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II International Symposium on Carbon for Catalysis ABSTRACTS

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PP-<str<strong>on</strong>g>II</str<strong>on</strong>g>-18<br />

APPLICATION OF CARBON MATERIAL SIBUNIT AS THE SUPPORT FOR<br />

COPPER-CONTAINING CATALYSTS OF ACETALDEHYDE SYNTHESIS<br />

Nougmanov E., Egorova E., Ant<strong>on</strong>yuk S.<br />

M.V. Lom<strong>on</strong>osov Moscow State Academy of Fine Chemical Technology, Moscow, Russia<br />

e-mail: nhsigt@mitht.ru<br />

Development and implementati<strong>on</strong> of high effective and stable catalytic systems is the<br />

most important stage of process optimizati<strong>on</strong> in chemical industry. The special attenti<strong>on</strong> is<br />

given to the choice of a support, the material of which should have a number of<br />

characteristics, such as a high surface area, advanced porosity, inertness and stability.<br />

Recently different carb<strong>on</strong> materials have been used more widely in heterogeneous catalytic<br />

processes.<br />

One of more perspective carb<strong>on</strong> materials is carb<strong>on</strong>-carb<strong>on</strong> composite, which is referred<br />

to a new class of carb<strong>on</strong> composites combining in itself advantages of graphite and active<br />

carb<strong>on</strong>s. Another very important advantage of this material is high chemical purity. Fracti<strong>on</strong><br />

of mineral admixtures in sibunit is less than 1%, whereas mineral part of the main gamma of<br />

active carb<strong>on</strong>s is 5% and more. This characteristic of sibunit can brings essential influence <strong>on</strong><br />

selectivity of catalytic systems made <strong>on</strong> its base.<br />

The next way of chemical industry progressing is development of alternative methods of<br />

major organic compounds synthesis, which are characterized by a minimum quantity of<br />

harmful waste and are based <strong>on</strong> renewed sources of raw material. Implementati<strong>on</strong> of such<br />

methods into the industry can af<strong>for</strong>d improvement of ec<strong>on</strong>omical efficiency as well as<br />

ecological safety of these compounds producti<strong>on</strong>. One of such processes in chemical industry<br />

is synthesis of acetaldehyde – the important intermediate of organic synthesis. The main<br />

industrial method of acetaldehyde producti<strong>on</strong> is ethylene oxidati<strong>on</strong> in the presence of aqueous<br />

soluti<strong>on</strong>s of palladium and copper chlorides. This method is ecologically adverse and is based<br />

<strong>on</strong> processing of oil raw material. For this reas<strong>on</strong> the producti<strong>on</strong> of acetaldehyde by ethanol<br />

dehydrogenati<strong>on</strong> is extremely attractive. This process has a number of advantages: absence of<br />

pois<strong>on</strong>ous wastes, soft c<strong>on</strong>diti<strong>on</strong>s of the process and the use of ethanol as the <strong>on</strong>ly raw<br />

material, alternative producti<strong>on</strong> ways of which from biomass have been under active<br />

development recently. However, <strong>for</strong> effective realizati<strong>on</strong> of this process, the development of<br />

new active, selective and stable catalytic systems is needed.<br />

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