ライフサイエンスコーパス: aluminum

1 form of aluminum (i.e., inorganic monomeric aluminum).

2 different metals in the two rings (zinc and aluminum).

3 only as a byproduct of other metals (mainly aluminum).

4 les occurs in nanoscopic regions enriched in aluminum.

5 nterleaved by monolayers or bilayers of pure aluminum.

6 of the in-use stocks and recycling rates of aluminum.

7 inum flux contain co-crystallized, epitaxial aluminum.

8 ts of 5.3-12.2 USD for iron and 39.2 USD for aluminum.

9 Aluminum 2024 and permalloy 80 alloys were stacked toget

10 cal oxygen demand was observed for recovered aluminum (85-60% and 65-50%, respectively).

11 ith two distinctive substrates, sapphire and aluminum, across a broad range of collision velocities,

12 ENSITIVE TO PROTON RHIZOTOXICITY (STOP1) and ALUMINUM ACTIVATED MALATE TRANSPORTER 1 (ALMT1), represe

13 Here, we report the identification of ALMT4 (ALUMINUM ACTIVATED MALATE TRANSPORTER4) as an Arabidopsi

14 Aluminum-activated malate transporters (ALMTs) form a fa

15 We have now developed a thermostable, aluminum-adjuvant-containing formulation of RiVax and te

16 An aluminum (Al) alloy/Ti2AlC composite is selected as an e

17 atomic absorption spectrometric analysis of aluminum (Al) and chromium (Cr) in vegetables.

18 Despite the rhizotoxicity of aluminum (Al) being identified over 100 years ago, there

19 V), cobalt (Co), nickel (Ni), zinc (Zn), and aluminum (Al) concentrations in atmospheric deposition,

20 d (2) decreasing in-lake P immobilization by aluminum (Al) hydroxide due to decreasing leaching of io

21 e main direction in increasing reactivity of aluminum (Al) particles for energetic applications is re

22 Despite the physiological importance of aluminum (Al) phytotoxicity for plants, it remained unkn

23 ated dynamic material flow model of Austrian aluminum (Al) stocks and flows between 1964 and 2012 was

24 o form the mixture of amorphous (am) and fcc-aluminum (alpha-Al) phases.

25 uclear multiple-bonded neutral Al compounds, aluminum analogues of alkenes, have been a notoriously d

26 n activation and marked stress relaxation in aluminum and gold films spanning a range of thicknesses

27 Notably, the stress relaxation in both aluminum and gold occurs at beam energies well below the

28 These observations in aluminum and gold, two metals with highly dissimilar ato

29 there was no significant difference between aluminum and iron electrodes (P value of 0.0526-0.9487).

30 Both aluminum and iron residuals required post-treatment filt

31 del in mice immunized with NS1 combined with aluminum and magnesium hydroxide, monophosphoryl lipid A

32 ally anodizing the disordered multicomponent aluminum and properly tailoring the thickness and air-fi

33 Aluminum and Si were the major elements dissolved from N

34 Bronsted acidity to the surface coverage of aluminum and silicon on silica and alumina, respectively

35 of HDDs treated, 212 kg comprising mainly of aluminum and steel can be finally recovered from the met

36 erephthalate ethylene and glass bottles, and aluminum and steel cans) were analyzed.

37 method was applied to crystalline and liquid aluminum and uranium at different temperatures and densi

38 oorly crystalline hydrous oxides of iron and aluminum, and (4) well-crystallized hydrous oxides of Fe

39 Five metals (titanium, arsenic, selenium, aluminum, and barium) were significantly associated with

40 2.3 nm, and including other surfaces (glass, aluminum, and porcelain).

41 dant, dendrite-free, multi-electron-reaction aluminum anodes and environmentally benign deep-eutectic

42 A linear chain of hydrogen molecules, solid aluminum arsenide, and solid argon provide numerical ill

43 e first thermal conductivity measurements of aluminum at 0.5-2.7 g/cc and 2-10 eV, using a recently d

44 ed for determining the recovery potential of aluminum at low pH.

45 to a decrease in electron density around the aluminum atom, which causes an increase in the attractiv

46 lied that the charge distributions about the aluminum atoms in (BDI)Al and (BDI)AlH2 are similar rela

47 le, however, it also decreased the amount of aluminum available for recycle.

48 The transition from noble metals to aluminum based antenna-reactor heterostructures in plasm

49 The aluminum-based deep-eutectic solvent demonstrated a sign

50 Herein, an aluminum-based deep-eutectic-solvent is investigated as

51 Aluminum-based localized surface plasmon resonance (LSPR

52 The aluminum-based metal-organic framework (MOF) made from 2

53 ovel isoreticular, highly porous and stable, aluminum-based metal-organic frameworks with soc topolog

54 In aluminum-bearing compositions relevant to Earth's mantle

55 stern U.S. were used to quantify proton- and aluminum-binding properties of naturally occurring organ

56 With aluminum, bright mode resonances are tunable over tens o

57 ork City during December 2008-November 2009: aluminum, bromine, calcium, copper, iron, potassium, man

58 Binding between organic acids and aluminum can substantially influence the acid behavior o

59 as the progressive substitution of steel and aluminum car components by magnesium alloys to reduce th

60 (the dominant vehicle material) with wrought aluminum, carbon fiber reinforced plastic (CRFP), or mag

61 lic cocatalyst, and the Lewis acidity of the aluminum catalyst all influence the rates of these side

62 tricyclic anhydride, the molar ratio of the aluminum catalyst to the nucleophilic cocatalyst, and th

63 systems based on zinc, chromium, cobalt, and aluminum catalysts for the ring-opening alternating copo

64 An aluminum-catalyzed hydroboration of alkynes using either

65 Despite the extra stabilization of the aluminum center by the interaction with both the sulfur

66 Electrostatic tethering to framework aluminum centers limits the volume that each ion can exp

67 verdine was immobilized covalently on planar aluminum chip substrates.

68 lectrolyte for Mg batteries is the magnesium aluminum chloride complex (MACC) which shows high Mg ele

69 Magnesium Aluminum Chloride Complex was synthesized and utilized a

70 ected alkyne nucleophiles in the presence of aluminum chloride.

71 review assesses the basis for the 15 SMCLs (aluminum, chloride, color, copper, corrosivity, fluoride

72 SMCLs for aluminum, color, pH, silver, sulfate, total dissolved so

73 It has been demonstrated that the aluminum concentration in silica plays a key role in det

74 Residual aluminum concentrations were lowest at pH 6.5, while iro

75 ral water systems through the dissolution of aluminum-containing minerals in acidic sulfate solutions

76 In contrast, higher aluminum contents will result in the destruction of the

77 s calculations showing that small amounts of aluminum could be metastable when located in the center

78 up to 2050 based on scenarios for the global aluminum cycle, and compare it with scenarios for galliu

79 The fluorescence intensity of the aluminum-DEMAX complex remains unaltered for over 24h at

80 tical parameters such as pH, waiting time of aluminum-DEMAX complex, amount of reagent, effect of tem

81 l-prism) and the (6,12)-coordinated alb net (aluminum diboride, hexagonal-prism and trigonal-prism).

82 ctivities are explained by changes in the 3D aluminum distribution due to migration of extraframework

83 e demonstrate the electro-thermal control of aluminum-doped zinc oxide (Al:ZnO) /vanadium dioxide (VO

84 Aluminum-doped zinc oxide (AZO) was deposited by low-tem

85 NT) arrays composed of alternating layers of aluminum-doped zinc oxide and zinc oxide.

86 Herein, we report the novel system of nickel-aluminum double layered hydroxide (NiAl-LDH) nanoplates

87 he above issues by doping a proper amount of aluminum during silver deposition.

88 late (POM) films in contact with a metallic (aluminum) electrode and at introducing them as highly ef

89 Iron electrodes out-performed aluminum electrodes in removing chromium and arsenic.

90 Aluminum electrodes performed significantly worse than i

91 removal of soluble phosphorus using iron and aluminum electrodes was studied in water samples from th

92 At pH 6.5, aluminum electrodes were slightly more effective at remo

93 Aluminum electrolytic capacitors (AECs) are widely used

94 ic film by the excited, hot electrons of the aluminum film.

95 e phosphate analogues beryllium fluoride and aluminum fluoride led to complete inhibition of ATPase a

96 ched ((154)Sm(11)B6) crystals prepared using aluminum flux contain co-crystallized, epitaxial aluminu

97 A scaffold based on VACNT grown on aluminum foil (VACNT-Al foil) with poly (9,9-di-(2-ethyl

98 particles (Al NPs) prepared by sonication of aluminum foil on the UVC inactivation of E. coli bacteri

99 anometer thin films grown on highly flexible aluminum foil substrates using low-temperature molecular

100 Heating glass Petri dishes or squares of aluminum foil to about 350-400 degrees C for 4-6 min rem

101 o-mesoporous alumina catalysts/supports from aluminum foil waste and demonstrates its application in

102 ous gamma-Al2O3 from AlCl3.6H2O derived from aluminum foil waste and designated as ACFL550 is demonst

103 heric particulate matter was precipitated on aluminum foils and analyzed by Raman microspectroscopy a

104 Ultra-thin (10-180 nm) GeSn film-coated aluminum foils display a wide color spectra with an abso

105 In this work, recovery of aluminum from coagulated primary sludge and its reuse po

106 ss consisted of releasing the particle-bound aluminum from primary sludge by acidification (HCl or H2

107 cture in the bulk of a sample of cold rolled aluminum, further deformed locally by a hardness indenta

108 A diode laser (aluminum-gallium-arsenide, 660 nm) was applied to test s

109 The efficacy of erbium:yttrium-aluminum-garnet (Er:YAG) laser application as an adjunct

110 l ultrasonic scaler versus an erbium:yttrium-aluminum-garnet (Er:YAG) laser on titanium surfaces cont

111 cluding carbon dioxide (CO2), erbium:yttrium-aluminum-garnet (Er:YAG), pulsed dye (PDL), and Nd:YAG h

112 beneficiary proximity to his or her yttrium-aluminum-garnet (YAG) laser capsulotomy-providing ophtha

113 the modulation transfer function of yttrium-aluminum-garnet doped with cerium, anthracene, and calci

114 ence that using a diode or neodymium:yttrium-aluminum-garnet laser adds clinical value over and above

115 tion (NOAA) in Boulder, Colorado, charged 30 aluminum gas cylinders with northern hemisphere air at N

116 onductor supports, such as indium tin oxide, aluminum, highly ordered pyrolytic graphite, and glassy

117 lized amide reducing agents, such as lithium aluminum hydride (LiAlH4) and diisobutylaluminum hydride

118 ynes using either the commercially available aluminum hydride DIBAL-H or bench-stable Et3 AlDABCO as

119 ans-2,6-disubstituted piperidines by lithium aluminum hydride reduction of the imine intermediate by

120 her the Lindlar hydrogenation protocol or an aluminum hydride reduction.

121 f a well-defined binary, low-oxidation-state aluminum hydride species that is stable at ambient tempe

122 ines 1 was hydroluminated using di-iso-butyl aluminum hydride.

123 Aluminum hydroxide (AH) salts are the most widely used a

124 d with phosphonates to allow adsorption onto aluminum hydroxide (alum), a formulation commonly used i

125 lux; dithiocarbamate, a metal ionophore; and aluminum hydroxide (alum), an immunological adjuvant.

126 from Escherichia coli or subcutaneously with aluminum hydroxide (Alum)-adsorbed rBet v 1.

127 rgp120 with MF59 (n=48), VaxGen rgp120 with aluminum hydroxide (alum; n=49), or placebo (n=19) betwe

128 Feld1 adsorbed to aluminum hydroxide or just aluminum hydroxide (placebo) in a double-blind setting.

129 immunization with tetanus toxoid adsorbed to aluminum hydroxide (TT/Alum).

130 ion exchange accompanied by precipitation of aluminum hydroxide allows progress of the cation exchang

131 d that induction of tolerance to proteins in aluminum hydroxide can be achieved in Foxp3-deficient mi

132 SIV vaccine with and without gp140 boost in aluminum hydroxide in rhesus macaques.

133 he combined vaccine antigens formulated with aluminum hydroxide induced antibodies with opsonophagocy

134 g ovalbumin as a model antigen adsorbed onto aluminum hydroxide or aluminum phosphate, a commercially

135 unotherapy (ILIT) with MAT-Feld1 adsorbed to aluminum hydroxide or just aluminum hydroxide (placebo)

136 laining its role as a precursor to amorphous aluminum hydroxide phases.

137 of aluminum salts (i.e., up to ~1%, w/v, of aluminum hydroxide) can be converted into a dry powder b

138 the season, Bet v 1 COPs (50 and 100 mug in aluminum hydroxide) or placebo (saline and aluminum hydr

139 n aluminum hydroxide) or placebo (saline and aluminum hydroxide) were administered as 5 subcutaneous

140 a human hepatitis B vaccine adjuvanted with aluminum hydroxide, and a human papillomavirus vaccine a

141 We tested a human-safe, aluminum hydroxide-adjuvanted whole-cell T. vaginalis va

142 et v 1-specific antibodies in the absence of aluminum hydroxide.

143 ent tolerance when the Ag is provided as OVA-aluminum hydroxide.

144 sion proteins in the absence and presence of aluminum hydroxide.

145 Additionally, other extra-lattice aluminum hydroxyl groups previously discussed in the lit

146 human papillomavirus vaccine adjuvanted with aluminum hydroxyphosphate sulfate, it was shown that vac

147 er and the availability of the toxic form of aluminum (i.e., inorganic monomeric aluminum).

148 guanidine TolN horizontal lineSIMe with the aluminum(I) compound NacNacAl (1) results in the unprece

149 led to be the source of the stability of the aluminum(II) dianion.

150 is is the case for steel replaced by wrought aluminum in all assumed cases, and for CFRP and magnesiu

151 Here, we report earth-abundant embedded aluminum in cuprous oxide antenna-reactor heterostructur

152 ed method was successfully used for assaying aluminum in some food samples and dialysis solution, mea

153 thod for the simple and rapid measurement of aluminum in some food samples, which used 3',6'-bis(diet

154 enic to clay minerals and oxides of iron and aluminum in subsoil horizons.

155 is a linear function of the concentration of aluminum in the 0-1000mg/L range with a detection limit

156 ere a unique example of an in situ generated aluminum initiator stabilized by a C2-symmetric salen li

157 xes showed that a mixed alkoxide/carboxylate aluminum intermediate preferentially opens cyclic anhydr

158 sediment P retention, we injected dissolved aluminum into the anoxic sediment of a eutrophic semienc

159 ve, and this is particularly so, because the aluminum ion to be exchanged has higher affinity than ca

160 er-pnictogens with potential applications in aluminum-ion batteries.

161 e we have used a beam of quasi-monoenergetic aluminum ions to heat gold and diamond foils uniformly a

162 llowing four elements or compounds: calcium, aluminum, iron, and soil organic matter.

163 Polarized aluminum K-edge X-ray absorption near edge structure (XA

164 r up to 9 months in two packaging materials: aluminum laminated polyethylene and polyamide/polyethyle

165 Packaging in aluminum laminated polyethylene under ambient conditions

166 ively in line with energy transport from the aluminum layer into the underlying magnetic film by the

167 egligible number of IR photons penetrate the aluminum layer.

168 /palladium multilayer capped by an IR-opaque aluminum layer.

169 A novel sorbent, lithium aluminum layered double hydroxide chloride (LDH), is syn

170 deviation (RSD) was 0.1% for a 1microgL(-1) aluminum level.

171 th iron removing >70% soluble phosphorus and aluminum <40% (P values of 0.0035-0.0143).

172 ficient function analysis is shown using the aluminum malate transporter1 gene.

173 higher risk of ischemic heart disease among aluminum manufacturing workers, particularly in smelters

174 ation as well as adapted Luche reduction and aluminum-mediated epoxidation reactions to maximize the

175 Aluminum metal is a promising anode material for next ge

176 ed plasma plume expanding from a high purity aluminum metal target into ambient air.

177 cs and nonlinear material characteristics of aluminum microparticles are investigated through precise

178 er in energy to solid phases than to aqueous aluminum monomers, thus explaining its role as a precurs

179 This paper describes how aluminum nanoparticle arrays embedded in an elastomeric

180 Here, we investigate the effects of aluminum nanoparticles (Al NPs) prepared by sonication o

181 Chiral aluminum nanoparticles, dispersed in water, are prepared

182 nm, the far field radiative enhancements of aluminum nanostructures are significantly higher than th

183 ggest that trucks contain greater amounts of aluminum, nickel, niobium, and silver and significantly

184 evice that utilizes a thin film of sputtered aluminum nitride as dielectric gate material.

185 y acoustic devices where piezoelectricity in aluminum nitride can also be exploited.

186 ged nitrogen vacancy center in piezoelectric aluminum nitride exhibits spin-triplet ground states und

187 erimental results indicate that the graphene-aluminum nitride-graphene device concept presents a prom

188 analysis indicates that optimum recovery of aluminum occurred at a pH of 1.5 for both acids.

189 selenate forms outer-sphere complexes in the aluminum octahedral interlayer of basaluminite.

190 studied, the effect of very small amounts of aluminum on the structure and properties of silica remai

191 mation of multimicrometer-sized particles of aluminum or magnesium alloys into alkoxide nanowires of

192 lkenyl, and alkynyl organomagnesium, -zinc, -aluminum, or -boron reagents, although the reactivity wa

193 tion from dual templates using porous anodic aluminum oxide (AAO) membranes with silica nanospheres s

194 ned by using R2R UV-NIL technique and anodic aluminum oxide (AAO) mold.

195 40 K using an aluminum surface with anodized aluminum oxide (AAO) nanoporous texture finish.

196 anopore-based sensors fabricated from anodic aluminum oxide (AAO) thin film, offers improved sensitiv

197 p Effective, Rugged and Safe (QuEChERS) with aluminum oxide (Al2O3) as dispersive solid phase extract

198 erein, we discovered that the earth-abundant aluminum oxide (Al2O3) though paradigmatically known to

199 Namely, anodized aluminum oxide (Al2O3, 2-20 nm) and self-assembled monol

200 tive sites over commercial copper/zinc oxide/aluminum oxide (Cu/ZnO/Al2O3) catalysts for carbon dioxi

201 Porous anodized aluminum oxide (pAAO) is a nanostructured material, whic

202 The anodic aluminum oxide alignment method is applicable to a broad

203 When mixed with a platinum/aluminum oxide catalyst and aged in air at 800 degrees C

204 mismatch between the GaAs and ALD-deposited aluminum oxide due to their different coefficients of th

205 that has been coated and passivated with an aluminum oxide film deposited by atomic layer deposition

206 y deep reactive ion etching through a porous aluminum oxide layer.

207 Insulating aluminum oxide nanocrystals are assembled layer by layer

208 The nanofluid consists of DI-water, 0.10% Aluminum Oxide nanoparticles with an average diameter of

209 Fabricated separators based on aluminum oxide nanowires enhanced the safety and rate ca

210 is is achieved by atomic layer deposition of aluminum oxide on Ag NCs and addition of a tetra-topic p

211 Anodic aluminum oxide substrates with macroscopically aligned h

212 n polyacrylic acid (PAA) layer with a native aluminum oxide surface.

213 ike, and stepwise are prepared from anodized aluminum oxide templates.

214 grown metal nanorod arrays in porous anodic aluminum oxide templates.

215 interface of ultrathin PMMA films on native aluminum oxide, deposited by reactive adsorption, was st

216 oposal of an adsorption mechanism of PMMA on aluminum oxide, which shows the formation of methanol at

217 ed by calcium and iron sulfates, silicon and aluminum oxides, sodium carbonate, and iron sulfide.

218 omparing the aqueous AlAl12(7+) ion to solid aluminum (oxy)-hydroxide phases, we found that this ion

219 s a metastable precursor in the formation of aluminum oxyhydroxide solids.

220 gand (3M-052) that facilitates adsorption to aluminum oxyhydroxide via the structural properties of t

221 In immunized mice, the aluminum oxyhydroxide-adsorbed formulation of 3M-052 enh

222 show a strong affinity of poorly crystalline aluminum phases such as basaluminite for As(V) and Se(VI

223 F vaccine (60 or 90 microg) with or without aluminum phosphate adjuvant, or placebo at days 0 and 28

224 the surface of the Fe3O4@Al2O3 MNPs through aluminum phosphate chelation under microwave heating wit

225 antigen adsorbed onto aluminum hydroxide or aluminum phosphate, a commercially available tetanus tox

226 ed dilute (2 mg P g(-1)) ternary mixtures of aluminum phosphate, iron phosphate, hydroxyapatite, and

227 ll as heavy-shape-dependence greatly prevent aluminum plasmonics from real-life biosensing.

228 Aluminum plasmonics offers attractive opportunities for

229 low-cost, high-performance biosensing using aluminum plasmonics, which would find wide applications

230 nufactured materials in sediments, including aluminum, plastics, and concrete, coincides with global

231 ihalide compounds, when activated with alkyl aluminum reagents, form highly active catalysts for the

232 antified the local density via the energy of aluminum's bulk plasmon.

233 ne the efficiency of a benchtop EC unit with aluminum sacrificial electrodes to reduce concentrations

234 anhydrides with excess propylene oxide using aluminum salen catalysts.

235 nhydrides catalyzed by chromium, cobalt, and aluminum salen complexes is reported.

236 ally unhindered monomers using a fluorinated aluminum salph complex with a substoichiometric amount o

237 Aluminum salt (alum) adjuvants have been used for many y

238 el, a formulation containing truncated gD-2, aluminum salt, and MPL (gD/AS04) advanced to clinical tr

239 trated that immunization with MF59-, but not aluminum salt-adjuvanted HlaH35L, induced expanded Ag-sp

240 ong history and extensive usage of insoluble aluminum salts (alum) as vaccine adjuvants, the molecula

241 stinct cytokine milieus: OVA protein in CFA, aluminum salts (Alum), and Schistosoma mansoni eggs (Sm

242 ontaining a relatively high concentration of aluminum salts (i.e., up to ~1%, w/v, of aluminum hydrox

243 rying of vaccines with low concentrations of aluminum salts and high concentrations of trehalose alon

244 atracheal instillation, particulates such as aluminum salts and silica killed alveolar macrophages (A

245 Therefore, vaccines that contain aluminum salts as adjuvants are formulated as liquid sus

246 ommercially available human vaccines contain aluminum salts as vaccine adjuvants.

247 Adsorption of TLR ligands to aluminum salts facilitates enhanced adjuvant activity, s

248 For nearly a century, aluminum salts have been the most widely used vaccine ad

249 Formulating vaccines adjuvanted with aluminum salts into dry powder that can be readily recon

250 s excipients can convert vaccines containing aluminum salts into dry powder, but fails to preserve th

251 uberculosis or HIV, the adjuvant activity of aluminum salts may not be potent enough to achieve prote

252 The influence of different aluminum salts on the phase purity, morphologies, therma

253 tional Ab responses, formulated with MF59 or aluminum salts, focusing on germinal centers (GC) in sec

254 ied polyacrylamide gel route using different aluminum salts, including Al2(SO4)318H2O, AlCl3, and Al(

255 idazoquinolines do not efficiently adsorb to aluminum salts.

256 produce dry powders of vaccines that contain aluminum salts.

257 If in-use stocks of aluminum saturate or decline, a shift to other gallium s

258 previously identified allele (als3-3) of the ALUMINUM SENSITIVE3 (ALS3) gene, which is involved in pl

259 y three metals, namely potassium, copper and aluminum significantly explained between 7% and 11% of t

260 onodentate complexes between sulfate and the aluminum sites on anorthite surfaces.

261 ed long-term exposure to PM2.5 in cohorts of aluminum smelters and fabrication workers in the United

262 rms with barium chloride creating an aqueous aluminum solution monospecific in MAl12(7/8+).

263 ond metathesis between the resultant alkenyl aluminum species and HBpin, which acts to drive turnover

264 Precipitation of various aluminum species was modeled for determining the recover

265 HP) on typical impervious surfaces including aluminum, steel, glass, and acrylic.

266 f the PVR measurements was assessed using an aluminum step wedge and ceramic graft.

267 ion and service delivery of iron, steel, and aluminum stocks of cars in Great Britain, 2002-2012.

268 n A. thaliana is highly similar to that with aluminum stress.

269 d tolerance to drought, high light, heat and aluminum stresses, whereas the T-DNA insertion mutant er

270 neral precipitation through the formation of aluminum-sulfate complexes in the aqueous phase.

271 The rechargeable aluminum/sulfur (Al/S) battery is of great interest owin

272 and an increase of the LPT by 40 K using an aluminum surface with anodized aluminum oxide (AAO) nano

273 As compared to a conventional aluminum surface, the current research reports a substan

274 produced by sinusoidal pulse anodization of aluminum that present two characteristic optical paramet

275 e bonding interface of ultrasonically welded aluminum to copper joints using transmission electron mi

276 ficiently harnesses the plasmon resonance of aluminum to supply energetic hot-carriers and increases

277 ly related to drought effects resulting from aluminum toxicity on root growth.

278 UE with tolerance of other stresses, such as aluminum toxicity.

279 ene, which is involved in plant tolerance to aluminum toxicity.

280 Triflic acid or aluminum triflate promote the addition of diverse nucleo

281 minum tris(2,6-diphenylphenoxide) (ATPH) and aluminum tris(2,6-di-2-naphthylphenoxide) (ATNP), in the

282 The use of bulky Lewis acids, aluminum tris(2,6-diphenylphenoxide) (ATPH) and aluminum

283 i.e. natural casing under vacuum, glass jar, aluminum tube and OVTENE(R)) during 15months of shelf-li

284 always higher than those found in glass jar, aluminum tube and OVTENE(R).

285 cation of overhanging nanostructures from an aluminum tube template to polydimethylsiloxane (PDMS) vi

286 time (glass jar>natural casing under vacuum>aluminum tube>OVTENE(R)).

287 We illustrate with aluminum use in automobiles the robustness of and consis

288 Besides thulium, aluminum was detected with equal distribution behavior i

289 f states, entropy and melting temperature of aluminum were calculated using this machine learning pot

290 erties of silica doped with small amounts of aluminum were calculated.

291 the same model, adjusted ORs for barium and aluminum were close to the null, whereas associations wi

292 lfate, chloride, iron, ammonia-nitrogen, and aluminum were greater than upgradient concentrations (p

293 H2O molecules and tetrahedrally coordinated aluminum, which is at the origin of the amorphization/re

294 able to incorporate a significant amount of aluminum, which may enhance the thermodynamic stability

295 ostatic or galvanostatic conditions using an aluminum wire sacrificial anode (seATRP) immersed direct

296 xpansion of Joule-heated, 80-nanometer-thick aluminum wires by precisely measuring changes in density

297 It is found that aluminum-, zinc- and titanium-containing metal-organic f

298 Reported here is the synthesis of aluminum-, zinc- and titanium-containing metal-organic f

299 While analogous magnesium/zirconium and aluminum/zirconium heterobimetallic complexes are compet

300 ng epitaxial growth behavior, as a result of aluminum-zoning, contributes to the formation of the hie