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Oxidizing Solids

Common oxidizers include the peroxides and superoxides (those compounds containing the peroxy group, -0-0-, such as peroxysulphuric acid), bisulphates, bromates, chlorates, nitrates, permanganates, and persulphates. Organic peroxides are common. [Pg.170]

Materials and Division 4.2, p.226 Solid, see Terminology, Solid, p.247 Toxic, see Toxic Substances and Division 6.1, p.255 [Pg.171]

Water-reactive, see Dangerous When Wet Materials and Division 4.3, p.58 [Pg.171]

Corrosive, see Corrosives and Class 8, p.47 Flammable see Flammable Solids and Division 4.1, p.99 [Pg.171]

Class 5 is divided into two divisions Division 5.1 Oxidizing substances. Division 5.2 Organic peroxides. lATA 3.5.0 [Pg.171]


Hypophosphite, see under Phosphinate Ice, see Hydrogen oxide (solid)... [Pg.274]

The oxide solid elecU olytes have elecuical conductivities ranging from lO Q cm to 10 cm at 1000°C and these can be converted into diffusion coefficient data, D, for die oxygen ions by the use of the Nernst-Einstein relation... [Pg.160]

Because phenols are weak acids, they can be freed from neutral impurities by dissolution in aqueous N sodium hydroxide and extraction with a solvent such as diethyl ether, or by steam distillation to remove the non-acidic material. The phenol is recovered by acidification of the aqueous phase with 2N sulfuric acid, and either extracted with ether or steam distilled. In the second case the phenol is extracted from the steam distillate after saturating it with sodium chloride (salting out). A solvent is necessary when large quantities of liquid phenols are purified. The phenol is fractionated by distillation under reduced pressure, preferably in an atmosphere of nitrogen to minimise oxidation. Solid phenols can be crystallised from toluene, petroleum ether or a mixture of these solvents, and can be sublimed under vacuum. Purification can also be effected by fractional crystallisation or zone refining. For further purification of phenols via their acetyl or benzoyl derivatives (vide supra). [Pg.68]

Soderberg aluminum reduction cells for simultaneous removal of aluminum oxides, solid and gaseous fluoride, tar mist (condensible hydrocarbons), and SO2,... [Pg.429]

The monoxides SeO and TeO have transient existence in flames but can not be isolated as stable solids. PoO has been obtained as a black, easily oxidized solid by the spontaneous radiolytic decomposition of the sulfoxide P0SO3. [Pg.779]

The isoelectronic points of solid oxides, solid hydroxides and aqueous hydroxo complex systems. G. A. Parks, Chem. Rev., 1965, 65, 177-198 (131). [Pg.31]

Ligand field spectra and chemical bonding in Cr3+-containing oxidic solids. D. Reinen, Struct. Bonding (Berlin), 1969, 6, 30-51 (34). [Pg.36]

Figure 5.54. Effect of sodium coverage on the change AUWR of polycrystalline Pt catalyst potential UWr and on the catalytic rates of CO oxidation (solid lines37) and C2H4 oxidation (dashed lines36). Comparison with the theoretical Na coverage required to form the Pt(l 11)-(12xl2)-Na adlayer 0 is based on the number of surface Pt atoms 09a is based on the number of surface O atoms corresponding to the Pt(l 1 l)-(2x2)-0 adlattice. Reprinted from ref. 78 with permission from Elsevier Science,... Figure 5.54. Effect of sodium coverage on the change AUWR of polycrystalline Pt catalyst potential UWr and on the catalytic rates of CO oxidation (solid lines37) and C2H4 oxidation (dashed lines36). Comparison with the theoretical Na coverage required to form the Pt(l 11)-(12xl2)-Na adlayer 0 is based on the number of surface Pt atoms 09a is based on the number of surface O atoms corresponding to the Pt(l 1 l)-(2x2)-0 adlattice. Reprinted from ref. 78 with permission from Elsevier Science,...
Reinen D (1969) Ligand-Field Spectroscopy and Chemical Bonding in Cr3-t-Containing Oxidic Solids. 6 30-51... [Pg.253]

Formaldehyde Oxidation The faradaic current for formaldehyde oxidation (solid line in Fig. 13.6a) is largely suppressed during the first minute after stepping to 0.6 V, and then increases with time, resulting in an S-shaped transient. It reaches its maximum current about 4-5 minutes after the potential step, followed by a slow and nearly linear decay of the faradaic current with time (solid line in Fig. 13.6a). In comparison with formic acid oxidation (solid line in Fig. 13.5a), three major differences can be noted ... [Pg.438]

On the other hand, during potentiodynamic formaldehyde oxidation (solid line in the upper panel of Fig. 13.3b), there is only a small faradaic current at 0.6 V in the positive-going scan, in contrast to the much higher steady-state value (about 0.55 mA) attained in the potentiostatic experiment. [Pg.439]

This method was used, for example, for the solid-phase immunoassay of thyroxine (affinity chromatography). Various activation methods (CDI, periodate, and cyanogen bromide procedures) were compared with each other for coupling antibodies to magnetizable cellulose/iron oxide solid-phase particles. 211]... [Pg.144]

Hearth thermal oxidizers. This type of thermal oxidizer is primarily designed to oxidize solid waste. Solids are moved through the combustion chamber mechanically using a rake. [Pg.645]

Fig. 19. Spectrum of chemisorbed propylene (CD3—CH=CHa and CHs—CH=CDj) dotted line, chemisorbed CD3—CH=CHs on zinc oxide solid line, chemisorbed CII3— CH=CDj on zinc oxide. Fig. 19. Spectrum of chemisorbed propylene (CD3—CH=CHa and CHs—CH=CDj) dotted line, chemisorbed CD3—CH=CHs on zinc oxide solid line, chemisorbed CII3— CH=CDj on zinc oxide.
The motion of a free valence in oxidizing solid polymer is a complex process. The following three mechanisms were discussed [11,12] ... [Pg.457]

The oxide solid electrolytes have electrical conductivities ranging from 10 1 1 cm-1 to 10 6 1 cm-1 at 1000°C and these can be converted... [Pg.160]

Inorganic membranes can be categorized as shown in Table 2.1. The dense inorganic membranes consist of solid layers of metals (Pd, Ag, alloys) or (oxidic) solid electrolytes which allow diffusion of hydrogen (or oxygen). In the case of solid electrolytes transport of ions takes place. Another category of dense membranes consist of a porous support in which a liquid is... [Pg.11]

Oxidic) solid electrolyte Liquid immobilized (LIM) Permanent ionic species... [Pg.11]

Driessens F. C. M. (1968). Thermodynamics and defect chemistry of some oxide solid solutions. Parts I and II. Ber. Buns. Phys. Chem., 72 754-772. [Pg.827]

Incineration is an estabhshed process for virtually complete destruction of organic compounds. It can oxidize solid, liquid, or gaseous combustible wastes to carbon dioxide, water, and ash. In the pesticide industry, thermal incinerators are used to destroy wastes containing compounds such as hydrocarbons (e.g., toluene), chlorinated hydrocarbons (e.g., carbon tetrachloride). [Pg.536]


See other pages where Oxidizing Solids is mentioned: [Pg.345]    [Pg.494]    [Pg.1098]    [Pg.430]    [Pg.439]    [Pg.424]    [Pg.440]    [Pg.157]    [Pg.1484]    [Pg.203]    [Pg.83]    [Pg.441]    [Pg.331]    [Pg.257]    [Pg.264]    [Pg.144]    [Pg.8]    [Pg.303]   
See also in sourсe #XX -- [ Pg.2 , Pg.3 , Pg.4 , Pg.5 , Pg.6 , Pg.8 , Pg.13 , Pg.170 ]




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2-Adamantanone via solid support oxidation

A Catalytic Oxidation Tool. Fenton Chemistry in Solid Catalyst Synthesis

Advanced Inorganic Materials for Solid Oxide Fuel Cells

Alkenes oxidation solid catalysts

Anode for solid oxide fuel cells

Anodes solid oxide fuel cells

Basicity of solid oxides

Bismuth oxide-based solid solutions

Bond Graph Modelling of a Solid Oxide Fuel Cell

C-X-Y-Fragment (Nitrile Oxide on Solid Phase)

Cathodes solid oxide fuel cells

Ceria in Solid Oxide Fuel Cell Electrodes

Complex oxides and their solid solution of irons

Composite solid oxide

Compressive seals, for solid oxide

Compressive seals, for solid oxide fuel cells

Cosmetics, oxidizing material, solid

Criteria for Metal Oxide Application in Solid Electrolyte-Based Gas Sensors

Data Oxygen Permeability of Solid Oxide Membranes

Dense Solid Electrolyte and Oxide Membranes

Dioxygen solid-state oxidation

Drugs, oxidizing, solid

Durability of solid oxide fuel cells

Early History of Solid Oxide Fuel Cell

Electrochemical carbon oxidation solid electrolytes

Electrodes for solid oxide fuel cells

Electrolysis solid oxide

Electrolytes for solid oxide fuel cells

Energy conversion membranes solid oxide fuel cells

Equilibria in solid oxide-ionic melt systems

Extended high-temperature solid-oxide fuel

Flammable Solids, Oxidizers and Organic Peroxides

Fuel cells high-pressure solid oxide

Fuel cells solid oxide

Fuel solid oxide

G. Kaur, Solid Oxide Fuel Cell Components

General Electric, solid oxide fuel cell

Hammou Solid Oxide Fuel Cells

Heterogeneous solid oxides

High power density solid oxide fuel cell

High-temperature solid-oxide fuel

Hydrogen solid oxide fuel cell

Hydrous oxide solid-phase adsorbents

Hydrous oxide solid-phase adsorbents adsorbate

Interconnectors for solid oxide fuel cell

Intermediate temperature solid oxide fuel cells

Intermediate temperature solid oxide fuel cells ITSOFC)

Intermediate-temperature solid oxide fuel cells IT-SOFCs)

Internal Oxidation in Nonmetallic Solid Solutions

Ionic conductivity solid oxide fuel cells

Japan solid oxide fuel cell development

Ketoacetates via solid support oxidation of acetates

Lead oxide , solid solns

Lead oxide , solid solns pyrochlor

Low-temperature solid oxide fuel

Low-temperature solid oxide fuel cells

Membrane dense solid oxide

Mesoporous metal oxide solid acids

Metal Oxides with Ionic Conductivity Solid Electrolytes

Metal oxide solid electrolytes

Metal oxide solid electrolytes fluorite-type oxides

Metal oxide solid electrolytes yttria-stabilized zirconia

Metal oxide, solid solutions

Micro-solid oxide fuel cells

Mixed solid oxide

Mixed-conducting solid oxide

Mixed-conducting solid oxide membrane

Nanostructured metal oxide solid acid

New Oxidizers for Solid Rocket Motors

Nitric oxide, solid

Nitro compounds via solid support oxidation of amines

Non-oxide microporous solids

On the Path to Practical Solid Oxide Fuel Cells

Open-Framework Solids of the Vanadium Oxide-Phosphate System

Overview of Intermediate-Temperature Solid Oxide Fuel Cells

Oxidants, solid

Oxidants, solid

Oxidation Catalyzed by Solid Heteropoly Compounds

Oxidation in the Solid Phase

Oxidation of carbonaceous solids

Oxidation on solid

Oxidation potential solid electrolyte sensors

Oxidation solid state

Oxidation solid-state oxidations

Oxidation solid-supported reagents

Oxidation solids

Oxidation solids

Oxidation states, solid state

Oxide glasses amorphous solids

Oxide ion-conducting solid electrolyte

Oxide-solid interfaces

Oxides solid-oxide fuel cells

Oxidized solid oxygen carrier

Oxidizers solid rocket propellants

Oxidizing agents, solid supported

Oxygen electrolytes, solid oxide fuel cell

Perovskite solid oxide

Plutonium processing solid, oxidizers

Polyacrylonitrile solid oxide

Polyacrylonitrile solid oxide electrolyte

Practical Test Methods Suited to Solid Oxidizers

Propene, 1-phenylallylic oxidation solid support

Proton conducting solid oxide fuel cells

Quinone diacetals via solid support oxidation

Regenerative solid oxide electrolyte

Research solid oxide fuel cells

Ruthenium oxide , solid solns, with

SOFC cathodes Solid oxide fuel cells

Single-chamber solid oxide fuel cells

Single-chamber solid oxide fuel cells SC-SOFCs)

Single-phase oxide solid-solutions

Sites solid oxide fuel cells

Solid Oxide (SOFC)

Solid Oxide Electrolyte (SOE)

Solid Oxide Fuel Cell Electrode Fabrication by Infiltration

Solid Oxide Fuel Cell Materials and Performance

Solid Oxide Fuel Cell Maximum Voltage

Solid Oxide Fuel Cell alternative concepts

Solid Oxide Fuel Cell electrode

Solid Oxide Fuel Cell electrolyte, alternative

Solid Oxide Fuel Cells Past, Present and Future

Solid Oxide Fuel Cells: Materials Properties and Performance

Solid Phases Hydroxides, Oxyhydroxides, Oxides

Solid acid catalysts sulfated metal oxides

Solid and gaseous oxides

Solid bases magnesium oxide

Solid binary oxides, structure-bonding

Solid ceramic oxide electrolyte

Solid mixed oxides, structure-bonding

Solid oxidation catalysts, surface

Solid oxide

Solid oxide

Solid oxide cells

Solid oxide electrodes

Solid oxide electrolysis cells

Solid oxide electrolyzer cells

Solid oxide fuel cell Carbonate

Solid oxide fuel cell Direct conversion

Solid oxide fuel cell Future directions

Solid oxide fuel cell Introduction

Solid oxide fuel cell active parts

Solid oxide fuel cell anode materials

Solid oxide fuel cell anodes ceramic

Solid oxide fuel cell anodes conventional

Solid oxide fuel cell anodes perovskite-type materials

Solid oxide fuel cell carbon

Solid oxide fuel cell cathode materials

Solid oxide fuel cell cathodes conventional

Solid oxide fuel cell cathodes perovskite-type materials

Solid oxide fuel cell chromium

Solid oxide fuel cell companies

Solid oxide fuel cell competitiveness

Solid oxide fuel cell components

Solid oxide fuel cell conductor

Solid oxide fuel cell configurations

Solid oxide fuel cell contamination

Solid oxide fuel cell degradation

Solid oxide fuel cell deposition

Solid oxide fuel cell devices

Solid oxide fuel cell different types

Solid oxide fuel cell electrochemical reaction

Solid oxide fuel cell electrolyte

Solid oxide fuel cell electrolytes ceria-based

Solid oxide fuel cell electrolytes conventional

Solid oxide fuel cell electrolytes materials

Solid oxide fuel cell electrolytes perovskite-type materials

Solid oxide fuel cell electrolytes zirconia-based

Solid oxide fuel cell gadolinium-doped ceria

Solid oxide fuel cell interconnects

Solid oxide fuel cell issues

Solid oxide fuel cell membrane reactors

Solid oxide fuel cell performance

Solid oxide fuel cell reduction potential

Solid oxide fuel cell type membrane

Solid oxide fuel cell type membrane reactor

Solid oxide fuel cells -based

Solid oxide fuel cells Ceria-based materials

Solid oxide fuel cells PEMFCs, working with

Solid oxide fuel cells SOFCs)

Solid oxide fuel cells Westinghouse tubular cell

Solid oxide fuel cells Zirconia-based materials

Solid oxide fuel cells advantages

Solid oxide fuel cells and membranes

Solid oxide fuel cells apatites

Solid oxide fuel cells basic components

Solid oxide fuel cells cathode, electrochemical reactions

Solid oxide fuel cells cell design

Solid oxide fuel cells cell interconnection

Solid oxide fuel cells chemical thermodynamics

Solid oxide fuel cells combined cycle systems

Solid oxide fuel cells combined cycles

Solid oxide fuel cells conductivity

Solid oxide fuel cells development

Solid oxide fuel cells disadvantages

Solid oxide fuel cells drawbacks

Solid oxide fuel cells durability

Solid oxide fuel cells fabrication techniques

Solid oxide fuel cells finite element analysis

Solid oxide fuel cells first generation

Solid oxide fuel cells heat generation from

Solid oxide fuel cells high power

Solid oxide fuel cells high-temperature environment

Solid oxide fuel cells hybrid systems

Solid oxide fuel cells interconnection

Solid oxide fuel cells introduced

Solid oxide fuel cells manufacture

Solid oxide fuel cells manufacturing

Solid oxide fuel cells membrane

Solid oxide fuel cells merits

Solid oxide fuel cells metallic

Solid oxide fuel cells metallic interconnectors

Solid oxide fuel cells methane steam reforming

Solid oxide fuel cells methods

Solid oxide fuel cells modeling

Solid oxide fuel cells monolithic

Solid oxide fuel cells nanostructured materials

Solid oxide fuel cells operating principle

Solid oxide fuel cells operating temperature

Solid oxide fuel cells operation

Solid oxide fuel cells other materials

Solid oxide fuel cells overall chemical reaction

Solid oxide fuel cells oxygen reduction

Solid oxide fuel cells planar design

Solid oxide fuel cells potential application

Solid oxide fuel cells power plant, components

Solid oxide fuel cells power systems

Solid oxide fuel cells pressure

Solid oxide fuel cells reducing operation temperature

Solid oxide fuel cells requirements

Solid oxide fuel cells reversible

Solid oxide fuel cells schematic

Solid oxide fuel cells sealant

Solid oxide fuel cells stack design

Solid oxide fuel cells stationary

Solid oxide fuel cells stationary power generation, application

Solid oxide fuel cells structure

Solid oxide fuel cells systems

Solid oxide fuel cells temperature

Solid oxide fuel cells thickness

Solid oxide fuel cells thin-film

Solid oxide fuel cells tubular design

Solid oxide fuel cells tubular-type

Solid oxide fuel cells zirconia-based

Solid oxide fuel cells, SOFC

Solid oxide fuel cells, vii

Solid oxide fuel cells, viii

Solid oxide membranes

Solid oxide, planar geometry

Solid oxides ionicity/covalency

Solid oxides structures

Solid oxidizers

Solid oxidizers

Solid oxidizing agents

Solid phase oxidations

Solid potentiometric gaseous oxide

Solid solution between perovskite oxides

Solid solution between pyrochlore oxides

Solid solutions of oxides

Solid solutions, oxide cathodes

Solid solutions, propylene oxidation

Solid state chemistry oxide

Solid state oxide phases

Solid state reactions oxidation

Solid surface energy oxides

Solid surfaces, acid-base character oxides

Solid-State Chemistry of Supported Metal Oxides

Solid-State NMR of Oxidation Catalysts

Solid-oxide electrolytes

Solid-oxide fuel cells electrical conductivity

Solid-oxide fuel cells fluorite

Solid-oxide fuel cells materials challenges

Solid-oxide fuel cells perovskite

Solid-oxide fuel cells reactions between

Solid-oxide fuel cells temperature stability

Solid-oxide fuel-cell applications

Solid-phase synthesis oxidation reactions

Solid-state NMR analysis oxide-support

Solid-state electrochemistry oxide conduction

Solid-state redox reactions, oxide cathodes

The High-Temperature Solid-Oxide (HTSO) Fuel Cell

The Solid Oxide Fuel Cell

The mixed oxide or solid state route

Thermal-Hydraulic Model of a Monolithic Solid Oxide Fuel Cell

Tubular solid oxide fuel cell

Tungsten oxide solid state chemistry

Use in Solid Oxide Cells and Oxygen Membranes

Which Metal Oxides Are Better for Solid-State Electrochemical Gas Sensors

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