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Electrodes oxidation

Ion Removal and Metal Oxide Electrodes. The ethylenediamine ( )-functional silane, shown in Table 3 (No. 5), has been studied extensively as a sdylating agent on siUca gel to preconcentrate polyvalent anions and cations from dilute aqueous solutions (26,27). Numerous other chelate-functional silanes have been immobilized on siUca gel, controUed-pore glass, and fiber glass for removal of metal ions from solution (28,29). [Pg.73]

Metal oxide electrodes have been coated with a monolayer of this same diaminosilane (Table 3, No. 5) by contacting the electrodes with a benzene solution of the silane at room temperature (30). Electroactive moieties attached to such silane-treated electrodes undergo electron-transfer reactions with the underlying metal oxide (31). Dye molecules attached to sdylated electrodes absorb light coincident with the absorption spectmm of the dye, which is a first step toward simple production of photoelectrochemical devices (32) (see Photovoltaic cells). [Pg.73]

Electrodes. A number of different types of nickel oxide electrodes have been used. The term nickel oxide is common usage for the active materials that are actually hydrated hydroxides at nickel oxidation state 2+, in the discharged condition, and nickel oxide hydroxide [12026-04-9] NiO OH, nickel oxidation state 3+, in the charged condition. Nickelous hydroxide [12034-48-7J, Ni(OH)2, can be precipitated from acidic solutions of bivalent nickel... [Pg.544]

Because the sdv er oxide electrode is slightly soluble in the potassium hydroxide electroltye the separator is of a barrier type to minimize silver... [Pg.563]

A signihcant problem in tire combination of solid electrolytes with oxide electrodes arises from the difference in thermal expansion coefficients of the materials, leading to rupture of tire electrode/electrolyte interface when the fuel cell is, inevitably, subject to temperature cycles. Insufficient experimental data are available for most of tire elecuolytes and the perovskites as a function of temperature and oxygen partial pressure, which determines the stoichiometty of the perovskites, to make a quantitative assessment at the present time, and mostly decisions must be made from direct experiment. However, Steele (loc. cit.) observes that tire electrode Lao.eSro.rCoo.aFeo.sOs-j functions well in combination widr a ceria-gadolinia electrolyte since botlr have closely similar thermal expansion coefficients. [Pg.247]

To exploit the energy produced in this reaction, the half reactions are separated. The oxidation reaction is carried out at a zinc electrode (Zn Zir + 2 electrons) and the reduction reaction is carried out at a copper electrode (Cu"" + 2 electrons Cu metal). Electrons flow through a metal wire from the oxidizing electrode (anode) to the reducing electrode (cathode), creating electric current that can be harnessed, for example, to light a tungsten bulb. [Pg.808]

Figure 39. Cycling performance of various manganese oxide electrodes. Figure 39. Cycling performance of various manganese oxide electrodes.
Sometimes two discharge voltage plateaus are seen on nickel oxide electrodes. Early observations are documented in previous reviews [2, 9]. Normally, nickel oxide electrodes have a voltage plateau on discharge in the potential range of 0.25-0.35V vs. Hg/HgO. The second plateau, which in some cases can account for up to 50% of the capacity, occurs at -0.1 to - 0.6 V. At present there is a general consensus that this second plateau is not due to the presence of a new, less-active, compound [91-94]. Five interfaces have been identified for a discharging NiOOH electrode [93]. These are... [Pg.147]

Oxygen evolution occurs on nickel oxide electrodes throughout charge, on overcharge, and on standby. It is the anodic process in the self-discharge reaction of the positive electrode in nickel-cadmium cells. Early work in the field has been reviewed [9], No significant new work has been reported in recent years. [Pg.148]

Recent advances in fabricating novel metal oxide electrodes have been made by exploiting hydrothermal preparation techniques [93, 94], An example is... [Pg.306]

It is interesting to note that the recently announced Fujifilm development of convertible oxide electrodes results in the formation of a microstructure containing fine dispersions of both Li-Sn alloys and Li20. The latter is known to be a lithiumtransporting solid electrolyte. Thus these electrodes can be thought of as having a... [Pg.379]

G. Foti, D. Gandini, and C. Comninellis, Anodic oxidation of organics on thermally prepared oxide electrodes, Current Topics in Electrochemistry 5, 71-91 (1997). [Pg.431]

Table 3.2. Electrode potentials of zero charge of metal oxide electrodes in contact with electrolyte solutions. )... Table 3.2. Electrode potentials of zero charge of metal oxide electrodes in contact with electrolyte solutions. )...
The total capacity of a ruthenium oxide electrode [the usual double-layer capacity plus the pseudocapacity of reaction (21.4)] is rather high (i.e., several hundred F/g), even more than at the electrodes of carbon double-layer capacitors. The maximum working voltage of ruthenium oxide pseudocapacitors is about 1.4 V. [Pg.373]


See other pages where Electrodes oxidation is mentioned: [Pg.672]    [Pg.112]    [Pg.72]    [Pg.65]    [Pg.553]    [Pg.553]    [Pg.395]    [Pg.1251]    [Pg.624]    [Pg.146]    [Pg.286]    [Pg.287]    [Pg.317]    [Pg.364]    [Pg.440]    [Pg.445]    [Pg.605]    [Pg.606]    [Pg.619]    [Pg.100]    [Pg.197]    [Pg.49]    [Pg.71]    [Pg.82]    [Pg.95]    [Pg.71]    [Pg.262]    [Pg.289]    [Pg.290]    [Pg.334]    [Pg.254]    [Pg.254]    [Pg.267]    [Pg.410]    [Pg.438]   
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Anodic iridium oxide film electrodes

Anodic oxidation inert electrodes

Antimony oxide electrode

Bismuth oxide electrodes

Bismuth oxide electrodes polarization

Cadmium oxide electrodes

Ceria in Solid Oxide Fuel Cell Electrodes

Cesium oxide electrodes

Charge carrier transport electrode-oxide semiconductor

Charge carrier transport in the electrode-oxide semiconductor interfaces

Chemically modified electrodes for NADH oxidation

Chromium manganese oxide electrodes

Chromium oxide electrodes for NO sensors

Cobalt oxide electrodes

Copper chromium oxide electrodes

Copper oxide electrodes

Current-Carrying Electrode on an Oxide Electrolyte

Cyclic voltammetry oxide film electrodes

Electrochemical Oxidation of Propylene in a Sparged Packed-Bed Electrode Reactor

Electrochemical oxidation and reduction of complexes using inert electrodes

Electrode Potentials and Gibbs Energy Changes for Oxidation-Reduction Reactions

Electrode fabrication, copper oxide

Electrode mercury-mercuric oxide

Electrode nitrogen oxide

Electrode potential electrochemical oxidation

Electrode potential, effect anodic oxide formation

Electrode potentials and oxidation state diagrams

Electrode reactions oxidation-reduction reaction

Electrode surfaces oxidant concentration

Electrode, copper coated, oxidative

Electrode-assisted Catalytic Water Oxidation and Related Electrochemical Reactions

Electrode-oxide interfaces

Electrode-oxide semiconductor

Electrode-oxide semiconductor bending interface

Electrode-oxide semiconductor contact

Electrode-oxide semiconductor diagram

Electrode-oxide semiconductor height

Electrode-oxide semiconductor interfaces

Electrode-oxide semiconductor interfacial layer

Electrode-oxide semiconductor junction barrier

Electrodes Metal-oxide

Electrodes Oxide films

Electrodes continued oxide

Electrodes electrochemical oxidation

Electrodes for solid oxide fuel cells

Electrodes iridium oxide

Electrodes oxide-based

Electrodes single-oxide fuel cell

Electrodes surface oxide

Electrodes with soluble oxidants

Electrodes, oxidation-reduction applications

Electrodes, oxidation-reduction calculation

Electrodes, oxidation-reduction chemical potential

Electrodes, oxidation-reduction sign, convention

Electrodes, oxidation-reduction solubility method

Electrodes, oxidation-reduction table

Electrodes, oxidation-reduction volume

Electron oxide electrodes

Fluorine-doped tin oxide electrode

Gallium oxide electrodes

Glucose oxidation electrodes

Gold electrodes oxide formation

Gold oxide electrodes

Hydrogen, electrode oxidation

Indium oxide electrodes

Indium oxide electrodes gold-doped

Indium oxide optically transparent electrode

Indium oxide/gold electrodes

Indium tin oxide electrodes

Interface between Transition Metal Oxides-Based Electrodes and Lithium Salts Electrolytes A Physicochemical Approach

Iron oxide electrodes

Lanthanum cobalt oxide electrodes

Lanthanum iron oxide electrodes

Lanthanum strontium chromium oxide electrodes

Lead oxide electrode

Lithium-manganese dioxide oxide electrodes

Manganese oxide electrodes

Membrane electrode assemblies electrochemical oxidation

Mercuric oxide electrode

Mercuric oxide reference electrode

Mercury electrode electrochemical oxidation

Mercury oxide electrode

Metal oxide electrodes, transition

Metal oxide semiconductor reference electrode

Methanol Oxidation on Pt-based Electrodes

Methanol oxidation bimetallic electrode

Methanol oxidation electrode

Methanol oxidation electrode reaction study

Mixed oxide electrode

Mott oxide electrodes

Multi-step electrode reactions oxidation

Nickel iron oxide electrodes

Nickel oxide electrodes

Nickel oxide electrodes and

Nickel oxide electrodes capacitance

Nickel oxide electrodes image

Nickel oxide electrodes nanostructured

Nickel oxide electrodes sensitivity

Nickel oxide electrodes sintering

Nickel oxide electrodes thickness

Nickel oxide/platinum electrodes

Niobium oxide electrodes

Nitric oxide electrochemical sensors Clark type NO electrodes

Organic compounds, electrode oxidation

Oxidants near electrode surface

Oxidants soluble, electrode reaction

Oxidase Oxide electrode

Oxidation of Hydrocarbons on Ceria Based Electrodes

Oxidation on Platinum Electrode

Oxidation on Pt-Sn Electrodes

Oxidation-catalyst electrode

Oxidation-reduction electrode potential cycling

Oxidation-reduction electrode,

Oxidation-reduction electrodes determination

Oxidation-reduction electrodes equilibria

Oxidation-reduction electrodes indicators

Oxidation-reduction electrodes potentials

Oxidation-reduction electrodes potentiometric

Oxidation-reduction electrodes range

Oxidation-reduction electrodes standard

Oxidation-reduction electrodes systems

Oxidation-reduction electrodes titrations, with indicators

Oxidation-reduction electrodes types

Oxidation-reduction reactions, in solution and at electrodes

Oxide electrodes

Oxide electrodes interaction with

Oxide electrodes ionic transfer reactions

Oxide electrodes microporosity

Oxide electrodes optically transparent

Oxide electrodes photocorrosion

Oxide electrodes powders

Oxide electrodes sputtered

Oxide electrodes surface charge

Oxide electrodes, their thermodynamics

Oxide electrodes, types

Oxide films electrode materials

Oxides as negative electrodes

Oxides, electrode/solution interface

Oxides, electrode/solution interface 424 Subject

Oxygen electrodes in ionic melts. Oxide ion donors

Platinum electrodes oxide film

Platinum oxide electrodes

Praseodymium oxide electrodes

Preparation of Metal Oxide Electrodes by Electrodeposition

Reference electrode oxidizing potential

Reference electrodes reduction/oxidation potential evaluation

Ring electrodes oxidant concentration

Ruthenium oxide electrode

Ruthenium oxide electrode modification

Sensing electrode oxidation/reduction reactions

Silver oxide secondary batteries electrodes

Solid Oxide Fuel Cell Electrode Fabrication by Infiltration

Solid Oxide Fuel Cell electrode

Solid oxide electrodes

Studies of Alcohol Oxidation on Pd-Electrodes in Alkaline Media

Tantalum oxide electrodes

The nature of oxidized platinum electrodes

Thermodynamic aspects of metal oxide electrodes

Tin oxide electrode

Titanium oxide electrodes

Tungsten electrodes, oxide films

Tungsten oxide electrodes

Tunneling at the Oxide-Covered Electrode

Types of oxide electrode

Yttria oxide electrodes

Zinc iron oxide electrodes

Zinc iron oxide/platinum electrodes

Zinc oxide electrode

Zinc oxide/platinum electrodes

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