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1 ed mineral surfaces in soils (e.g., iron and aluminum oxides).
2 of 1-3 nm interleaved by 1-3 nm of amorphous aluminum oxide.
3                                       Anodic aluminum oxide (AAO) coupons with nanoscale topography w
4 ic (GC) column employing a mesoporous anodic aluminum oxide (AAO) layer as the stationary phase was d
5 roelectric polymer nanowire array and anodic aluminum oxide (AAO) membrane is reported, which display
6 algorithm integrated with regenerable anodic aluminum oxide (AAO) membrane sensors, for ultrasensitiv
7 rectified electrokinetic IT through anodized aluminum oxide (AAO) membranes containing densely packed
8                                       Anodic aluminum oxide (AAO) membranes incorporating 10 and 20 n
9 tion from dual templates using porous anodic aluminum oxide (AAO) membranes with silica nanospheres s
10 sphocholine (DOPC) vesicles on porous anodic aluminum oxide (AAO) membranes, creating sealed attolite
11 noporous block-copolymer monoliths to anodic aluminum oxide (AAO) membranes.
12 by an electrodeposition method within anodic aluminum oxide (AAO) membranes; L-cysteine was used to f
13 ned by using R2R UV-NIL technique and anodic aluminum oxide (AAO) mold.
14 40 K using an aluminum surface with anodized aluminum oxide (AAO) nanoporous texture finish.
15 ycine in the cylindrical nanopores of anodic aluminum oxide (AAO) revealed the formation of metastabl
16                                       Anodic aluminum oxide (AAO) substrates with flow-through 175 nm
17  synthesized directly onto a porous anodized aluminum oxide (AAO) support, the resulting films were u
18  the nanostructured aluminum oxide or anodic aluminum oxide (AAO) surface is reported.
19 anopore-based sensors fabricated from anodic aluminum oxide (AAO) thin film, offers improved sensitiv
20 (imide) or poly(imide) coated with amorphous aluminum oxide (AAO), amorphous carbon (AC), parylene, p
21 evice fabrication, is used to grow conformal aluminum oxide activation coatings, down to sub-nanomete
22                                              Aluminum oxide (Al(2)O(3)) nanopowder is spin-coated ont
23 u nanoparticles (NPs) 13 nm in diameter with aluminum oxide (Al(2)O(3)) particles 50-200 mum in diame
24                      Sorption to redox-inert aluminum oxide (Al(2)O(3)) was recently found to affect
25 (2)), with a nominal pore size of 30 nm, and aluminum oxide (Al(2)O(3)), with a nominal pore size of
26 p Effective, Rugged and Safe (QuEChERS) with aluminum oxide (Al2O3) as dispersive solid phase extract
27 erein, we discovered that the earth-abundant aluminum oxide (Al2O3) though paradigmatically known to
28                             Namely, anodized aluminum oxide (Al2O3, 2-20 nm) and self-assembled monol
29                                   The anodic aluminum oxide alignment method is applicable to a broad
30 utilizing various insulating spacers such as aluminum oxide (AlOx) and magnesium oxide (MgO) on a wid
31 ch included sample purification on activated aluminum oxide and elution, is less than 1 h per 96-well
32 ely correlating with soil clay, and iron and aluminum oxide and hydroxide content.
33 hanisms by combining two ordinary compounds, aluminum oxide and polymethyl methacrylate, into ice-tem
34 ere printed on niobium wires, insulated with aluminum oxide, and the bridge cut with focused ion beam
35 iorhodopsin (bR) deposited on gold, aluminum/aluminum-oxide, and nickel substrates.
36 al aluminum dopants in lithium nickel cobalt aluminum oxide are partially dissolved in the bulk latti
37 ive excitations have been observed in liquid aluminum oxide at high temperatures by combining a conta
38 ectride composed of a mixture of calcium and aluminum oxides (C12A7) have attracted great attention f
39                       We show that amorphous aluminum oxide can permanently deform without fracture a
40               Metal oxides such as ferric or aluminum oxides can play an important role in the retent
41                   When mixed with a platinum/aluminum oxide catalyst and aged in air at 800 degrees C
42               Hydration reactions of anionic aluminum oxide clusters were measured using a quadrupole
43        Beginning from a highly active cobalt aluminum oxide (CoAl(2)O(4)) catalyst that is susceptibl
44 uration using water-in-salt electrolytes and aluminum oxide coated anodes.
45 tive sites over commercial copper/zinc oxide/aluminum oxide (Cu/ZnO/Al2O3) catalysts for carbon dioxi
46  interface of ultrathin PMMA films on native aluminum oxide, deposited by reactive adsorption, was st
47  mismatch between the GaAs and ALD-deposited aluminum oxide due to their different coefficients of th
48  that has been coated and passivated with an aluminum oxide film deposited by atomic layer deposition
49 s surface is invariably covered with a dense aluminum oxide film, which prevents its effective use as
50 s species of varied dimensions within hybrid aluminum oxide films, we created membranes with tunable
51 ltration to capture viruses on a 0.02-microm aluminum oxide filter, and subsequent staining and mount
52 d reduction in volume filtered, selection of aluminum oxide filters, selection of blue laser and lack
53 r chemistry and structure toward more stable aluminum oxide forms.
54                                              Aluminum oxide ([Formula: see text])-based single-electr
55  single crystals, prepared with an amorphous aluminum oxide gate insulator, are capable of ambipolar
56 ce, taken as a model for surfaces of natural aluminum oxide hydrates.
57        The reactivity of aqueous Fe(II) with aluminum oxide in anoxic solutions was investigated with
58 portant long-chained phosphate molecules) on aluminum oxides in the presence of divalent metal cation
59 enic silica, clays, and iron, manganese, and aluminum oxides in the Southern Ocean water column.
60                                              Aluminum oxide is important cosmically, because its pres
61    Heterogeneous coprecipitation of iron and aluminum oxides is an important process for pollutant im
62 y deep reactive ion etching through a porous aluminum oxide layer.
63    To demonstrate the method's capabilities, aluminum oxide layers, common supports in catalysis and
64                                   Nanoporous aluminum oxide layers, grown by anodization of aluminum
65 s silicon oxide (m/z(-) 59.96 SiO(2)(-)) and aluminum oxide (m/z(-) 101.95 Al(2)O(3)(-)), and biofilm
66 er solution into the system through a porous aluminum oxide membrane results in the growth of highly
67 x of neutral solutes through each fabricated aluminum oxide membrane was measured for the demonstrati
68                 Homochiral mesoporous anodic aluminum oxide membranes (AAO) were prepared by coating
69 Copper electrodeposits are grown in anodized aluminum oxide membranes with polyelectrolyte coatings t
70 edded within the cylindrical pores of anodic aluminum oxide membranes.
71 of short-chain PFAS largely is controlled by aluminum-oxide mineral(oid) electrostatic sorption, wher
72 mary particle surface and partially exist as aluminum oxide nano-islands that are epitaxially dressed
73                                   Insulating aluminum oxide nanocrystals are assembled layer by layer
74 rmal layers of amorphous silicon dioxide and aluminum oxide nanolaminates at rates of 12 nanometers (
75                   In the case of 30-nm-thick aluminum oxide nanolattices, the anelastic deformation a
76 by modifying the active side of the MCs with aluminum oxide nanoparticles (AONP) for purposes of enha
77 arbon, nanostructured graphite, and iron and aluminum oxide nanoparticles showed particular promise,
78                  In this paper, we show that aluminum oxide nanoparticles that are covalently coupled
79    The nanofluid consists of DI-water, 0.10% Aluminum Oxide nanoparticles with an average diameter of
80               Fabricated separators based on aluminum oxide nanowires enhanced the safety and rate ca
81 stoichiometric NMC and lithium nickel cobalt aluminum oxide (NCA) but appears to be common to other L
82 is is achieved by atomic layer deposition of aluminum oxide on Ag NCs and addition of a tetra-topic p
83 eacon biosensors based on the nanostructured aluminum oxide or anodic aluminum oxide (AAO) surface is
84 icles are millimeter-scale particles made of aluminum oxide or stainless steel with micron-scale proj
85 ographically patterned grids of photoresist, aluminum oxide, or gold on oxidized silicon substrates w
86                                              Aluminum oxides, oxyhydroxides, and hydroxides are impor
87                              Porous anodized aluminum oxide (pAAO) is a nanostructured material, whic
88 low-cell is a disposable chip made of porous aluminum oxide (PAO), which retains the sensor microorga
89                                   Radiopaque aluminum oxide particles from abrasive cautery-tip clean
90 g with relatively high solar reflectance and aluminum oxide particles that strongly scatter sunlight
91 me preparation was covalently immobilized on aluminum oxide pellets (3 mm) under statistically optimi
92 ees C are integrated with solution-deposited aluminum oxide phosphate dielectrics in functional trans
93  a novel and easy to produce reusable porous aluminum oxide sample slide that minimizes visceral fat
94        In comparison to pure alumina, nickel aluminum oxide samples exhibited larger mesopores and im
95                                     Sulfated aluminum oxide (SAO), a high surface area material conta
96                We first employed an anodized aluminum oxide scaffold with uniform channel dimensions
97 ed by calcium and iron sulfates, silicon and aluminum oxides, sodium carbonate, and iron sulfide.
98                                       Anodic aluminum oxide substrates with macroscopically aligned h
99 of the compound likely adsorb onto the polar aluminum oxide surface and direct the self-assembly path
100     Deposition and release behavior of GO on aluminum oxide surface is very similar to positively cha
101 he absence of glyphosate, Zn adsorbed on the aluminum oxide surface mainly as bidentate mononuclear s
102                                              Aluminum oxide surface was used as a model metal oxide s
103 n polyacrylic acid (PAA) layer with a native aluminum oxide surface.
104 ent on alginate, followed by SRFA, SRHA, and aluminum oxide surfaces, and that GO displayed higher in
105 witchable molecules for functionalization of aluminum oxide surfaces.
106 recise pore dimensions, based on an anodized aluminum oxide template, to enable quantitative analysis
107  crosslinked within the pores of an anodized aluminum oxide template.
108 n nanohelices from nanoparticles in anodized aluminum oxide templates.
109  grown metal nanorod arrays in porous anodic aluminum oxide templates.
110 ike, and stepwise are prepared from anodized aluminum oxide templates.
111 rarchically branched nanopores inside anodic aluminum oxide templates.
112                                          The aluminum oxide that adheres to the metal surface protect
113 ss utilizes atomic layer deposition (ALD) of aluminum oxide to conformally insulate a gold-coated nan
114 nd 70 nm) was used as an analogue of natural aluminum oxides to investigate the particle size effect.
115  used for the synthesis of mesoporous nickel aluminum oxide was demonstrated by preparation of other
116 he extent of reduction of U(VI) presorbed to aluminum oxides was semiquantitatively estimated by comp
117 chemical composition abundant in silicon and aluminum oxides, was incorporated into ordinary concrete
118 stantial change in the chemical shift of the Aluminum oxide when switching between the "OFF" and "ON"
119 oposal of an adsorption mechanism of PMMA on aluminum oxide, which shows the formation of methanol at
120 ate, track-etch polyimide, nanoporous anodic aluminum oxide, zeolite ZSM-5, and zeolite NaY.

 
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