Zeolites are used as catalysts for a wide range of industrial processes. Due to their microporous structure, the use of zeolites is limited to transformation of light feedstocks. At the same time, light products of oil extraction such as stable gas condensate are burned or returned to the oil reservoir for maintaining reservoir pressure, not being used as a feedstock for the secondary refinery. This work considers the use of the stable gas condensate as a feedstock for the Zeoforming process and the use of the obtained product as one of the blending components of commercial gasoline. After measuring main physicochemical properties and performance characteristics of the stable gas condensate, the Zeoforming process was implemented at a laboratory scale. The use of the stable gas condensate and Zeoforming products as blending components of gasoline was assessed. Applying the software program, recipes for the blending of gasoline were developed. It has been found that the Zeoforming process increases the octane number of the stable gas condensate, allowing for reduction of the gasoline production costs due to replacement of expensive additives.

Modern methods of recycling organic waste are not considered viable today. Therefore, an important advantage of the proposed technology is to obtain mineral fuel products as an output. The technologies of high-temperature processing are based on thermal decomposition of waste without oxygen at high temperature. In pyrolysis, wastes are converted into gaseous, liquid and solid fuels. Thereby, the properties and composition of the liquid feedstock obtained by pyrolysis with a boiling temperature in the range of X.I. (38) - 180 °C, 180 - 320 °C and more than 320 °C were investigated. Residue with a boiling temperature over 320° C (52.4% vol.) is the main portion of the synthetic liquid fuels (SLF). It can be attributed to fuel oil grade 100 and used as boiler fuel or fuel oil additives according to the studied physicochemical parameters

The structure and properties of disperse particles of electroexplosive iron-based powder are studied with a laser diffraction method, transmission electron microscopy analysis and X-ray photography. The catalytic activity of ultradispersed iron powders in the synthesis of hydrocarbons from CO and H 2 by Fischer -Tropsch method is measured by concentration of the paramagnetic particles with electron paramagnetic resonance. In the laboratory of catalytic plant, hydrocarbons are synthesized at various feed mixture. Composition of liquid and gas products of synthesis are studied. Under explosion conditions, the electric wires of iron powders can be prepared with the specified properties (phase composition, particle size and structure). Powder of Fe (CO) can be used as a catalyst of the Fischer -Tropsch synthesis without reduction since during electrical explosion in an atmosphere of carbon monoxide generated phase structure needed to activate hydrocarbon synthesis reaction of a mixture of CO and H 2 .

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Ежегодное увеличение объемов потребления автомобильных топлив вынуждает искать новые пути их получения, немаловажным также