ライフサイエンスコーパス: aluminum

1 s sodium, potassium, magnesium, calcium, and aluminum.

2 is 47% for iron, 63% for copper, and 88% for aluminum.

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

4 lightweight and has a stiffness higher than aluminum.

5 eveloped 2 radiolabeled IL2 variants, namely aluminum (18)F-fluoride-(restrained complexing agent)-IL

6 Aluminum (18)F-labeled 1,4,7-triazacyclononane-N,N',N"-t

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

8 e SENSITIVE TO PROTON RHIZOTOXICITY1 (STOP1)-ALUMINUM-ACTIVATED MALATE TRANSPORT1 (ALMT1) signaling m

9 The aluminum-activated malate transporter 12 (ALMT12) is a m

10 e-activated, voltage-dependent member of the aluminum-activated malate transporter family that has be

11 iated with truncation of Ma1, an ortholog of ALUMINUM-ACTIVATED MALATE TRANSPORTER9 (ALMT9) in Arabid

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

13 how adsorbate populations change with pH and aluminum activity.

14 safety of human papillomavirus vaccine; (6) aluminum adjuvant-induced autoimmune diseases and other

15 thium-air batteries, zinc-air batteries, and aluminum-air batteries.

16 n, greenness increased with extractable soil aluminum (Al) (r(2) = 0.97; p < 0.1), but Al had no sign

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

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

19 t enhanced the concentrations of Mn, Fe, and aluminum (Al) in the soil solution of subsurface samples

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

21 Acidic soils, where aluminum (Al) toxicity is a major agricultural constrain

22 )(2)), zinc oxide (ZnO), manganese (Mn), and aluminum (Al), showing largely varying (orders of magnit

23 Aluminum (Al), which is omnipresent in human life, is a

24 residual soil minerals such as iron (Fe) and aluminum (Al).

25 The iron-chromium-aluminum alloy (FeCrAl) is an exceptional support for hi

26 taking place at the surface of an AA7075-T73 aluminum alloy in a 3.5 wt % NaCl electrolyte solution,

27 ent commercial alloys, including two wrought aluminum alloys and several 3D printed titanium alloys.

28 s a new method to enhance the performance of aluminum alloys for numerous applications.

29 been a long-standing issue for high strength aluminum alloys, such as 7075 (AA7075) due to their hot

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

31 as been reached in tris-(8-hydroxyquinoline) aluminum (Alq(3))-based organic spin valves (OSVs) using

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

33 d over a wide range of experimental data for aluminum and copper.

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

35 ore their compositional landscape by varying aluminum and iron.

36 Trace elements such as copper, zinc, barium, aluminum and lead, more frequently found, were also quan

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

38 0, 50,100, 1000 and 2500 mg/L) of engineered aluminum and nickel oxide nanoparticles (Al(2)O(3) and N

39 Aluminum and Si were the major elements dissolved from N

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

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

42 se, but also to toxic metals including lead, aluminum, and cadmium, which perturb metal homeostasis a

43 2.3 nm, and including other surfaces (glass, aluminum, and porcelain).

44 notably due to the colocalization of Fe with aluminum, and the detection of hematite (Fe(2)O(3)) by m

45 we describe the first planar tetracoordinate aluminum anion.

46 ingle-step reduction of TPPO to TPP using an aluminum anode in combination with a supporting electrol

47 Metal/metalloid levels, including aluminum, antimony, arsenic, cadmium, cobalt, chromium,

48 to 2050, using either high strength steel or aluminum as the lightweight material.

49 ng is likely caused by temperature-dependent aluminum-associated defect centers associated with diffe

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

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

52 hermal stability, yet the exact influence of aluminum at the CEI remains unclear.

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

54 pe bulk wafer Si of an industrially produced aluminum back surface field (Al-BSF) photovoltaic device

55 ition, the detection of aniline on precoated aluminum-backed thin-layer chromatography plates and Wha

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

57 the Earth's crust, making the development of aluminum based catalysts very attractive.

58 So far, aluminum based compounds have been popularly used as Lew

59 ced porosity formed during solidification of aluminum-based alloys has been a major issue adversely a

60 ly low affinity between plastic surfaces and aluminum-based coagulants compared to cationic polyacryl

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

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

63 bility up to 400 degrees C compared to other aluminum-based materials.

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

65 s article presents a unique 3D biocompatible Aluminum-based quantum structure (QS) for in vitro cance

66 Aluminum-based quasicrystals typically form across narro

67 otassium metal battery anode cycling with an aluminum-based rather than copper-based current collecto

68 In this study, we use stereodynamic aluminum biphenolate complexes for quantitative ee and c

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

70 ll inlet suggests that GEM emission from the aluminum building surface affected local GEM concentrati

71 Moreover, aluminum-catalyzed hydroboration is expanded to more cha

72 Further, we have demonstrated the aluminum-catalyzed hydroboration of a variety of nitrile

73 The dicoordinate aluminum center features both a lone pair of electrons a

74 tion of Si-H, N-H, and even C-C bonds at the aluminum center.

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

76 Magnesium Aluminum Chloride Complex was synthesized and utilized a

77 tituted oxazolo[5,4-b]pyridines treated with aluminum chloride into synthetically hard-to-reach benzo

78 Herein, we report an aqueous zinc- and aluminum-CO(2) system that utilizes acidity from spontan

79 g a sacrificial anode material (magnesium or aluminum), combined with a cheap, nontoxic, and water-so

80 of metal catalysts, most notably a dinuclear aluminum complex.

81 A series of methyl aluminum complexes bearing chiral biphenol-type ligands

82 The aluminum concentrated surface lowers transition metal re

83 SEA) of a priori known response pathways for aluminum confirmed activation of distinct molecular path

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

85 e exploited for producing single-crystalline aluminum, copper, silver and tin nanowires.

86 Aluminum coupon-based polycarbonate filter assemblies we

87 rphases, protecting both the electrolyte and aluminum current collector from degradation reactions.

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

89 tical study of the prototypical simple metal aluminum demonstrates how intrinsic satellite spectra ca

90 icon crystals in the eutectic region and the aluminum dendrites contained a significant number of twi

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

92 More importantly, we have shown that the aluminum dihydride catalyzed both intra- and intermolecu

93 a conjugated bis-guanidinate (CBG)-supported aluminum dihydride complex, i.e., LAlH(2) (1), in good y

94 ity functional theory calculation, we reveal aluminum dopants in lithium nickel cobalt aluminum oxide

95 servation of the unusual amber coloration of aluminum doped sol-gel glass that has not been reported

96 re made out of transparent conducting oxide (aluminum doped zinc oxide) and pure VO(2) using pulsed l

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

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

99 n organoaluminum complex containing a formal aluminum double bond (dialumene), and thus an alkene equ

100 xploiting the thin-film growth mechanisms of aluminum during ultrahigh vacuum physical vapor depositi

101 alation reactions in aqueous media, enabling aluminum electrochemical cells with extended cycle life.

102 Aluminum electrodes performed significantly worse than i

103 Focusing on the aluminum environment, we reveal the type of surface alum

104 Epitaxial aluminum films with superb crystallinity, high surface s

105 gh quality factors have been fabricated from aluminum films, suggesting potential applications in qua

106 y a ring-opening reaction in the presence of aluminum fluoride (AlF(3) ) to create SPEs inside LiNi(0

107 (18)F-AlF-PSMA-11 using direct labeling with aluminum fluoride can be produced in NH(4)OAc, pH 6.9; s

108 wetting, employing an aluminum-powder-coated aluminum foil "Al@Al," without any modification of the s

109 )V(2)(PO(4))(3) as an electrode material and aluminum foil as the shared current collector.

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

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

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

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

114 On planar aluminum foil with a nearly identical surface oxide, the

115 ed cements containing significant amounts of aluminum for over 30 years, the structural nature of alu

116 ) where animals have their heads fixed to an aluminum frame but are otherwise freely moving in an ult

117 Here we present a new rare-earth and aluminum-free magnesium-based alloy, with trace amounts

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

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

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

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

122 The renowned yellow phosphor yttrium aluminum garnet (YAG) doped with trivalent cerium has fo

123 (IOL) decentration, neodymium-doped yttrium aluminum garnet capsulotomy for posterior capsule opacif

124 tocoagulation and no neodymium-doped yttrium aluminum garnet laser capsulotomy.

125 In this study, picosecond neodymium:yttrium aluminum garnet laser treatment using a single flat-top

126 Neodymium-doped yttrium aluminum garnet posterior capsulotomy rates for PCO were

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

128 commercial nanosecond holmium doped yttrium-aluminum-garnet (Ho:YAG) laser.

129 (1) To report the neodymium:yttrium-aluminum-garnet (Nd:YAG) laser posterior capsulotomy rat

130 Neodymium:yttrium-aluminum-garnet (Nd:YAG) laser treatment is performed on

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

132 ement, piggyback IOLs, and neodymium:yttrium-aluminum-garnet nasal capsulectomy.

133 eaking in the magnetic Weyl semimetal cerium-aluminum-germanium (CeAlGe) system in the form of singul

134 AlH(3) into colloidally unstable low-valent aluminum hydride clusters.

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

136 th H(2) under ambient conditions to give the aluminum hydride {AlH(mu-H)Ar(iPr8)}(2), probably via a

137 carbonate complex rather than a conventional aluminum-hydride-based cycle.

138 lar dynamics (AIMD) simulations confirm that aluminum hydrolysis is strongly promoted at the interfac

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

140 Aluminum hydroxide (alum) is the most commonly used vacc

141 S-2P in combination with CpG 1018 and aluminum hydroxide (alum) was found to be the most poten

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

143 ed the antibody responses and efficacy of an aluminum hydroxide adjuvanted purified inactivated Zika

144 Finally, when adjuvanted with aluminum hydroxide and administered to BDD-naive calves

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

146 odentate inner-sphere surface complex on the aluminum hydroxide surface.

147 icans rAls3 N-terminus protein (rAls3p-N) in aluminum hydroxide.

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

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

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

151 REEs are mainly retained in basaluminite, an aluminum hydroxysulfate precipitate.

152 Aluminum(I) and magnesium(I) compounds are reported for

153 via a [1 + 2] cycloaddition reaction of the aluminum(I) complex HC[(CMe)(NDipp)](2)Al (1) with phosp

154 tic ring in biphenylene is reported using an aluminum(I) complex.

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

156 on of the frontier molecular orbitals of the aluminum(I) fragment compared to that of common transiti

157 Tetracoordinate aluminum(III) anions are generally tetrahedral and non-L

158 electron reduced phenalenyl based triradical aluminum(III) complex plays the key role in such catalys

159 ligands are removed from Ti by Al, producing aluminum(III) isopropoxide and low-valent Ti(3+) catalys

160 nds on the midpoint potential of the central aluminum(III) porphyrin (AlPorF(n)).

161 ,4,5-trimethoxyphenyl)aniline (BTMPA) to the aluminum(III) porphyrin.

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

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

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

165 Aluminum in the bulk is known to enhance structural and

166 for over 30 years, the structural nature of aluminum in the main hydration product, calcium aluminat

167 molecules and the tetrahedrally coordinated aluminum in the zeolite lattice weaken with the formatio

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

169 When hydrolyzable cations such as aluminum interact with solid-water interfaces, macroscop

170 Modeling of chromium-aluminum interdiffusion in spinel crystals provides a re

171 Reduction of the aluminum iodide AlI(2)Ar(iPr8) (1; Ar(iPr8) = C(6)H-2,6-

172 e cathode materials and sluggish kinetics of aluminum ion diffusion have thus far hampered the realiz

173 Aluminum-ion batteries (AIBs) are attracting increasing

174 ity and volumetric energy density, rendering aluminum-ion batteries a technology of choice for future

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

176 cost of materials suggest that this aqueous aluminum-ion battery holds promise for large-scale energ

177 tion to be used as a cathode material for an aluminum-ion battery with a configuration of Al/Al(OTF)(

178 orce microscopy to directly image individual aluminum ions at a mica-water interface and show how ads

179 Aluminum is a common dopant across oxide cathodes for im

180 Aluminum is a naturally abundant, trivalent charge carri

181 rst-principles calculations, we predict that aluminum is incorporated into the bridging sites of the

182 )O ratios, the stable coordination number of aluminum is six.

183 Among the main group metals, aluminum is the most abundant (7-8%) in the Earth's crus

184 Comparisons with alternative precursors (aluminum isopropoxide, titanium tert-butoxide, and titan

185 (~170 W) pump laser irradiation and a novel aluminum jacket design for rapid temperature ramping of

186 The aluminum jacket design is capable of heating SEOP cells

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

188 In this study, a magnesium-aluminum layered double hydroxide coated on graphene oxi

189 ut EWH treatment (1 g/kg/day); Group 2) High aluminum level (AlCl(3) at a dose of 100 mg/kg b.w.

190 le Wistar rats received orally: Group 1) Low aluminum level (AlCl(3) at a dose of 8.3 mg/kg b.w.

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

192 in our analysis, model results suggest that aluminum lightweight vehicles with a combustion engine w

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

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

195 ion of optical vortex is realized upon using aluminum metasurfaces with phase distributions derived f

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

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

198 (SPR) imaging platform, comprising multiple aluminum nanoslit arrays and a color image device, is pr

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

200 (x + y + z = 1), termed as the lithium iron aluminum nickelate (NFA) class of cathodes, is introduce

201 Methods: Aluminum, niobium, and tantalum target holders were used

202 ty of a selective reaction for sodium, using aluminum nitrate, potassium and ammonium fluoride in an

203 Raman spectroscopy using aluminum nitride (AlN) optical waveguides was demonstrat

204 -Infrared (mid-IR) integrated optics made by aluminum nitride (AlN) waveguides on flexible borosilica

205 his work presents for the first time a novel aluminum nitride (AlN)-based conformable SAW immunosenso

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

207 re identified including NbC, AlO(6) species, aluminum nitride or oxycarbide, AlF(3).nH(2)O, Nb metal,

208 cesses are implemented in single-crystalline aluminum nitride thin films, where chirp-modulated taper

209 hip-scale device consisting of piezoelectric Aluminum Nitride ultrasonic transducers was engineered t

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

211 The aluminum/O(2) electrochemical cell used to generate the

212 peroxides, generated galvanostatically in an Aluminum/O(2) electrochemical cell, can be used in tande

213 ation and nature of the six-fold-coordinated aluminum observed by (27)Al NMR in C-A-S-H samples.

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

215 tly imposed tariffs on US imports (steel and aluminum) on specific sectors across European countries.

216 These feature unsupported copper-aluminum or copper-gallium bonds with short metal-metal

217 nt responses to controlled pH adjustment and aluminum or iron addition simulating hypothetical scenar

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

219 metal paired with magnesium, calcium, zinc, aluminum, or gallium.

220 o coordinate metal Lewis acids such as iron, aluminum, or titanium to form metal complexes very stabl

221 e locations of undeveloped iron, copper, and aluminum orebodies that will be critical to future suppl

222 Aluminum oxide ([Formula: see text])-based single-electr

223 roelectric polymer nanowire array and anodic aluminum oxide (AAO) membrane is reported, which display

224 by an electrodeposition method within anodic aluminum oxide (AAO) membranes; L-cysteine was used to f

225 40 K using an aluminum surface with anodized aluminum oxide (AAO) nanoporous texture finish.

226 synthesized directly onto a porous anodized aluminum oxide (AAO) support, the resulting films were u

227 Sorption to redox-inert aluminum oxide (Al(2)O(3)) was recently found to affect

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

229 ely correlating with soil clay, and iron and aluminum oxide and hydroxide content.

230 al aluminum dopants in lithium nickel cobalt aluminum oxide are partially dissolved in the bulk latti

231 We show that amorphous aluminum oxide can permanently deform without fracture a

232 uration using water-in-salt electrolytes and aluminum oxide coated anodes.

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

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

235 d reduction in volume filtered, selection of aluminum oxide filters, selection of blue laser and lack

236 Homochiral mesoporous anodic aluminum oxide membranes (AAO) were prepared by coating

237 mary particle surface and partially exist as aluminum oxide nano-islands that are epitaxially dressed

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

239 icles are millimeter-scale particles made of aluminum oxide or stainless steel with micron-scale proj

240 me preparation was covalently immobilized on aluminum oxide pellets (3 mm) under statistically optimi

241 a novel and easy to produce reusable porous aluminum oxide sample slide that minimizes visceral fat

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

243 recise pore dimensions, based on an anodized aluminum oxide template, to enable quantitative analysis

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

245 The aluminum oxide that adheres to the metal surface protect

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

247 of 1-3 nm interleaved by 1-3 nm of amorphous aluminum oxide.

248 ectride composed of a mixture of calcium and aluminum oxides (C12A7) have attracted great attention f

249 portant long-chained phosphate molecules) on aluminum oxides in the presence of divalent metal cation

250 nd 70 nm) was used as an analogue of natural aluminum oxides to investigate the particle size effect.

251 cine dose levels, formulated with or without aluminum phosphate adjuvant, were evaluated.

252 beam effects on the X-pinch produced K-shell Aluminum plasma.

253 irect sunlight, the upgraded coating over an aluminum plate can achieve 6 degrees C (7 degrees C on a

254 ere, we report on a series of self-assembled aluminum porphyrin-based triads that provide a unique op

255 h improved electrolyte wetting, employing an aluminum-powder-coated aluminum foil "Al@Al," without an

256 most one order of magnitude compared to pure aluminum powders.

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

258 an aggressive lightweighting scenario using aluminum reduces 2016 through 2050 cumulative life cycle

259 Here, we show that aluminum reinforced by nanoparticles can be deposited la

260 Calcium-aluminum-rich inclusions (CAIs) in meteorites are the fi

261 mechanical pseudospin consists of an elastic aluminum rod serving as a waveguide sandwiched between t

262 The optimized bifunctional aluminum salen catalyst maintains excellent activity for

263 port that a bifunctional aminocyclopropenium aluminum salen complex maintains excellent activity in t

264 at are non-native to the human body, such as aluminum salt, bacterial lipids, or foreign genomic mate

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

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

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

268 is comparable to that of common 6xxx series aluminum sheet alloys.

269 e have examined an irregular eutectic in the aluminum-silicon (Al-Si) system.

270 The second section was placed on an aluminum slide, dewaxed, and then used to acquire an ave

271 tional or environmental exposures, including aluminum smelting, lead, birds, and mold, were independe

272 m environment, we reveal the type of surface aluminum species are dependent on the electrolyte salt,

273 alkaline-earth metal containing species and aluminum species decrease the number of Bronsted acid si

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

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

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

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

278 , NaClO(3), and NH(4)NO(3), on an artificial aluminum substrate.

279 ater than 5 times improved shear strength on aluminum substrates compared to a widely studied commerc

280 free, secondary growth solutions, containing aluminum sulfate as a crystallization agent.

281 tron and absorption spectroscopy to identify aluminum surface environments and extent of transition m

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

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

284 Millimeter-size LEDs were transferred to aluminum tape and to silicon substrates by van der Waals

285 ir alloying elements, such as rare-earths or aluminum, they are either not economical or biocompatibl

286 ation increased the solubility of silicon in aluminum to approximately 5wt% and induced non-equilibri

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

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

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

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

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

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

293 acquisitions of an (18)F line source inside aluminum tubes of varying thickness.

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

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

296 hermore, the proposed geometries are made of Aluminum, which is a plasmonic material and commonly app

297 Here, we assessed effects of aluminum with fairly well-known modes of actions and ind

298 nium, steel, nickel, tantalum, argentum, and aluminum, with adhesion energy up to >1000 J m(-2) is re

299 00% Na(3)V(2)(PO(4))(3) and ~99.1% elemental aluminum without the release of toxic wastes, resulting

300 tive nanocrystals (DNCs) composed of copper, aluminum, zinc, and sulfur with ~20 % quantum yield and