Abstract:
Apparatus and methods are provided for converting methane in a feed stream to acetylene. A hydrocarbon stream is introduced into a supersonic reactor and pyrolyzed to convert at least a portion of the methane to acetylene. The reactor effluent stream may be treated to convert acetylene to another hydrocarbon process.
Abstract:
The invention concerns a process for the continuous treatment of an emulsion and/or a micro-emulsion assisted by an “expanded liquid” for the production of micro- and/or nano-particles or micro- and/or nano-spheres containing one or more active ingredients. In particular, a liquid solvent expanded by compressed or supercritical CO2 is contacted with an O/W emulsion, or alternatively a W/O emulsion or multiple emulsions, formed by an external phase that is itself a liquid expanded by compressed CO2. The expanded liquid forms a solution with the dispersed phase of the emulsion and extracts it inducing the formation of the desired particles of the dissolved compounds.The process is carried out in a counter-current packed column wherein the expanded emulsion is fed from the top, while the expanded liquid is fed from the bottom. Thanks to the presence of the expanded liquid, any deposition of the solid particles produced on the packing elements is avoided, thus preventing any column blockage. A suspension of micro-structured particles of the desired product can be collected continuously at the bottom of the column.
Abstract:
A process for treating organic matter to convert it into a product comprises the step of contacting the organic matter with supercritical liquid whereby it reacts to form the product. The liquid may be heated by an external heating medium, or may be heated internally of the process by co-feeding an oxidising agent with the liquid. This agent can be in an amount that is predetermined to control the extent to which the reaction mixture is heated. The heat can be supplied to provide sufficient activation energy for the process reaction to occur with sufficient speed and for the liquid to attain sufficient characteristics to cause the reaction.
Abstract:
The present invention provides assembly for use with a cartridge for the generation of hydrogen and a method for bonding metals with the cartridge. The cartridge includes a case, an igniter, and a structural component. The case defines an interior cavity and the igniter is positioned within the cavity. The structural component is also positioned within the cavity and is formed of a particulate embedded in a matrix and the particulate includes a metallic material. An oxidizing agent is positioned within the cavity. The structural component is configured such that the metallic material and the oxidizing agent react together to generate hydrogen after the igniter generates sufficient heat to remove the matrix from the structural component and to initiate the reaction between the metallic material and the oxidizing agent. The cartridge is positioned within the assembly relative to a metal flyer such that when the cartridge is discharged, the flyer is bonded to a metal anvil.
Abstract:
The invention relates to a device for producing starting materials, combustible substances and fuels from organic substances. Said claimed device comprises a reactor (10) that comprises an introduction device (11) for the organic substances, an evacuation device (12) for the reaction products and a device (13) for feeding reaction energy for the transformation of organic substances into reaction products. The invention is characterized in that the introduction device (11) comprises pneumatic means (24) for the supply of solid material.
Abstract:
Overhung axial compressor, chemical reactor and method for compressing a fluid. The overhung axial compressor includes a casing configured to be vertically split along a vertical axis for access to an inside of the casing and a removable cartridge. The removable cartridge is configured to fit inside the casing and to be detachably attached to the casing. The removable cartridge includes a shaft disposed along a horizontal axis, the shaft being configured to rotate about the horizontal axis, a bearing system attached to the removable cartridge and configured to rotationally support a first end of the shaft, and plural blades disposed toward a second end of the shaft such that the second end is overhung inside the casing. The compressor also includes a guide vane mechanism configured to connect to the removable cartridge, the guide vane mechanism being configured to adjust a flow of a fluid to the plural blades.
Abstract:
A fluid porting assembly for a microreactor comprising a process fluid passageway, a pliable seal, and a cooling fluid passageway is provided. The pliable seal is positioned in the vicinity of the process fluid outlet and is configured to define a sealing interface between the process fluid outlet and a fluid port of a microreactor. The cooling fluid passageway terminates at a cooling fluid interface and defines a dispensing gap between the cooling fluid interface and the sealing interface. The cooling fluid outlet is configured to distribute cooling fluid about a periphery of the pliable seal and to direct cooling fluid away from the periphery of the pliable seal through the dispensing gap when the pliable seal of the fluid porting assembly engages a fluid port of a microreactor. The cooling fluid removes heat from areas of the microreactor in the vicinity of the fluid port and pliable seal.
Abstract:
A method of continually heat-treating a biogenic material in the production of fuels such as ethanol or biogas includes pressurizing the biogenic material with a first pump so as to provide a pressurized suspension. The pressurized suspension is continuously heat-treated at a heat-treatment temperature of from 100° C. to 180° C. in a hydrolysis reactor so as to provide a heat-treated suspension. A temperature of the heat-treated suspension is lowered to below 100° C. The heat-treated suspension is depressurized with a second pump. The first and second pumps are configured to maintain at least one of the pressurized suspension and the heat-treated suspension at a pressure of above 5 bar.
Abstract:
A hydrogen generator comprising a plurality of a fuel pellets (10) containing a hydrogen-generating compound such as ammonia borane, a case serving as a pressure-resistant container for containing the fuel pellets, and a controller for controlling hydrogen generation from the fuel pellets. This hydrogen generator generates hydrogen from the hydrogen-generating compound by a chemical reaction. The periphery of the fuel pellet is surrounded by a member including a thin plate of metal aluminum such as aluminum foil (18) on its surface.
Abstract:
Systems, devices, and methods combine reactant materials and aqueous solutions to generate hydrogen. The reactant materials can sodium silicide or sodium silica gel. The hydrogen generation devices are used in fuels cells and other industrial applications. One system combines cooling, pumping, water storage, and other devices to sense and control reactions between reactant materials and aqueous solutions to generate hydrogen. Multiple inlets of varied placement geometries deliver aqueous solution to the reaction. The reactant materials and aqueous solution are churned to control the state of the reaction. The aqueous solution can be recycled and returned to the reaction. One system operates over a range of temperatures and pressures and includes a hydrogen separator, a heat removal mechanism, and state of reaction control devices. The systems, devices, and methods of generating hydrogen provide thermally stable solids, near-instant reaction with the aqueous solutions, and a non-toxic liquid by-product.