, direct bandgap semiconductor em