Andere Kunden interessierten sich auch für
![Fischer-Tropsch synthesis over promoted Molybdenum Carbide catalysts]( "Fischer-Tropsch synthesis over promoted Molybdenum Carbide catalysts")
Fischer-Tropsch synthesis over promoted Molybdenum Carbide catalysts76,99 €![In-situ H2O removal via hydorphilic membranes during Fischer-Tropsch and other fuel-related synthesis reactions]( "In-situ H2O removal via hydorphilic membranes during Fischer-Tropsch and other fuel-related synthesis reactions")
In-situ H2O removal via hydorphilic membranes during Fischer-Tropsch and other fuel-related synthesis reactions41,00 €![Multiphase reactor analysis for Fischer-Tropsch reaction]( "Multiphase reactor analysis for Fischer-Tropsch reaction")
Multiphase reactor analysis for Fischer-Tropsch reaction64,99 €![Fundamentals and Design of the Supercritical Fluids Fischer Tropsch]( "Fundamentals and Design of the Supercritical Fluids Fischer Tropsch")
Fundamentals and Design of the Supercritical Fluids Fischer Tropsch31,99 €![Fischer Tropsch Katalizörü Sentezinde Yeni Uygulamalar ve Yakla¿¿mlar]( "Fischer Tropsch Katalizörü Sentezinde Yeni Uygulamalar ve Yakla¿¿mlar")
Fischer Tropsch Katalizörü Sentezinde Yeni Uygulamalar ve Yakla¿¿mlar32,99 €![Study of Mo2C production in rotary and fixed bed reactors]( "Study of Mo2C production in rotary and fixed bed reactors")
Study of Mo2C production in rotary and fixed bed reactors23,99 €![Fischer-Tropsch Refining]( "Fischer-Tropsch Refining")
Fischer-Tropsch Refining200,99 €
Fischer-Tropsch Synthesis (FTS) is the reaction between carbon monoxide and hydrogen to produce gasoline range hydrocarbons. Continuing rise in oil prices and tougher environmental regulations has inspired a resurgent of interests in alternative fuels synthesis technologies. In this book, the suitability of molybdenum and tungsten carbides as FT catalysts has been investigated as a possible cost-effective alternative to noble metals in FTS. The authors introduced a new method for producing high surface area metal carbide catalysts via precipitation from homogeneous solution followed by carburization in a mixture of propane and hydrogen. Catalyst design and optimisation based on statistical strategy was employed to investigate the effect of key carburization variables, namely; time, temperature and gas composition (Hydrogen to Propane ratio) on the physicochemical properties and reaction metrics. Furthermore, the role of support type was examined using four common semiconductor oxides, viz; alumina, silica, titania and zirconia. The solid-state carburization kinetics for the metal carbides synthesis was determined via thermogravimetric analysis.