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Fluorides oxidizing

Mendeleef based his original table on the valencies of the elements. Listed in Tables 1.6 and 1.7 are the highest valency fluorides, oxides and hydrides formed by the typical elements in Periods 3 and 4. [Pg.20]

The pH of a freshly prepared 0.4% solution of stannous fluoride is between 2.8 and 3.5. Initially clear aqueous solutions become cloudy on standing owing to hydrolysis and oxidation. The insoluble residue is a mixture containing stannous and stannic species, fluoride, oxide, oxyfluorides, and hydrates. [Pg.253]

Some properties of selected vanadium compounds are Hsted in Table 1. Detailed solubiUty data are available (3), as are physical constants of other vanadium compounds (4). Included are the lattice energy of several metavanadates and the magnetic susceptibiUty of vanadium bromides, chlorides, fluorides, oxides, and sulfides (5). [Pg.389]

The ionic bond is the most obvious sort of electrostatic attraction between positive and negative charges. It is typified by cohesion in sodium chloride. Other alkali halides (such as lithium fluoride), oxides (magnesia, alumina) and components of cement (hydrated carbonates and oxides) are wholly or partly held together by ionic bonds. [Pg.37]

A large number of electrolytic treatments of magnesium, anodic or a.c., have been developed, in which adherent white or grey films consisting of fluoride, oxide, hydroxide, aluminate or basic carbonate are deposited from alkaline solutions containing caustic alkali, alkali carbonates, phosphates, pyrophosphates, cyanides, aluminates, oxalates, silicates, borates, etc. Some films are thin, and some are relatively thick. All are more or less absorbent and act as good bases for paint, though none contributes appreciable inhibition. All can, however, absorb chromates with consequent improvement of protective efficiency. [Pg.729]

The reason for the ultramicrochemical test was to establish whether the bismuth phosphate would carry the plutonium at the concentrations that would exist at the Hanford extraction plant. This test was necessary because it did not seem logical that tripositive bismuth should be so efficient in carrying tetrapositive plutonium. In subsequent months there was much skepticism on this point and the ultramicrochemists were forced to make repeated tests to prove this point. Thompson soon showed that Pu(Vl) was not carried by bismuth phosphate, thus establishing that an oxidation-reduction cycle would be feasible. All the various parts of the bismuth-phosphate oxidation-reduction procedure, bulk reduction via cross-over to a rare earth fluoride oxidation-reduction step and final isolation by precipitation of plutonium (IV) peroxide were tested at the Hanford concentrations of... [Pg.25]

Hydrogen fluoride Oxides Sodium nitrate Arsenic trioxide, etc. [Pg.61]

Fig. 4. Relative stabilities of Group IV fluoride oxidation states. [Pg.48]

Pickling Gases, mists hydrochloric acid, hydrogen chloride, hydrogen fluoride, oxides of nitrogen, sulfuric acid... [Pg.150]

From the constructions of Figs. 3.2 and 3.3, it is clear that a large electrolyte stability window Eg requires not only a large energy difference m — i, but also the absence of any cationic states above the top of the bonding anion-p band. It follows that most practical electrolytes are generally confined to fluorides, oxides and chlorides of the main-group... [Pg.46]

Very little is known about chlorine fluoride oxide radicals. Although the formation of the FClOs" radical anion in the reaction of FCIO3 with nucleophilic agents has been postulated (286), it has not been isolated and characterized. [Pg.385]

Synonyms Chlorine fluoride oxide chlorine oxyfluoride trioxychlorofluoride... [Pg.567]

Chlorine fluoride, 21 235, 236, 238, 240, 242, 244, 246, 247, 249 geometry of, 18 320-322 oxygenation of, 18 349 oxygen-containing, 21 245 Chlorine fluoride oxide radicals, 18 385, 386 Chlorine hydroxide, 5 219 Chlorine isotope, half-life determination, 2 ... [Pg.46]

Examples of weight loss or weight gain processes are water desorption, structural water release, structural decomposition, carbonate decomposition, gas evolution, sulfur oxidation, fluoride oxidation, rehydration, and other transformations. [Pg.181]

Since BF3 is a gas, the significance of boron compounds as fuels with fluoride oxidizers particularly changes for the better. [Pg.139]

Sulfur tetrafluoride oxide is the only stable sulfur fluoride or sulfur fluoride oxide that is not commercially available, although its value is increasing in synthetic chemistry. It was first made by burning SOF2 in elemental fluorine,1... [Pg.34]


See other pages where Fluorides oxidizing is mentioned: [Pg.118]    [Pg.291]    [Pg.21]    [Pg.1326]    [Pg.639]    [Pg.584]    [Pg.319]    [Pg.327]    [Pg.330]    [Pg.344]    [Pg.357]    [Pg.385]    [Pg.603]    [Pg.161]    [Pg.584]    [Pg.326]    [Pg.449]    [Pg.1368]    [Pg.181]    [Pg.201]    [Pg.89]    [Pg.1326]    [Pg.137]   


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Acetyl fluoride oxidation

Actinide oxide fluorides

Actinide oxide fluorides hexavalent

Actinide oxide fluorides tetravalent

Actinide oxide fluorides trivalent

Aluminum oxide fluorides, preparation

Americium oxide fluorides

Antimony oxide fluorides

Antimony oxide fluorides preparation

Arsenic oxide fluorides

Arsenic oxide fluorides preparation

Arsenic oxide fluorides structure

Binary Oxides, Fluorides and Chlorides

Binary rare-earth oxide fluorides

Bismuth fluoride, oxidation

Bismuth oxide fluorides

Boron oxide fluorides, preparation

Bromine fluoride reaction with oxides

Bromine oxide fluorides

Californium oxide fluoride

Carbon fluoride oxide

Chlorine fluoride oxide radicals

Chlorine oxide fluorides

Chromium complexes oxide fluorides

Chromium oxide fluorides

Fluorescence oxide fluoride glasses

Fluoride Tamao-Fleming oxidation

Fluoride oxidation

Fluoride oxidative stress induced

Fluoride tributyltin oxide

Fluorides boric oxide

Fluorides of Lower Oxidation States

Fluorides, acyl oxidation

Fluorides, oxidation-reduction behavior

Hafnium oxide fluorides

Halogen oxide fluorides

Halogen oxide fluorides and related compounds

High-oxidation state transition-metal fluorides

Hydrides oxide fluorides

Hydrogen fluoride, liquid oxidants

Indium fluoride oxide

Iodine oxide fluorides

Iridium oxide fluoride

Iron fluoride oxide

Lanthanide elements oxide fluorides

Lanthanum oxide fluoride

Main-group oxide fluorides

Manganese complexes oxide fluorides

Manganese oxide fluorides

Methyl fluoride, oxidation Nitrosomonas

Molybdenum oxide fluorides

Neptunium oxide fluorides

Nickel oxide fluorides

Niobium oxide fluorides

Nitrosyl fluoride allylic oxidation

Osmium oxide fluorides

Oxidation with oxygen fluorides

Oxidations using supported fluorides

Oxide fluoride glasses

Oxide fluoride glasses glass transition temperature

Oxide fluoride glasses optical properties

Oxide fluoride, preparation and reactions

Oxide fluorides

Oxide fluorides

Oxide fluorides of phosphorus

Oxide fluorides of silicon

Oxide peroxide fluoride

Oxides oxygen fluorides

Oxidizing agents perchloryl fluoride

Oxidizing agents sulfur fluorides

Palladium oxide fluorides

Periodicity IV Fluorides and Oxides

Plasma-Chemical Synthesis of Xenon Fluorides and Other Fluorine Oxidizers

Platinum oxide fluoride

Plutonium oxide fluorides

Polonium oxide fluorides

Potassium fluoride/ Aluminium oxide

Preparation and Properties of Rare-earth-Containing Oxide Fluoride Glasses

Preparations and Reactions of Inorganic Main-Group Oxide Fluorides

Rhenium complexes oxide fluorides

Rhenium oxide fluorides

Ruthenium oxide fluoride

Scandium oxide fluorides

Selenium oxide fluorides

Silicon oxide fluorides, preparation

Simple rare-earth oxide fluorides

Sodium fluoride, oxidation state

Sulfur oxide fluorides

Sulfur oxide fluorides reaction with, phosgene

Tantalum oxide fluorides

Technetium oxide fluorides

Tellurium oxide fluorides

Thallium fluoride oxide

The Rubidium-Cesium Partially Oxidized Tetracyanoplatinate (Hydrogen Difluoride)-Fluoride Systems

Thorium oxide fluorides

Titanium oxide fluorides

Transition metal complexes oxide fluorides

Tungsten fluoride oxide

Uranium oxide fluorides

Vanadium oxide fluorides

Xenon oxide fluoride, XeOF

Xenon oxide fluorides

Yttrium oxide fluorides

Zirconium oxide fluorides

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