C10L10/18

Systems and Methods For Manufacturing Emulsified Fuel
20170306256 · 2017-10-26 ·

Methods and systems for manufacturing emulsified fuel include: adding surfactant to fuel; blending the surfactant and fuel together in a first mixing chamber for a first mixing period; subjecting the blended surfactant and fuel mixture to a dwell period following the first mixing period; introducing water into the blended surfactant and fuel mixture following the dwell period; and blending the surfactant, fuel and water together in a second mixing chamber for a second mixing period. The surfactant is selected to exhibit an HLB rating in the range of 8.75 to 8.83.

Systems and Methods For Manufacturing Emulsified Fuel
20170306256 · 2017-10-26 ·

Methods and systems for manufacturing emulsified fuel include: adding surfactant to fuel; blending the surfactant and fuel together in a first mixing chamber for a first mixing period; subjecting the blended surfactant and fuel mixture to a dwell period following the first mixing period; introducing water into the blended surfactant and fuel mixture following the dwell period; and blending the surfactant, fuel and water together in a second mixing chamber for a second mixing period. The surfactant is selected to exhibit an HLB rating in the range of 8.75 to 8.83.

Mixtures of triglycerides and of alkylesters from vegetable oil and applications

A mixture of alkylesters of fatty acids is provided, wherein the fatty acids have the following composition: at least 56% of saturated C12 chains, at least 23% of saturated C14 chains, at most 8% of saturated C16 chains, at most 5% of saturated C6-10 chains, at most 5% of monounsaturated C18 chains, at most 2% of saturated C18 chains, at most 0.8% of diunsaturated C18 chains, and at most 0.2% of saturated C20 chains. The percentages are an average percentage expressed in number of moles per total number of moles of alkylesters, and the use of these mixtures is as a viscosity agent.

Mixtures of triglycerides and of alkylesters from vegetable oil and applications

A mixture of alkylesters of fatty acids is provided, wherein the fatty acids have the following composition: at least 56% of saturated C12 chains, at least 23% of saturated C14 chains, at most 8% of saturated C16 chains, at most 5% of saturated C6-10 chains, at most 5% of monounsaturated C18 chains, at most 2% of saturated C18 chains, at most 0.8% of diunsaturated C18 chains, and at most 0.2% of saturated C20 chains. The percentages are an average percentage expressed in number of moles per total number of moles of alkylesters, and the use of these mixtures is as a viscosity agent.

Mannich detergents for hydrocarbon fuels

New, highly effective substantially pure Mannich detergents for use in hydrocarbon fuels reduce engine deposits in spark and compression ignition internal combustion engines. The Mannich condensation reaction products are obtainable by reacting: (i) a polyamine having primary amino groups, (ii) a hydrocarbyl-substituted hydroxyaromatic compound, and (iii) an aldehyde, wherein the reaction is conducted at in a molar ratio of (i):(ii):(iii) of approximately 1:2:3. The Mannich detergent compounds may be dispersed in a liquid carrier to provide a fuel additive concentrate for hydrocarbon engine fuels which effectively control engine deposit formation in intake valves, port fuel injectors and combustion chambers.

Mannich detergents for hydrocarbon fuels

New, highly effective substantially pure Mannich detergents for use in hydrocarbon fuels reduce engine deposits in spark and compression ignition internal combustion engines. The Mannich condensation reaction products are obtainable by reacting: (i) a polyamine having primary amino groups, (ii) a hydrocarbyl-substituted hydroxyaromatic compound, and (iii) an aldehyde, wherein the reaction is conducted at in a molar ratio of (i):(ii):(iii) of approximately 1:2:3. The Mannich detergent compounds may be dispersed in a liquid carrier to provide a fuel additive concentrate for hydrocarbon engine fuels which effectively control engine deposit formation in intake valves, port fuel injectors and combustion chambers.

Method for Preparing Dispersant using Lignin Degradation Products
20220048001 · 2022-02-17 ·

A method for preparing dispersant using lignin degradation products includes preparation of lignin degradation products: degrading lignin which are used as raw materials using alkali through microwave-assisted activation at the presence of a metal oxide catalyst to obtain the lignin degradation products; and preparation of dispersant: preparing dispersant by molecularly reforming and chemically modifying the lignin degradation products obtained in the step of preparation of lignin degradation products.

COMPOSITION OF ADDITIVES AND HIGH-PERFORMANCE FUEL COMPRISING SUCH A COMPOSITION

A composition of fuel additives includes at least a first additive having a partial ester derivative of polyols and a second additive having a quaternary ammonium salt. The first additive includes at least 50% by mass of a compound A selected from the partial esters of polyols and saturated or unsaturated, linear or branched, cyclic or acyclic C.sub.4 to C.sub.36 monocarboxylic aliphatic hydrocarbarbons, the partial esters being able to be used alone or in a mixture. The disclosure also relates to a diesel fuel including such a composition and the use of the fuel for limiting the deposits in a diesel engine. In particular, the disclosure relates to the use of the fuel containing the composition of additives of the present disclosure in direct-injection diesel engines.

New Additive Packages for Gasoline Fuels

Novel compounds can be used as additive packages for improving the cleanliness of direct injection spark ignition (DISI) engines.

New Additive Packages for Gasoline Fuels

Novel compounds can be used as additive packages for improving the cleanliness of direct injection spark ignition (DISI) engines.