Process for the Production of Hydrocarbons for Fuels, Solvents, and Other Hydrocarbon Products
a technology for hydrocarbon products and hydrocarbon products, applied in the direction of hydrocarbon oil treatment products, fuels, organic chemistry, etc., to achieve the effects of reducing side reactions, improving anti-knock characteristics, and reducing the number of side reactions
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example 1
A Palladium Metal Catalyst Supported on a Basic Hydrotalcite Oxide Support
[0046]The surface area of the support was approximately 99.5 m2 per gram; the pore volume of the support was approximately 0.3 ml per gram of catalyst. The support was dried overnight at 150° C. The average pore width of the catalyst was approximately 9.5 nm (nanometers); basicity of the catalyst, as determined by titration with 0.1 normal acetic acid, was approximately 0.15 mEq (milliequivalent) acetic acid per gram.
[0047]An aqueous solution of palladium nitrate containing a sufficient amount of palladium metal for 5 wt % of palladium in the final catalyst was prepared. A suspension of the hydrotalcite support in the palladium nitrate solution was prepared. A 0.1 normal aqueous solution of sodium hydroxide, of volume at least equal to the pore volume of the catalyst, was added to that suspension. The palladium compound was reduced to the metallic state by addition of a sufficient amount of sodium borohydride....
example 2
A Palladium Metal Catalyst Supported on a Non-Basic Support Material, i.e., Activated Carbon
[0050]The surface area of the support was approximately 778 m2 per gram; the pore volume of the support was approximately 0.45 ml per gram of catalyst. The support was dried overnight at 150° C. The average pore width of the catalyst was approximately 3.3 nm; basicity of the catalyst, as determined by titration with 0.1 normal acetic acid, was approximately 0.02 mEq acetic acid per gram.
[0051]An aqueous solution of palladium chloride containing a sufficient amount of palladium metal for 5 wt % of palladium in the final catalyst was prepared and deposited on the carbon by incipient deposition. The catalyst was dried in a flow of nitrogen at 200° C. for 5 hours. The dried catalyst was loaded in a downflow, fixed bed reactor and reduced in flowing hydrogen at 250° C., 20 bar pressure for 6 hours. A feedstock consisting of a mixture of oleic acid and normal hexadecane in equal weight proportions ...
example 3
A Palladium Metal Catalyst Supported on a Basic Hydrotalcite Oxide Support; Reaction not Carried out Under Hydrogen Pressure
[0053]Process conditions were the same as for Example 1, except that the reaction was not carried out under hydrogen; the pressure within the reactor remained at 20 bar of nitrogen throughout the reaction. The gaseous product of the reaction was carbon dioxide.
[0054]The hydrocarbon layer contained penta-, hexa-, hepta- and octa decanes. The iodine number of these products was negligible, indicating that the product contained only saturated paraffinic hydrocarbons. The conversion of the oleic acid to hydrocarbon products was 94 wt % at the end of 50 hours. From the ratio of heptadecane to (heptadecane+octadecane), the selectivity for decarboxylation was calculated to be 93%.
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