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33 telluride

Tellurides.—Since many of these compounds will have been dealt with elsewhere in this volume, only a very brief treatment will be given in this [Pg.467]

Furuseth, L. Brattas, and A. Kjekshus, Acta Chem. Scand., 1973, 27, 2367. [Pg.468]

Bontschewa-Mladenowa, N. Aramov, and D, Rajkowa, Z. anorg. Chem., 1973,401, 306. [Pg.468]

Et02CN=NC02Et, PPh3 silica gel, microwave oven [Pg.293]

A neutron-scattering study of the alloy Gej gTe 825 the amorphous and liquid states has shown that a change in co-ordination number from 2.43 to 3.25 takes place on melting. In the liquid state the observed co-ordination number can be fitted by assuming four-fold co-ordination of Ge and threefold co-ordination of Te, whilst in the amorphous state four-fold co-ordination of Ge and two-fold co-ordination of Te is assumed. The dependence of the structure of thin films of (SnTe)i (PbSe)a, and (SnTe)j (PbTe)a on the phase composition (0 x 1) and on the conditions of preparation has been reported. Thermochemical data have been obtained for alloys of tellurium with tin and lead over the whole reinge of concentrations. [Pg.648]

Phase relationships in the following systems have been studied Ge-Te and Pb-Te,536 As-Ge-Si-Te and GeSi-Te. ae CdTe-Sn. s and PbTe-MgTe [Pg.649]

Decomposition by alkalis takes place with the formation of elemental tellurium. [Pg.649]


Kidder L H, Levin I W, Lewis E N, Kleiman V D and Heilweil E J 1997 Mercury cadmium telluride focal-plane array detection for mid-infrared Fourier-transform spectroscopic imaging Opt. Lett. 22 742-4... [Pg.1176]

Monolayers can be transferred onto many different substrates. Most LB depositions have been perfonned onto hydrophilic substrates, where monolayers are transferred when pulling tire substrate out from tire subphase. Transparent hydrophilic substrates such as glass [18,19] or quartz [20] allow spectra to be recorded in transmission mode. Examples of otlier hydrophilic substrates are aluminium [21, 22, 23 and 24], cliromium [9, 25] or tin [26], all in their oxidized state. The substrate most often used today is silicon wafer. Gold does not establish an oxide layer and is tlierefore used chiefly for reflection studies. Also used are silver [27], gallium arsenide [27, 28] or cadmium telluride wafer [28] following special treatment. [Pg.2614]

Selenium and tellurium react similarly, forming selenides and selenates(IV), and tellurides and tellurates(IV) respectively. Like the sulphide ion, S , the ions Se and Te form polyanions but to a much lesser extent. [Pg.267]

Hydrogen selenide (selenium hydride), HjSe, and hydrogen telluride (tellurium hydride), HjTe... [Pg.284]

These two gases can readily be prepared by the action of acids on selenides and tellurides respectively, the reactions being analogous to that for the preparation of hydrogen sulphide. [Pg.284]

These closely resemble the corresponding sulphides. The alkali metal selenides and tellurides are colourless solids, and are powerful reducing agents in aqueous solution, being oxidised by air to the elements selenium and tellurium respeetively (cf. the reducing power of the hydrides). [Pg.288]

Tellurium is occasionally found native, but is more often found as the telluride of gold (calaverite), and combined with other metals. It is recovered commercially from the anode muds that are produced during the electrolytic refining of blister copper. The U.S., Canada, Peru, and Japan are the largest Free World producers of the element. [Pg.120]

Tellurium improves the machinability of copper and stainless steel, and its addition to lead decreases the corrosive action of sulfuric acid on lead and improves its strength and hardness. Tellurium is used as a basic ingredient in blasting caps, and is added to cast iron for chill control. Tellurium is used in ceramics. Bismuth telluride has been used in thermoelectric devices. [Pg.121]

Sanskrit Jval Anglo-Saxon gold L. aurum, gold) Known and highly valued from earliest times, gold is found in nature as the free metal and in tellurides it is very widely distributed and is almost always associated with quartz or pyrite. [Pg.142]

Heavy water, see Hydrogen[ H] oxide Heazlewoodite, see rn-Nickel disulfide Hematite, see Iron(III) oxide Hermannite, see Manganese silicate Hessite, see Silver telluride Hieratite, see Potassium hexafluorosilicate Hydroazoic acid, see Hydrogen azide Hydrophilite, see Calcium chloride Hydrosulfite, see Sodium dithionate(III)... [Pg.274]


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2-Thienyl vinyl tellurides

Acetylenic tellurides

Achiral tellurides

Acids tellurides

Acyl tellurides

Addition of alkali tellurides to acetylenes

Alkali metal tellurides

Alkali tellurides

Alkenyl telluride

Alkyl aryl tellurides

Alkyl phenyl tellurides

Alkyl vinyl tellurides

Alkylaryl tellurides

Alkylethynyl tellurides

Alkylvinyl tellurides

Alkynylphenyl tellurides

Allenic butyl tellurides

Allenic tellurides

Allenyl tellurides

Allylic phenyl tellurides

Allyloxy and 2-propargyloxy alkyl tellurides as precursors of tetrahydrofuran derivatives

Aluminium telluride

Aluminum complexes tellurides

Amines Sodium hydrogen telluride

Antimony and Bismuth Tellurides

Antimony telluride

Aryl vinyl tellurides

Arylbenzyl tellurides

Atom telluride

Barium sulfide telluride

Benzoyl-1-naphthyl telluride

Benzylic tellurides

Beryllium telluride

Beryllium telluride BeTe

Bis telluride

Bis tellurides, synthesis

Bis vinylic tellurides

Bis-phenylethynyl telluride

Bismuth telluride

Bismuth telluride, doped with

Bismuth telluride, doped with Selenium sulfide

Bismuth telluride, undoped

Bisvinylic tellurides

Butyl phenylethynyl telluride

Butyl vinyl telluride

Butyl-2-ethynylphenyl telluride

By addition of halogens to diorganyl tellurides

Cadmium Telluride (CdTe)

Cadmium selenide telluride

Cadmium selenide telluride (CdSe

Cadmium selenide telluride, on molybdenum

Cadmium telluride

Cadmium telluride , thin-film

Cadmium telluride detectors

Cadmium telluride energy bands

Cadmium telluride films

Cadmium telluride nanocrystals

Cadmium telluride nanoparticles

Cadmium telluride particles

Cadmium telluride properties

Cadmium telluride semiconductor detector

Cadmium telluride systems

Cadmium telluride, electrical

Cadmium zinc telluride

Carbohydrate anisyl tellurides

Carbon Oxide Telluride

Carbon Selenide Telluride

Carbon Sulfide Telluride

Carbonyl telluride

Cesium tellurides

Chalcogenide Tellurides

Chalcogens tellurides

Clusters telluride

Copper indium telluride films

Copper telluride

Copper telluride clusters

Copper-telluride-tellurolate clusters

Crystalline Tellurides

Cyclic tellurides

Cycloheptyl phenyl telluride

Debromination reactions with telluride

Detector cadmium zinc telluride

Detectors, infrared telluride

Di telluride

Di-n-butyl telluride

Di-p-anisyl telluride

Dialkyl tellurides

Diaryl tellurides

Diaryls diaryl tellurides

Dibutyl telluride

Diisobutyl telluride

Dimethyl telluride

Diorganotin Sulfides, Selenides and Tellurides

Diorganyl tellurides

Diphenyl telluride

Disodium telluride

Distyryl telluride

Disubstituted vinylic tellurides

Divinyl tellurides

Divinylic tellurides

Dopants telluride

Erbium telluride

Ethynyl tellurides

Ethynylchloromethyl tellurides

Expanding the Methodology Tellurides

F Hydrogen telluride

Ferrous telluride

Flahaut, Sulfides, selenides and tellurides

From Alkali Metall Tellurides

From Aluminum Telluride

From Disodium Selenide Telluride

From Disodium Tellurides

From Hydrogen Tellurides

From Lithium or Sodium Tellurides

From Metal Tellurides

From Sodium Telluride and Acyl Chlorides

From Sodium Telluride and Aroyl Chlorides

From alkali metal tellurides

From alkali tellurides and alkylating agents

From bis(triphenylstannyl) telluride and alkylating reagents

From sodium telluride

From sodium telluride and non-activated aryl halides

From sodium telluride and two different alkyl halides

Germanium bismuth tellurides

Germanium tellurides

Gold halide tellurides

Gold telluride

H2Te HYDROGEN TELLURIDE

Hafnium potassium telluride

Hydrogen bromide telluride

Hydrogen telluride

Hydrogen telluride aromatic compounds

Hydrogen telluride metal complexes

Hydrogen telluride reductions

Hydroxy tellurides

Hydroxyvinyl phenyl tellurides

Indium telluride

Iron complexes carbonyl tellurides

Lanthanum telluride

Lead telluride

Lead telluride materials

Lead telluride structure

Lithium telluride

Lutetium telluride

Magnesium telluride

Magnesium telluride MgTe

Magnesium telluride, structure

Manganese telluride

Mercury cadmium telluride (MCT

Mercury cadmium telluride pyroelectric

Mercury telluride

Mercury telluride properties

Mercury-cadmium-telluride

Mercury-cadmium-telluride detector

Metal Selenides and Tellurides

Metal Substituted Organogermanium Sulfides, Selenides and Tellurides

Metal Substituted Organolead Sulfides, Selenides and Tellurides

Metal tellurides

Metal tellurides bonding

Metal tellurides synthesis

Methoxycarbonylation of organic tellurides

Methyl anisyl telluride

Methyl phenyl telluride

Methyl phenylethynyl telluride

Methyl propyl telluride

Methylvinyl telluride

Molybdenum telluride

Nickel complexes tellurides

Nickel telluride

OLUME 4 NON-METALLIC COMPOUNDS - II Flahaut, Sulfides, selenides and tellurides

Of tellurides

Organo tellurides

Organogermanium Sulfides, Selenides and Tellurides

Organotin Sulfides, Selenides and Tellurides

Organyl tellurides as exchangers of carbon radicals

Osmium telluride

Oxidation of diaryl tellurides

Oxides tellurides

Oxides, Sulphides, and Tellurides

Pd(II)-catalysed cross-coupling of vinylic tellurides with alkenes

Pd(II)-catalysed homocoupling of vinyl tellurides

Phenyl cyclohexyl telluride

Phenyl dodecyl telluride

Phenyl telluride

Phenylvinyl tellurides

Phosphane Telluride

Phosphate Tellurides

Photovoltaics cadmium telluride

Platinum telluride

Potassium telluride

Potassium zirconium telluride

Propargyl telluride

Radicophilicity of tellurides

Reactions with Hydrogen tellurides

Reactions with metal tellurides

Reactions with tellurides

Reactivity and synthetic applications of vinylic tellurides

Reduction of acetylenic tellurides

Reductive detelluration of tellurides by triphenyltin hydride

Scandium telluride

Selenide Telluride Layers on Molybdenum

Selenides and tellurides

Selenides, tellurides and polonides

Sensitizers tellurides

Silicon telluride

Silver telluride

Silyl tellurides

Sodium acetate telluride

Sodium hydrogen telluride (NaHTe)

Sodium hydrogen telluride reduction

Sodium hydrogen telluride,

Sodium telluride

Sodium telluride synthesis

Solar cells cadmium telluride-based

Solar cells cadmium-telluride

Strontium telluride

Styryl tellurides

Subject tellurides

Sulfate tellurides

Sulfide Telluride

Sulfides, selenides, tellurides, and

Sulphides, Selenides, and Tellurides

Symmetrical dialkyl tellurides

Symmetrical divinyl tellurides

Symmetrical divinylic tellurides

Telluride MgTe

Telluride anion

Telluride crystal structure

Telluride dihalides

Telluride dihalides diaryls

Telluride dihalides halides

Telluride dihalides tellurides

Telluride ion

Telluride, Colorado

Telluride, aluminum

Telluride, aluminum hydrogen

Telluride, aluminum indium

Telluride, aluminum potassium

Telluride, aluminum sodium

Telluride, dialkyl reductions

Telluride, iron complex

Telluride-assisted sulphenylation and sulphonylation reactions

Telluride-ion-promoted coupling of allylic halides

Telluride-mediated aldehyde methylenation

Telluride-mediated polymerization

Telluride-tellurolato-bridged silver

Telluride-tellurolato-bridged silver clusters

Tellurides addition to alkynes

Tellurides alcohols

Tellurides and Ditellurides

Tellurides aromatic

Tellurides by reduction

Tellurides densities

Tellurides halides

Tellurides nitro compounds

Tellurides nonmetals

Tellurides oxidation

Tellurides physical properties

Tellurides preparation

Tellurides reductions

Tellurides routes

Tellurides selenites

Tellurides special

Tellurides startg

Tellurides synthesis

Tellurides telluride dihalide

Tellurides tellurium-lithium exchange

Tellurides thermodynamic properties

Tellurides to telluroxides

Tellurides water

Tellurides, alkenyl coupling reactions

Tellurides, alkenyl with sp3 organometallics

Tellurides, aryl phenyl

Tellurides, aryl phenyl synthesis

Tellurides, aryl phenyl via SrnI reaction

Tellurides, carbonylation

Tellurides, dialkynyl

Tellurides, diaryl symmetrical

Tellurides, diaryl synthesis

Tellurides, diphenyl synthesis

Tellurides, diphenyl via SrnI reaction

Tellurides, formation

Tellurides, from alkyl halides

Tellurides, heterocyclic

Tellurides, liquid

Tellurides, of gold

Tellurium alkali metal tellurides

Tellurium tellurides

Tellurium—lithium exchange vinylic tellurides

Tetrasubstituted vinylic tellurides

The Alkaline-Earth Oxides, Sulfides, Selenides, and Tellurides

The behaviour of vinylic tellurides towards several reagents and reaction conditions used in organic synthesis

Thin-film solar cells cadmium telluride-based

Tin telluride

Trimethylsilyl phenyl telluride

Trimethylsilylphenyl telluride

Triorganotin Sulfides, Selenides and Tellurides

Triphenylphosphine telluride

Trisubstituted vinyl tellurides

Unsymmetrical diorganyl tellurides

Unsymmetrical tellurides

Uranium telluride

Vinyl tellurides

Vinylic tellurides

Vinylic tellurides preparation

Water-soluble diorganyl tellurides

With hydrogen telluride

With sodium telluride in l-methyl-2-pyrrolidinone

Yttrium telluride

Zinc Telluride (ZnTe)

Zinc telluride

Zinc telluride films

Zinc telluride properties

Zirconium telluride compounds

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