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Carbon monoxide, hydrogenation

Margottin-Maclou M, Doyennette L and Henry L 1971 Relaxation of vibrational energy in carbon monoxide, hydrogen chloride, carbon dioxide and nitrous oxide App/. Opt. 10 1768-80... [Pg.3015]

Hydroformylation (Section 17 5) An industrial process for prepanng aldehydes (RCH2CH2CH=0) by the reaction of terminal alkenes (RCH=CH2) with carbon monoxide Hydrogenation (Section 6 1) Addition of H2 to a multiple bond... [Pg.1286]

Chlorine dioxide Ammonia, carbon monoxide, hydrogen, hydrogen sulflde, methane, mercury, nonmetals, phosphine, phosphorus pentachloride... [Pg.1207]

The direct, one-step production of DMF from carbon monoxide, hydrogen, and ammonia has also been reported. A mthenium carbonyl catalyst is used, either ia a polar organic solvent (20) or ia a phosphonium molten salt medium (21). [Pg.513]

The first gas producer making low heat-value gas was built in 1832. (The product was a combustible carbon monoxide—hydrogen mixture containing ca 50 vol % nitrogen). The open-hearth or Siemens-Martin process, built in 1861 for pig iron refining, increased low heat-value gas use (see Iron). The use of producer gas as a fuel for heating furnaces continued to increase until the turn of the century when natural gas began to supplant manufactured fuel gas (see Furnaces, fuel-fired). [Pg.63]

Medium Heat- Value Gas. Medium heat-value (medium Btu) gas (6,7) has a heating value between 9 and 26 MJ/m (250 and 700 Btu/fT). At the lower end of this range, the gas is produced like low heat-value gas, with the notable exception that an air separation plant is added and relatively pure oxygen (qv) is used instead of air to partially oxidize the coal. This eliminates the potential for nitrogen in the product and increases the heating value of the product to 10.6 MJ /m (285 Btu/fT). Medium heat-value gas consists of a mixture of methane, carbon monoxide, hydrogen, and various other gases and is suitable as a fuel for industrial consumers. [Pg.63]

Hydroformylation. Probably the best known catalytic carbonylation reaction is the hydroformylation, or 0x0 reaction, for producing aldehydes and alcohols from carbon monoxide, hydrogen, and olefins (eq. 9) (36). [Pg.51]

Garbonylation of Olefins. The carbonylation of olefins is a process of immense industrial importance. The process includes hydroformylation and hydrosdylation of an olefin. The hydroformylation reaction, or oxo process (qv), leads to the formation of aldehydes (qv) from olefins, carbon monoxide, hydrogen, and a transition-metal carbonyl. The hydro sdylation reaction involves addition of a sdane to an olefin (126,127). One of the most important processes in the carbonylation of olefins uses Co2(CO)g or its derivatives with phosphoms ligands as a catalyst. Propionaldehyde (128) and butyraldehyde (qv) (129) are synthesized industrially according to the following equation ... [Pg.69]

Partial oxidation as carried out in gasification produces carbon monoxide, hydrogen gas, carbon dioxide, and water vapor. The carbon dioxide reacts with hot carbon from the coal to produce carbon monoxide, and steam reacts with the carbon to produce carbon monoxide and hydrogen. The hydrogen can react with carbon through direct hydrogen gasification ... [Pg.224]

Miscellaneous Reactions. Ethylene oxide is considered an environmental pollutant. A study has determined the half-life of ethylene oxide ia the atmosphere (82,83). Autodecomposition of ethylene oxide vapor occurs at - 500° C at 101.3 kPa (1 atm) to give methane, carbon monoxide, hydrogen, and ethane (84—86). [Pg.454]

Hydrogen, carbon monoxide, hydrogen sulfide, sulfur dioxide, methane, acetylene... [Pg.500]

The modern natural-gas industry has its origins in the nineteenth centuiy as urban gas works that distributed synthesis gas (a mixture of carbon monoxide, hydrogen and carbon dioxide made by the incomplete combustion of coal, oil, or organic wastes in the presence of steam). Gas works illuminated London streets even before 1800, and subsequently... [Pg.820]

As a chemical compound, methane is not very reactive. It does not react with acids or bases under normal conditions. It reacts, however, with a limited number of reagents such as oxygen and chlorine under specific conditions. For example, it is partially oxidized with a limited amount of oxygen to a carbon monoxide-hydrogen mixture at high temperatures in presence of a catalyst. The mixture (synthesis gas) is an important building block for many chemicals. (Chapter 5). [Pg.30]

Mesitaldehyde may be prepared from mesitylmagnesium bromide by the reaction with orthoformate esters3 or ethoxy-methyleneaniline 3 from acetylmesitylene by oxidation with potassium permanganate,4 from mesitoyl chloride by reduction,5 from mesityllithium by the reaction with iron pentacarbonyl and from mesitylene by treatment with formyl fluoride and boron trifluoride,7 by treatment with carbon monoxide, hydrogen chloride, and aluminum chloride,8 or by various applications of the Gatterman synthesis.9-11... [Pg.2]

D.A. Wesner, F.P. Coenen and H.P. Bonzel, Influence of potassium on carbon monoxide hydrogenation over iron A surface analytical study, Langmuir 1, 478-487 (1985). [Pg.89]

Synthesis gas is a mixture of carbon monoxide, hydrogen, methane, and some noncombustible gases. A certain... [Pg.381]

Frequency Response Chemisorption Studies of Carbon Monoxide Hydrogenation Catalysts... [Pg.67]

Most low-valence metal complexes are generally deactivated by air and sometimes also by water. Carbon monoxide, hydrogen cyanide, and PH3 frequently act as poisons for these catalysts. Poisoning by strongly co-ordinating molecules occurs by formation of catalytically inert complexes. An example is the poisoning of Wilkinson s catalyst for alkene hydrogenation ... [Pg.114]

The same goes for carbon monoxide or carbon monoxide/hydrogen (synthesised gas) mixtures. [Pg.170]


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CH2OS Carbon monoxide-hydrogen sulfide

Carbon monoxide and hydrogen sulphide

Carbon monoxide by hydrogen

Carbon monoxide complex with hydrogen fluoride

Carbon monoxide hydrogen and

Carbon monoxide hydrogen atmosphere

Carbon monoxide hydrogen production

Carbon monoxide hydrogen, competition between

Carbon monoxide hydrogenation catalysis

Carbon monoxide hydrogenation catalysts

Carbon monoxide hydrogenation cobalt catalysts

Carbon monoxide hydrogenation insensitivity

Carbon monoxide hydrogenation reduction temperature

Carbon monoxide hydrogenation, effect

Carbon monoxide ligands hydrogen bonds

Carbon monoxide olefin hydrogenation effect

Carbon monoxide with hydrogen-bonding acceptors

Carbon monoxide, and hydrogenation

Carbon monoxide-hydrogen catalytic

Carbon monoxide-hydrogen catalytic conversion

Carbon monoxide/hydrogen

Carbon monoxide/hydrogen

Catalytic conversion of carbon monoxide and hydrogen

Coadsorption of Hydrogen and Carbon Monoxide

Dienes, catalytic hydrogenation carbon monoxide

Electrochemistry of carbon monoxide and hydrogen

Elementary reactions in the hydrogen—carbon monoxide—oxygen system

Fischer-Tropsch synthesis carbon monoxide-hydrogen distribution

For hydrogenation of carbon monoxide

High-temperature reduction , effects carbon monoxide hydrogenation

Historic Developments in Heterogeneous Carbon Monoxide Hydrogenation

Hydrogen Bonds to Carbon Monoxide Ligands

Hydrogen activating carbon monoxide

Hydrogen and Carbon Monoxide Synthesis Gases

Hydrogen carbon monoxide reduction

Hydrogen carbon monoxide, competition

Hydrogen flux, carbon monoxide

Hydrogen permeation carbon monoxide

Hydrogen production carbon monoxide shift

Hydrogen purification carbon monoxide removal

Hydrogen reactions with carbon monoxide

Hydrogen sulfide carbon monoxide

Hydrogen to Carbon Monoxide Ratio

Hydrogen, Nitrogen, Oxygen, Carbon Monoxide

Hydrogen-carbon monoxide ratio

Hydrogen-carbon monoxide ratio liquid reaction products

Hydrogen-carbon monoxide ratio, effect

Hydrogenation carbon monoxide-hydrogen atmosphere

Hydrogenation monoxide

Hydrogenation of carbon monoxide

In Hydrocarbon Synthesis from Carbon Monoxide and Hydrogen Kugler

Lanthanum rhodate catalysts, carbon monoxide hydrogenation

Methanation carbon monoxide-hydrogen atmosphere

Methane from carbon monoxide and hydrogen

Model catalysts carbon monoxide hydrogenation

Monoxide-Hydrogen

Nickel catalysts carbon monoxide hydrogenation

Reduction of NO, with Propene, Carbon Monoxide or Hydrogen

Selective oxidation of carbon monoxide in hydrogen

Separation of Hydrogen and Carbon Monoxide

Syngas, Hydrogen, and Carbon Monoxide Separation

TUngsten catalysts carbon monoxide hydrogenation

The Selective Oxidation of Carbon Monoxide in Hydrogen

Thermodynamics carbon monoxide hydrogenation

Titania-supported catalysts carbon monoxide hydrogenation

Titanium carbon monoxide hydrogenation

Tungsten carbon monoxide hydrogenation

Turnover frequencies carbon monoxide hydrogenation

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