597 results about "Co-processing" patented technology

A system for interfacing with a co-processor or input/output device is disclosed. According to one embodiment, the system includes a computer processing unit, a memory module, a memory bus that connects the computer processing unit and the memory module, and a co-processing unit or input/output device, wherein the memory bus also connects the co-processing unit or input/output device to the computer processing unit.

Embodiments are directed towards a system on chip (SoC) that implements a deep convolutional network heterogeneous architecture. The SoC includes a system bus, a plurality of addressable memory arrays coupled to the system bus, at least one applications processor core coupled to the system bus, and a configurable accelerator framework coupled to the system bus. The configurable accelerator framework is an image and deep convolutional neural network (DCNN) co-processing system. The SoC also includes a plurality of digital signal processors (DSPs) coupled to the system bus, wherein the plurality of DSPs coordinate functionality with the configurable accelerator framework to execute the DCNN.

Various embodiments of the present invention circuits and methods for improved virus processing. As one example, such methods may include providing a system memory, a general purpose processor and a virus co processor. The methods further include receiving a data segment at the general purpose processor, and storing the data segment to the system memory using virtual addresses. The date segment is accessed from the system memory by the virus co processor using the virtual addresses. The virus co processor then scans the date segment for viruses and returns results.

The foregoing describes methods and systems for co-processing vegetable oil and petroleum diesel to yield a hybrid diesel biofuel composition. As previously stated, in some embodiments the present invention is directed to methods/systems by/with which a mixture of vegetable oil and petroleum diesel is co-processed in two stages: the mixture is first hydrotreated to yield a reduced-sulfur hybrid intermediate, and then the hybrid intermediate is processed in an isomerization unit to yield a low cloud point hybrid diesel product that is partially derived from biomass. A notable benefit of at least some such methods/systems is that interstage removal of H₂S and NH₃ is not required between the stages of hydrotreating and isomerizing, wherein such benefit is afforded by sulfur- and nitrogen-tolerant isomerization catalysts.

The invention belongs to the technical field of waste gas treatment, and particularly relates to a glass melter flue gas dust removal, desulfurization and denitrification synergetic treatment system, a treatment method and an application. The system comprises an inlet flue, a first flue gas heat exchanger, a desulfurizing tower, a dust remover, an SCR reactor, a second flue gas heat exchanger and an ammonia supply device. The ammonia supply device comprises an ammonium hydroxide storage tank, an ammonia gas evaporator, a mixer and an ammonia spraying grid, all of which are sequentially connected. Compared with an existing glass melter flue gas treatment system, the technical scheme of carrying out desulfuration, dust removal and desulfuration in sequence is adopted, the poisoning effect and blocking of harmful substances in glass melter flue gas on an SCR catalyst are avoided, and the application condition of the SCR low-temperature catalyst can be met. In addition, the SCR low-temperature catalyst is adopted, heat of original flue gas is utilized through two times of heat exchange, the whole system does not need an additional heat source, and operating cost is reduced.

Biofuel compositions obtained by the simultaneous hydroprocessing of at least two distinct hydroprocessing feedstocks, either or both of which are derived from biomass, are disclosed. The co-processing of these feedstocks can result in an upgraded product having suitable characteristics, in terms of composition (e.g., quantities of compounds such as aromatic hydrocarbons, present in relatively large amounts) and in terms of quality (e.g., quantities of compounds such as oxygenates, present in relatively small amounts) for use as a hydroprocessed biofuel such as hydroprocessed aviation biofuel.

Processes are provided for producing a diesel fuel product having a sulfur content of 10 ppm by weight or less from feed sources that include up to 50% by weight of a biocomponent feedstock. The biocomponent feedstock is co-processed with a heavy oil feed in a severe hydrotreating stage. The product from the severe hydrotreatment stage is fractionated to separate out a diesel boiling range fraction, which is then separately hydrotreated.

Preparing solid biomass particles for catalytic conversion includes agitating solid biomass particles and providing a biomass-catalyst mixture to a conventional petroleum refinery process unit. The biomass-catalyst mixture includes the solid biomass particles and a catalyst. Agitating solid biomass particles includes flowing a gas to provide a velocity to at least a portion of the solid biomass particles sufficient to reduce their sizes. Co-processing a biomass feedstock and a conventional petroleum feedstock includes liquefying at least a portion of a biomass-catalyst mixture and co-processing at least a portion of the liquefied biomass feedstock and a conventional petroleum feedstock in a conventional petroleum refinery process unit. The biomass feedstock includes a plurality of solid biomass particles and a catalyst, which is liquefied to produce a liquefied biomass feedstock.

The invention discloses a kitchen waste collaborative processing method mainly comprising the steps of pretreatment, regulation pulping, anaerobic fermentation, biogas utilization and biogas residue processing. With the kitchen waste collaborative processing method provided by the invention, favorable conditions in a waste incineration power plant are sufficiently utilized. Waste incineration power plant waste hot steam is adopted as a heat source for high-temperature fermentation, such that energy consumption and processing cost are reduced. Sundries produced in the pretreatment step and biogas residue produced in the biogas residue processing step are subjected to an incineration treatment in the waste incineration power plant, such that waste is effectively utilized, and investment cost is reduced. In addition, through purification, biogas is prepared into CNG vehicle fuel which is provided for waste incineration power plant collection and transportation vehicles, such that biogas resource utilization efficiency is improved, circulation links are reduced, and fossil energy utilization is reduced. The kitchen waste collaborative processing method provided by the invention is energy-saving and environment-friendly. The method has high resource utilization rate, low energy consumption, and low processing cost.

A method comprising molding a first component from a first feedstock comprising a first material powder and a first binder, molding a second component from a second feedstock comprising a second material powder and a second binder, placing the first component and the second component in physical communication with each other in order to form an assembled component, removing the first binder and the second binder from the assembled component and performing a sintering operation on the assembled component so as to bond the first component and the second component together.

A fully programmable graphics processing engine is provided. The graphics processing engine includes three independent, programmable processors that run independent sets of instructions from independent instruction storage facilities. Graphics processing tasks may be distributed among the serially pipelined processors to allow for load balancing and parallel processing. The graphics processing engine may be a graphics co-processing core within a larger, general purpose computing system. Register files and storage units may be addressable by the system host processor. Each processor accepts incoming data for state or context updates. Each processor may execute a specific graphics processing function by executing a set of instructions when a predetermined memory address is accessed.

A preparation method of aromatic hydrocarbons and low-carbon olefins through co-processing animal and plant oil and an oxygenated chemical is characterized by: introducing raw materials such as the plant oil and the oxygenated chemical into a catalytic cracking reactor; carrying out a catalytic conversion reaction through contacting with a catalytic cracking catalyst in the reactor with an operating temperature of 500 to 670 DEG C, an operating pressure of 0.1 to 5.0 MPa, a weight hourly space velocity of 0.1 to 100 h<-1> and an agent-oil ratio of 1 to 50; separating a reaction oil gas from the spent catalyst when the reaction is finished; recycling the separated spent catalyst after stripping, burning and regenerating; obtaining fractions such as a liquefied gas, gasoline and the like through fractionating the reaction oil gas and obtaining the low-carbon olefins through a manner that the liquefied gas enters a gas separating system; and obtaining the aromatic hydrocarbon product through carrying out a further aromatic extraction on the gasoline fraction. The method provided by the present invention allows the reaction temperature to be controlled through co-processing the plant oil and the oxygenated chemical, the selectivity of the target product gasoline to be improved, and energy consumption to be reduced. In terms of a reaction apparatus, equipment flow is simplified because heat exchangers which are arranged for removing reaction heat can be reduced.

The graphics co-processing technique includes receiving display operation for execution by a graphics processing unit on an unattached adapter. The display operation is split into an encrypt content by the graphics processing unit on the unattached adapter, a copy from a frame buffer of the graphics processing unit on the unattached adapter to a buffer in system memory, a copy from the buffer in system memory to a frame buffer of graphics processing unit on a primary adapter, a decrypt the encrypted content in the frame buffer of the graphics processing unit on the primary adapter, and a present from the frame buffer of the graphics processing unit on the primary adapter to a display. Execution of the copy from the frame buffer of the graphics processing unit on the unattached adapter to the buffer in system memory and the copy from the buffer in system memory to the frame buffer of the graphics processing unit on the primary adapter are synchronized.

The invention discloses a method for extracting aluminum oxides from aluminum-containing waste residues. The method comprises the following steps: mixing coal gangue and/or coal ash with a certain amount of red mud and Na2CO3, sintering to obtain sintered clinker with high reaction activity, performing acid leaching by a hydrochloric acid solution to form an aluminum salt solution, adding concentrated hydrochloric acid with the mass concentration of 30-37% to prepare aluminum chloride crystals, dissolving the aluminum chloride crystals, separating out aluminum hydroxide by ammonia precipitation, calcining at the temperature of 400-1300 DEG C to obtain aluminum oxides with different crystal forms. The method is simple in process, the prepared aluminum oxides are low in iron content and high in purity, and the method is a good method for co-processing the red mud and the coal gangue and/or the coal ash.

A kitchen waste and household garbage incineration power generation cooperative treatment technology comprises the following specific steps that 1, kitchen waste is collected; 2, the collected kitchen waste is subjected to exotic matter sorting, and sorted combustible materials are conveyed to a household garbage incineration power plant to be combusted for power generation; 3, materials obtained after exotic matter sorting are crushed; 4, the crushed materials are homogenized; 5, the homogenized materials are subjected to water removal treatment, and liquid materials obtained after water removal treatment are stored temporally; and 6, the liquid materials are subjected to oil-water primary separation treatment, water obtained after oil-water primary separation treatment is collected into an anaerobic fermentation tank, and biogas residues, biogas slurry and biogas are generated after anaerobic fermentation and are separated. The technology is advanced, the cooperative treatment advantages of the household garbage incineration power plant and kitchen waste fermentation are fully and reasonably utilized, and harmless, reducing and recycling garbage treatment is achieved.