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1 beta-MnO(2)) to 1.18 +/- 0.01 W/m(2) (sodium manganese oxide).
2 an that of previous reports for electrolytic manganese oxide.
3 xide (TMAO), nitrite, and insoluble iron and manganese oxides.
4 ificantly acts as a source of oxygen next to manganese oxides.
5 ce of DOM composition on its reactivity with manganese oxides.
6 ease or decrease phenol oxidation rates with manganese oxides.
7 fluence the multistage oxidation pathways of manganese oxides.
8 marily mediated by the reduction of iron and manganese oxides.
9 patterns gathered from natural and synthetic manganese oxides.
10 ws activity for Mn(2+)(aq) oxidation to form manganese oxides.
11 ns during a solid-state chemical reaction in manganese oxides.
12 3 virus with earth-abundant elements such as manganese oxides.
13 ugh binding to reactive metal (e.g. iron and manganese) oxides.
14 er copper(6,7), nickel(8,9), iron(10,11) and manganese oxides(12).
15 es growing on agar amended with all the test manganese oxides after growth of A. niger and S. himanti
16                                              Manganese oxide (alpha-MnO2 ) has been considered a prom
17                      As a result, monolithic manganese oxide ambigels exhibit an equilibrium conducto
18 anganese oxides, including a fungal-produced manganese oxide and birnessite, was investigated.
19 manganese ore and ferric oxide as sources of manganese oxide and iron oxide through solid state react
20 ide film has a cubic structure isomorphic to manganese oxide and is (110)-oriented in single domain o
21 was conducted with dispersed nanoparticulate manganese oxides and a standard ruthenium dye photo-oxid
22 o some literature reports with polydispersed manganese oxides and electro-deposited films.
23                                              Manganese oxides are a highly promising class of water-o
24                                              Manganese oxides are capable of rapidly oxidizing U(IV)
25                                              Manganese oxides are important environmental oxidants th
26                                              Manganese oxides are often highly reactive and easily re
27                                              Manganese oxides are ubiquitous marine minerals which ar
28 m ultradilute solutions using spinel lithium manganese oxide as the model electrode.
29                                  Here, using manganese oxides as examples, we report the successful c
30 ethod can be generally used for synthesis of manganese oxides as well as for in situ characterization
31 eggin/organic ions intercalated into layered manganese oxide at room temperature in 1 day.
32    Using this method and a novel process for manganese oxide atomic layer deposition, we produced man
33               The AFM coupling in iron oxide-manganese oxide based, soft/hard and hard/soft, core/she
34              Gold nanoparticles supported on manganese oxide belong to the most active gold catalysts
35 5)Tl/(203)Tl ratios indicative of widespread manganese oxide burial on an oxygenated seafloor and hig
36                   However, this assumes that manganese oxides can be produced only in the presence of
37                                              Manganese oxides can oxidize organic compounds, such as
38 e highest power densities were achieved with manganese oxides capable of intercalating sodium ions wh
39      The decomposition of ozone on supported manganese oxide catalysts, studied here, exemplifies rea
40 nganese cobalt oxide, and sodium nickel iron manganese oxide chemistries, (7)Li and (23)Na NMR data u
41 media, we measured the ability of passivated manganese-oxide coated sand to oxidize bisphenol A after
42  to levels comparable to those of the virgin manganese-oxide coated sand.
43                                              Manganese oxide-coated sand can oxidize electron-rich or
44 sotope measurements on postdepositional iron-manganese oxide coatings precipitated on planktonic fora
45  a metallacryptand shell that encapsulates a manganese oxide core.
46                     Our results suggest that manganese oxides could have formed abiotically on the su
47 et in which hydrous ferric oxide and hydrous manganese oxide deposits had formed as a consequence of
48                               Nanostructured manganese oxides, e.g. MnO2, have shown laccase-like cat
49                             Electrodeposited manganese oxide films (MnOx) are promising stable oxygen
50  promise, among the studied materials, while manganese oxide, flake graphite, and carbon nanotube pow
51                                              Manganese oxide formation in cell-free filtrates occurre
52  microporous octahedral molecular sieve with manganese oxide framework.
53                                              Manganese oxides from anthropogenic sources can promote
54  became prominent, light-driven formation of manganese oxides from dissolved Mn(2+) ions may have pla
55 of proteins inside the bacteria labeled with manganese oxide has been identified and this distributio
56 tion of water, our detailed study of several manganese oxides has shown that trivalency of Mn is an i
57                                              Manganese oxides have been proposed as promising geomedi
58                                              Manganese oxides have been recently investigated as exce
59                                              Manganese oxides have been shown to rapidly oxidize As(I
60                            Cryptomelane-type manganese oxides have been synthesized, characterized, a
61   Recent computational studies of models for manganese oxides have revealed a rich phase diagram, whi
62                            We synthesized 12 manganese oxides having different crystal structures and
63              Mesoporous silica-coated hollow manganese oxide (HMnO@mSiO(2)) nanoparticles were develo
64 ting network hydrogel with confined hydrogen manganese oxide (HMO) via an innovative in-situ crosslin
65 accumulated hydrous ferric oxide and hydrous manganese oxide in the well bore and pump riser provides
66 ago on the basis of the inferred presence of manganese oxides in Archaean sedimentary rocks.
67  room temperature may affect the behavior of manganese oxides in technological applications and in ge
68  Mn(II) exchanges with structural Mn(III) in manganese oxides in the absence of any mineral transform
69  photosynthetic microorganisms biomineralize manganese oxides in the absence of molecular oxygen and
70   The shuttling of Na(+) into and out of the manganese oxides in the hydrogen and oxygen evolution st
71 his light-dependent process may also produce manganese oxides in the photic zones of modern anoxic wa
72 pula himantioides to tolerate and solubilize manganese oxides, including a fungal-produced manganese
73 anic cluster of the stoichiometry CaMn4 O5 , manganese oxide is one of the materials of choice in the
74                                 An amorphous manganese oxide layer bound by oleate ligands helps to r
75 t 2% coverage of what is likely an amorphous manganese oxide layer.
76 ng a non-superconducting cuprate between two manganese oxide layers, we find a novel form of magnetoe
77 electrodes and tested them on lithium nickel manganese oxide [Li(Ni(0.5)Mn(0.5))O2], a safe, inexpens
78 ochemical reversibility of a layered lithium manganese oxide, Li-birnessite, which extends the practi
79  oxide (LiCoO(2) ) and lithium nickel cobalt manganese oxide (LiNi(0.8) Co(0.1) Mn(0.1) O(2) , NCM 81
80 ell-ordered organic-inorganic hybrid layered manganese oxide (LMO) nanocomposites and Keggin/organic
81 er oxides, and colossal magnetoresistance in manganese oxides ('manganites').
82 nvolve a combination of factors: The calcium manganese oxide materials have a layered structure with
83 ce of cost-effective and reusable mesoporous manganese oxide materials.
84    As strong naturally occurring adsorbents, manganese oxides may significantly influence the fate an
85 is catalyzed by a Li ion promoted mesoporous manganese oxide (meso-Mn(2)O(3)) under mild conditions w
86                                              Manganese oxide minerals can become enriched in a variet
87                                              Manganese oxide minerals have been used for thousands of
88 ple their growth to the reduction of iron or manganese oxide minerals located extracellularly.
89                                              Manganese-oxide minerals (MnOx) are widely distributed o
90                            Here we show that manganese oxide (Mn oxide) in a water treatment works fi
91 cceptor, including ferric iron [Fe(III)] and manganese oxide [Mn(IV)].
92                           Among a variety of manganese oxides, Mn2O3 is considered to be the most fav
93        An electrochemical biosensor based on manganese oxide (Mn3O4) and chitosan (Cn) nanocomposite
94 all significantly lower than those of binary manganese oxides (Mn3O4, Mn2O3, and MnO2), consistent wi
95 better water oxidation catalysts than binary manganese oxides (Mn3O4, Mn2O3, and MnO2).
96 th quartz particles coated with a mixture of manganese oxide (MnO(2)) and goethite (alpha-FeOOH) unde
97 enation with those from abiotic oxidation by manganese oxide (MnO(2)) suggest that the oxidation of a
98 id medium: MnO(2) and Mn(2) O(3) , mycogenic manganese oxide (MnO(x) ) and birnessite [(Na(0.3) Ca(0.
99        The oxidation of dissolved Ce(III) by manganese oxides (MnO(2)) and the resulting Ce anomaly i
100  by coating reduced graphene oxide (rGO) and manganese oxide (MnO2) composite on the carbon felt (CF)
101 n rust (GR(SO4)), magnetite (Fe(3)O(4)), and manganese oxide (MnO2).
102 m in situ XAS measurements on a bifunctional manganese oxide (MnOx) catalyst with high electrochemica
103 ehensive electrochemical characterization of manganese oxide (MnOx) over a wide pH range, and establi
104           The Earth-abundant and inexpensive manganese oxides (MnOx) have emerged as an intriguing ty
105              We investigated the reaction of manganese oxide [MnOx(s)] with phenol, aniline, and tric
106 trode materials such as carbon nanotubes and manganese oxides (MnxOy) [3, 5-14].
107 3 mm) is generated in monolithic ultraporous manganese oxide nanoarchitectures upon exposure to gas-p
108 ally compared the laccase-like reactivity of manganese oxide nanomaterials of different crystallinity
109 ing the laccase-like reactivity of different manganese oxides nanomaterials, and provide a basis for
110         Low-dimensional cobalt oxide codoped manganese oxide nanoparticles (CMO NPs; dia.
111 ard to the colloidal stability of engineered manganese oxide nanoparticles (Mn(x)O(y) NPs).
112                                              Manganese oxide nanoparticles (NPs) are shown to catalyz
113      Previous measurements show that calcium manganese oxide nanoparticles are better water oxidation
114 face between cobalt oxide surface layers and manganese oxide nanoparticles by using X-ray absorption
115 covery of a hybrid oxide catalyst comprising manganese oxide nanoparticles supported on mesoporous sp
116  is enabled by the in situ growth of hydrous manganese oxide nanoparticles throughout a cation exchan
117                 On incorporating the hydrous manganese oxide nanoparticles, the membrane's phosphate
118 d-graphene nanofibres (LSGNF) decorated with manganese oxide nanoparticles.
119 ter followed by down-sizing of protein-bound manganese-oxide nanoparticles to finally yield today's c
120 nce of five compositionally distinct layered manganese oxide nanostructures.
121 erate the breakdown of ternary nickel cobalt manganese oxide (NCM) cathode materials at a significant
122                                              Manganese oxide NS were synthesized via the exfoliation
123                                              Manganese oxides occur naturally as minerals in at least
124                            Cryptomelane-type manganese oxide octahedral molecular (OMS) sieve three-d
125           This study examines the effects of manganese oxide octahedral molecular sieve chitosan micr
126                                              Manganese oxides of various structures (alpha-, beta-, a
127     Films of polyions and octahedral layered manganese oxide (OL-1) nanoparticles on carbon electrode
128                            Cryptomelane-type manganese oxide (OMS-2) has been widely used to explore
129                                     Iron and manganese oxides or oxyhydroxides are abundant transitio
130 the ability of photosystems to form extended manganese oxide particles.
131 pectroscopy data indicated that the reactive manganese oxide phases present in virgin geomedia and ge
132 e report a class of Bi-birnessite (a layered manganese oxide polymorph mixed with bismuth oxide (Bi2O
133                                Mixed-valence manganese oxides present striking properties like the co
134 ose an evolutionary scenario, which involves manganese-oxide production by ancestral photosystems, la
135                       The results imply that manganese oxide reactivity depends on both oxidation sta
136 se experiments suggest that Mn(II) catalyzes manganese oxide recrystallization and illustrate a new p
137 oxidation of the mobilized ferrous iron with manganese oxides results in a large stock of iron-oxide-
138 stration of the magnetic interactions in the manganese oxide slab.
139 sed of alternating perovskite-type strontium manganese oxide slabs separated by anti-fluorite-type co
140 articulate organic carbon (OC), and iron and manganese oxide solid phases.
141                              Layered lithium manganese oxides suffer from irreversible phase transiti
142 )(18) (R = CH(2)CH(2)Ph) nanoclusters onto a manganese oxide support (Au(25)/MnO(2)), resulting in a
143 misorption of water onto anhydrous nanophase manganese oxide surfaces promotes rapidly reversible red
144 nter (OEC) in photosystem II, nanostructured manganese oxide surfaces were investigated for these rea
145 his study investigated the use of iron-doped manganese oxide, synthesized via air oxidation under str
146 that, for elements with greater affinity for manganese oxide than biogenic particles, scavenging is a
147       Here, we demonstrate a layered lithium manganese oxide that can be charged and discharged witho
148 the selective synthesis of different yttrium manganese oxides through assisted metathesis reactions b
149  intercalated between two nanosheets (NS) of manganese oxide to form a bilayer structure.
150                                              Manganese oxides typically exist as mixtures with other
151  an accurate assessment of the reactivity of manganese oxides used as engineered geomedia for quinolo
152                                              Manganese oxide was effective at both hydrolytic and oxi
153 ive study of gold nanoparticles on different manganese oxides, we developed a gold catalyst on MnO2 n
154                 Thin films of nanostructured manganese oxide were found to be active for both oxygen
155                                              Manganese oxides were of low toxicity and A. niger and S
156 d the crystal structures and morphologies of manganese oxides, which undergo redox reactions coupled
157  partially cation-disordered lithium niobium manganese oxide with a zigzag structure, filling the kno
158 n, we report a structural-engineered lithium manganese oxide with spinel-layered heterostructures (de
159 sulted in the generation of small nodules of manganese oxide with which the cells associated.
160  investigation of electrodeposited amorphous manganese oxides with different catalytic activities tow
161                                              Manganese oxides with layer and tunnel structures occur
162  environmental processes involving insoluble manganese oxides, with practical relevance to chemoorgan
163  all methane removed is oxidized by iron and manganese oxides, with the remainder accounted for by ox

 
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