Big Chemical Encyclopedia

Chemical substances, components, reactions, process design ...

Articles Figures Tables About

Oxidant water

Quaternary ammonium iodide Silver oxide Water Quaternary ammonium hydroxide Silver iodide... [Pg.938]

S Acetoacetyl Reduced Hydronium iS 3 Hydroxybutanoyl Oxidized Water... [Pg.1076]

Sellaite, see Magnesium fluoride Senarmontite, see Antimony(III) oxide Siderite, see Iron(II) carbonate Siderotil, see Iron(II) sulfate 5-water Silica, see Silicon dioxide Silicotungstic acid, see Silicon oxide—tungsten oxide—water (1/12/26)... [Pg.275]

Phosphorus pentoxide Formic acid, HF, inorganic bases, metals, oxidants, water... [Pg.1211]

Solutions of Mn04 are prepared from KMn04, which is not available as a primary standard. Aqueous solutions of permanganate are thermodynamically unstable due to its ability to oxidize water. [Pg.342]

PuO -5 observed only in alkaline solution oxidizes water ... [Pg.220]

The spray dried MgCl2 powder is melted ia large reactors and further purified with chlorine and other reactants to remove magnesium oxide, water, bromine [7726-95-6], residual sulfate, and heavy metals (27,28). The molten MgCl2 is then fed to the electrolytic cells which are essentially a modification of the LG. Farben cell. Only a part of the chlorine produced is required for chlorination, leaving up to 1 kg of chlorine per kg of magnesium produced. This by-product chlorine is available for sale. [Pg.318]

Aqueous potassium permanganate solutions are not perfectiy thermodynamically stable at 25°C, because Mn02, not MnO is the thermodynamically stable form of manganese in water. Thus permanganate tends to oxidize water with the evolution of oxygen and the deposition of manganese dioxide, which acts to further catalyze the reaction. [Pg.516]

Specifications and Packaging. Aluminum chloride s catalytic activity depends on its purity and particle size. Moisture contamination is an important concern and exposure to humid air must be prevented to preserve product integrity. Moisture contamination can be deterrnined by a sample s nonvolatile material content. After subliming, the material remaining is principally nonvolatile aluminum oxide. Water contamination leads to a higher content of nonvolatile material. [Pg.148]

Propylene oxide is also produced in Hquid-phase homogeneous oxidation reactions using various molybdenum-containing catalysts (209,210), cuprous oxide (211), rhenium compounds (212), or an organomonovalent gold(I) complex (213). Whereas gas-phase oxidation of propylene on silver catalysts results primarily in propylene oxide, water, and carbon dioxide as products, the Hquid-phase oxidation of propylene results in an array of oxidation products, such as propylene oxide, acrolein, propylene glycol, acetone, acetaldehyde, and others. [Pg.141]

Effect on Oxide—Water Interfaces. The adsorption (qv) of ions at clay mineral and rock surfaces is an important step in natural and industrial processes. SiUcates are adsorbed on oxides to a far greater extent than would be predicted from their concentrations (66). This adsorption maximum at a given pH value is independent of ionic strength, and maximum adsorption occurs at a pH value near the piC of orthosiUcate. The pH values of maximum adsorption of weak acid anions and the piC values of their conjugate acids are correlated. This indicates that the presence of both the acid and its conjugate base is required for adsorption. The adsorption of sihcate species is far greater at lower pH than simple acid—base equihbria would predict. [Pg.7]

Table 5. Flashpoints of Ethylene Oxide/Water Solutions ... Table 5. Flashpoints of Ethylene Oxide/Water Solutions ...
Thus oxygen can feature in a wide variety of compounds including ozone, oxides, water, hydrogen peroxide, carbonates, nitrates/nitrites, etc. It comprises about 21% of normal air (by volume). [Pg.31]

Depending on the propylene oxide/water ratio, di-, tri- and polypropylene glycols can be made the main products. [Pg.224]

However, even in basic solution, Mn04 can oxidize water ... [Pg.549]

Both these ions are strong oxidizing agents PtFg will, unlike PtF -, oxidize water to 02 and O3. Vibrational data for a number of MX species are listed in Tables 3.6 and 3.7. [Pg.183]

According to Vpl nov, the historical development of inorganic peroxide chemistry can be divided into four periods. The fust period, from 1818 (Thenard s synthesis of H202) to 1869 (the formulation of the Periodic Table by D.I. Mendele eff) is characterized by the wide-ranging investigations conducted by Thenard and his co-workers concerning the reaction of oxidized water which resulted in the development of a whole series of peroxide derivs as well as a more precise determination of the structure of Na peroxide... [Pg.662]

The most intensively investigated dehydroxylation is probably the reaction of Mg(OH)2, though detailed results are also available for the hydroxides of certain other divalent cations. Several summaries of the mechanistic deductions obtained from such work, including literature sources, were presented at a conference at Dijon in 1974 [87]. The extensive literature concerned with the thermal analysis of hydroxides has been reviewed by Dollimore [79] who has also included the behaviour of oxides. Water elimination can be regarded as the first in a sequence of structurally related steps through which the hydroxide is converted into the thermally most stable oxide. [Pg.137]

Self-Test 12.8B Can chlorine gas oxidize water to oxygen gas under standard conditions in basic solution ... [Pg.623]

Its stability then decreases progressively until we reach curium where aqueous solutions containing the tetra-positive state must be complexed by ligands such as fluoride or phosphotungstate. Even then, they oxidize water and revert to cur-ium(lll). The expected drop in I4 between curium and berkelium provides Bk" (aq) with a stability similar to that of Ce (aq), but the decrease in stability is then renewed, and beyond californium, the +4 oxidation state has not yet been prepared [2, 10, 15]. [Pg.7]

The permanganate ion is a powerftil oxidizing agent that oxidizes water to oxygen under standard conditions. Here are the half-cell reactions ... [Pg.1394]

The result has three decimal places because the ° value is accurate to three decimal places, and the correction is a subtraction. The low concentration of H3 in pure water reduces this cell potential nearly to zero, but the reaction is still spontaneous, so permanganate can oxidize water. Solutions of potassium permanganate slowly deteriorate and cannot be stored for long times. The reaction is slow enough, however, that significant oxidation does not occur over days or weeks. [Pg.1395]


See other pages where Oxidant water is mentioned: [Pg.366]    [Pg.243]    [Pg.218]    [Pg.437]    [Pg.102]    [Pg.375]    [Pg.1265]    [Pg.83]    [Pg.718]    [Pg.577]    [Pg.628]    [Pg.855]    [Pg.1189]    [Pg.1240]    [Pg.352]    [Pg.26]    [Pg.493]    [Pg.510]    [Pg.631]    [Pg.177]    [Pg.59]    [Pg.149]    [Pg.7]    [Pg.158]    [Pg.102]    [Pg.275]    [Pg.278]   
See also in sourсe #XX -- [ Pg.129 ]




SEARCH



Advanced Oxidation Processes in Water Treatment

Advanced oxidation process drinking water treatment

Alcohol water-compatible oxidants

Aldose oxidation, bromine water

Amphoteric oxides and hydroxides water

Batch Supercritical Water Oxidation

Blue dimer catalyst, water oxidation

Bromine water oxidation

Calcium oxide and water

Carbon oxides water

Catalysis water oxidation

Catalytic water oxidation

Complex Water oxiding

Cooling water, corrosion inhibitors oxidation

Cooperative water oxidation reactions

Cupric oxide water

Decyldimethylphosphine oxide-water

Decyldimethylphosphine oxide-water system

Deuterium oxide compared with water

Dioxygen water oxidation

Drinking water arsenic oxidation

Electrode-assisted Catalytic Water Oxidation and Related Electrochemical Reactions

Electrolyzed oxidizing water

Ethylene oxide by water

Exchange of Oxides with Water

Failure modes water oxidation

Field-Induced Nanoscale Water Bridges and Tip-Based Oxidation Nanolithography

H2 Purification-Related CO Oxidations Water-Gas Shift (WGS) and PROX Reactions

Heavy Water Deuterium Oxide

Homogeneous oxidation in liquid water

Hydrogen, oxidation to water

Iridium-catalyzed water oxidation

Iridium-catalyzed water oxidation electronic structure

Iron-catalyzed water oxidation

Light energy conversion and water-oxidation systems in photosynthesis

Llobet water oxidation catalyst

Magnesium oxide and water

Manganese oxide catalysts, oxygen production from water

Manganese-catalysed oxidation of water to oxygen

Manganese-catalyzed water oxidation

Manganese-catalyzed water oxidation formation

Manganese-catalyzed water oxidation structures

Metal Complexes and Manganese Oxides for Heterogeneous Water Oxidation

Metal Oxide Nanomaterials for Water Treatment

Metal oxide-water interfaces, reaction

Metal oxide-water interfaces, reaction mechanisms

Metal oxides in water

Metal oxides oxygen production from water

Metal oxides water reactions with

Metal-catalyzed water oxidation

Metal-catalyzed water oxidation acid—base mechanism

Metal-catalyzed water oxidation iridium catalysts

Metal-catalyzed water oxidation iron catalysts

Metal-catalyzed water oxidation ruthenium catalysts

Metal-oxide water interface

Methanol oxidation in supercritical water

Modeling of Drinking Water Oxidation

Modeling of Waste Water Oxidation

Modification of water-soluble oxidants

Moisture Content and Water Activity on the Oxidation of Fat in Milk Powder

Molybdenum(VI) oxide on alumina—chemisorbed water

Nitrous oxide , dissolved gases water

Nitrous oxide water and

Non-oxide Suspended Particle Systems and Direct Water Splitting

Nonmetal oxides in water

Nonmetal oxides, water reactions with

Oxidants, water-soluble organic matter

Oxidation by bromine water

Oxidation by water vapor

Oxidation in natural waters

Oxidation in supercritical water

Oxidation of water

Oxidation reactions water

Oxidations and reductions in water

Oxidations in water

Oxidative of water

Oxidative-addition water

Oxide-water interface transport

Oxide-water interface, surface chemistry

Oxide-water interfaces

Oxides solubility in water

Oxide—water interface, speciation

Oxide—water interface, speciation adsorbed ions

Oxidizing agent, water

Oxidizing water

Oxygen-evolving complex water oxidation

Oxygen-evolving complex water oxidation model system

Photo-oxidized sea water

Photocatalytic Oxidation of Water

Photosynthesis water oxidation

Photosynthetic Oxidation of Water Oxygen Evolution

Photosynthetic water oxidation

Platinum oxides catalysts, oxygen production from water

Platinum oxides in photoproduction of hydrogen from water

Reaction of Calcium Oxide and Water

Reaction of Metal and Nonmetal Oxides with Water

Reactions carbon oxides with water

Reactions magnesium oxides with water

Reactions nitrogen oxides with water

Reactions of Natural Oxide Films with Water

Reactions phosphorus oxides with water

Reactions sodium oxides with water

Reactions sulfur oxides with water

Ruthenium oxidation catalysts water

Ruthenium oxide catalysts, oxygen production from water

Ruthenium oxide hydrogen and oxygen production from water

Ruthenium-catalyzed water oxidation

Ruthenium-catalyzed water oxidation structural features

Simultaneous Accomplishment of Water Reduction and Oxidation

Sodium oxide and water

Spectra of Adsorbed Water and Surface Hydroxyl Groups on Nonacidic Oxides

Sulfur dioxide oxidation water role

Super critical water oxidation

Supercritical water oxidation

Supercritical water oxidation (SCWO

Supercritical water oxidation and other destructive processes

Supercritical water oxidation application

Supercritical water oxidation commercialization

Supercritical water oxidation conditions

Supercritical water oxidation corrosion

Supercritical water oxidation critical temperature

Supercritical water oxidation designs

Supercritical water oxidation dielectric constant

Supercritical water oxidation economics

Supercritical water oxidation handling

Supercritical water oxidation operating conditions

Supercritical water oxidation partial

Supercritical water oxidation permitting

Supercritical water oxidation process

Supercritical water oxidation products

Supercritical water oxidation reactor

Supercritical water oxidation references

Supercritical water oxidation study

Supercritical water oxidation system

Supercritical water oxidation types

Supercritical water oxidation vapor phase

Supercritical water oxidation viscosity

Supercritical water oxidation with

Supercritical water-cooled reactor oxides

Surface charge of oxides in water

Surface waters lead oxide

Tanaka water oxidation catalyst

Tautomerization, hydrogen peroxide-water oxide

The Oxidation of Hydrogen to Water

The Role of Water in Oxide Polishing

Thermodynamic Properties of Deuterium Oxide (Heavy Water)

Titanium oxide catalysts, hydrogen production from water

Titanium oxide in cyclic water cleavage

Titanium oxide water

Trapped Electrons in Water and Deuterium Oxide

Waste treatment, supercritical water oxidation

Water , insufficient oxidation

Water Oxidation and Related Reactions Catalysed by Manganese Compounds

Water Oxidation in Photosystem II

Water Vapor with Metal Oxide Surfaces

Water activity lipid oxidation

Water alkene oxidations, palladium®) chloride

Water anodic oxide

Water as an Oxidant

Water as oxidants

Water cerium oxide

Water covalent oxide reactions with

Water electrocatalytic oxidation into

Water four-electron oxidation

Water from oxidation

Water hydrogen oxides

Water iron oxides

Water leach, zinc oxides

Water magnesium oxide

Water manganese oxides

Water metal oxide nanomaterials

Water native oxide

Water oxidation

Water oxidation

Water oxidation by [Ru

Water oxidation center

Water oxidation centre

Water oxidation complex

Water oxidation complex model system

Water oxidation dimer

Water oxidation mechanism

Water oxidation numbers

Water oxidation products

Water oxidation quinone ligands

Water oxidation states

Water oxidation systems

Water oxidation to oxygen

Water oxidation with

Water oxidation, reaction mechanisms

Water oxide

Water oxide formation

Water oxide structure

Water oxide tautomerization

Water oxidized sulfur species occurring

Water oxidizing conditions

Water reaction with calcium oxide

Water surface oxidation/reduction

Water vapor oxidation

Water with barium oxide

Water with oxidative

Water-based reactions oxidation

Water-oxidation catalysts

Water-oxidation reaction electrochemical reactions

Water-oxidizing clock

Water-oxidizing complex

Water-sodium oxide molar ratio

Water-soluble oxidants

Water-trialkylphosphine oxide

Zinc oxide water

© 2024 chempedia.info