Patent classifications
C10L8/00
SYSTEMS AND METHODS FOR SYNTHESIS AND PRODUCTION OF ENERGETIC PARTICLES
A method of synthesis of energetic particles, and associated systems, the method including providing a metal powder, dispersing the metal powder in a first fluid to form a first suspension, contacting the first suspension with an oxide precursor, aqueous ammonium hydroxide and a second fluid, to produce a first product, collecting product solids and inductively heating product solids to produce energetic core-shell particles.
PROCESS FOR MAKING LIGNIN COMPOSITION
The invention relates to a process for making a purified lignin composition comprising a carrier liquid suitable for processing in a refinery. It comprises providing an aqueous lignin composition comprising lignin, cooking chemicals and water and adding a carrier liquid to the aqueous lignin to provide an organic phase. Then all or substantially all the water is removed from the composition. The lignin composition is processed to make the lignin more soluble in the carrier liquid in order to transfer more of the lignin to the organic phase. Cooking chemicals are removed, suitably by of washing by liquid/liquid extraction using a washing liquid. Finally washing liquid is removed.
PROCESS FOR MAKING LIGNIN COMPOSITION
The invention relates to a process for making a purified lignin composition comprising a carrier liquid suitable for processing in a refinery. It comprises providing an aqueous lignin composition comprising lignin, cooking chemicals and water and adding a carrier liquid to the aqueous lignin to provide an organic phase. Then all or substantially all the water is removed from the composition. The lignin composition is processed to make the lignin more soluble in the carrier liquid in order to transfer more of the lignin to the organic phase. Cooking chemicals are removed, suitably by of washing by liquid/liquid extraction using a washing liquid. Finally washing liquid is removed.
GAS-SOLIDS SEPARATION SYSTEM HAVING A PARTITIONED SOLIDS TRANSFER CONDUIT
A solids discharge system (SDS) is configured to separate solids from product gas. The system includes a solids separation device and at least one solids transfer conduit configured to receive solids from the solids separation device. The solids transfer conduit is selectively partitioned into a plurality of compartments (or sections) along its length by isolation valves. A gas supply conduit and a gas discharge conduits are connected to one of the sections to facilitate removal of solids. A filter in fluid communication with that section is configured to prevent solids from passing through the gas discharge conduit so that the solids can be removed from one of the sections of the solids transfer conduit. A product gas generation system incorporates first and second reactors, the latter of which receives products created by the second reactor.
GAS-SOLIDS SEPARATION SYSTEM HAVING A PARTITIONED SOLIDS TRANSFER CONDUIT
A solids discharge system (SDS) is configured to separate solids from product gas. The system includes a solids separation device and at least one solids transfer conduit configured to receive solids from the solids separation device. The solids transfer conduit is selectively partitioned into a plurality of compartments (or sections) along its length by isolation valves. A gas supply conduit and a gas discharge conduits are connected to one of the sections to facilitate removal of solids. A filter in fluid communication with that section is configured to prevent solids from passing through the gas discharge conduit so that the solids can be removed from one of the sections of the solids transfer conduit. A product gas generation system incorporates first and second reactors, the latter of which receives products created by the second reactor.
Method for producing pulverized coal
Method for producing pulverized coal, the method comprising the steps of heating a drying gas, preferably an inert gas, in a hot gas generator (26) to a predefined temperature; feeding the heated drying gas into a pulverizer (20); introducing raw coal into the pulverizer (20), the pulverizer (20) grinding the raw coal to pulverized coal; collecting a mixture of drying gas and pulverized coal from the pulverizer (20) and feeding the mixture to a filter (34), the filter (34) separating the dried pulverized coal from the drying gas; and collecting the dried pulverized coal for further use and feeding part of the drying gas from the filter to a recirculation line (38) for returning at least part of the drying gas to the hot gas generator (26). According to an important aspect of the present invention, the method comprises the further step of controlling an exit temperature of the mixture of drying gas and pulverized coal exiting the pulverizer (20) by controlling a volume of water injected into the heated drying gas before feeding it into the pulverizer (20).
Formulation, preparation and use of a glycerol-based biofuel
The present invention relates to a new biofuel formulation comprising: crude glycerol, glycerol formal, optionally at least one fatty acid glycerol formal ester and optionally at least one fatty acid methyl ester. The present invention also relates to a process for its preparation and its use for burning purposes.
SYSTEM FOR PRODUCTION OF CARBON AND NET HYDROGEN LIQUID FUELS
The present disclosure provides methods for producing carbon and a net hydrogen liquid fuel from a carbon donor substance and a hydrogen donor substance.
SYSTEM FOR PRODUCTION OF CARBON AND NET HYDROGEN LIQUID FUELS
The present disclosure provides methods for producing carbon and a net hydrogen liquid fuel from a carbon donor substance and a hydrogen donor substance.
OXIDATION REACTOR FOR SOLID SOLAR THERMOCHEMICAL FUEL
A thermochemical oxidation reactor operably extracts energy from solid solar thermochemical fuel. In another aspect, an oxidation reactor includes a main reactor chamber and an extraction tube connected to the main reactor chamber to directly draw hot gas therefrom. In still a further aspect, an oxidation zone of a thermochemical oxidation reactor has an internal chamber with a larger cross-sectional area A as compared to internal cross-sectional areas B and C of adjacent recuperation and quenching zones of the reactor.