초록 ▼

The method enables the attainment of an open and continuous flow of an aqueous slurry containing carbonaceous solids into a high-pressure and high temperature environment which will result in the occurrence of at least two chemical processes: (1) aqueous pyrolysis (hydrous pyrolysis) and (2) hydroly

The method enables the attainment of an open and continuous flow of an aqueous slurry containing carbonaceous solids into a high-pressure and high temperature environment which will result in the occurrence of at least two chemical processes: (1) aqueous pyrolysis (hydrous pyrolysis) and (2) hydrolytic disproportionation. This combination of processes will effect conversion of suspended organic materials into hydrocarbon liquids or gases depending on the mix of the temperature, pressure, and residence time in the reactor. Thereafter, the hydrocarbon-bearing slurry can be refined (separated into various constituents) using standard existing technologies.

대표청구항 ▼

What is claimed is: 1. A method to obtain supercritical conditions for a continuous flow aqueous or hydrous pyrolysis reaction comprised of the steps of collecting an aqueous slurry of carbonaceous solids; conveying said carbonaceous solids to a depth within an existing opening in the earth to crea

What is claimed is: 1. A method to obtain supercritical conditions for a continuous flow aqueous or hydrous pyrolysis reaction comprised of the steps of collecting an aqueous slurry of carbonaceous solids; conveying said carbonaceous solids to a depth within an existing opening in the earth to create hydrostatic pressure sufficient to present supercritical conditions from the weight of said slurry; defining a reaction zone in the vicinity of the deepest portion of said earth opening where said supercritical conditions are generated; and providing for a continuous throughput of said slurry, such that after the slurry is conveyed to said reactor zone, and thereafter transported back to the surface location. 2. A method to process an aqueous slurry comprised of the steps of: collection of raw material to be processed as a slurry; adjust the aqueous condition of the slurry as may be required for a desired result; pumping the slurry down a deep well into a reactor zone sufficiently deep to obtain hydrostatic pressures sufficient to present supercritical conditions to cause processing of said slurry; monitor the rate of progress of reaction of the processed slurry in the reaction zone; returning the processed slurry to the surface; and collecting the processed slurry for use. 3. The method in claim 2 further comprised of adjusting the rate of pumping of the slurry material based on the rate of conversion of the slurry in the reaction zone. 4. The method of claim 3 further comprising the step of adding an oxidizing agent to the reaction zone. 5. The method of claim 4 above, whereas the step of adding an oxidizing agent further includes adjusting the amount of said agent in proportion to the said monitored progress of reaction of the slurry. 6. The method of claim 3 further comprising the step of adding heat energy to the reaction zone. 7. A method of processing an aqueous slurry of material at an elevated pressure and temperature which comprises: presenting said aqueous slurry within a pressure zone which is pressurized by a depth of said slurry sufficient to produce an elevated pressure sufficient to produce supercritical conditions with said slurry, said pressure zone being within a generally vertical, laterally confined space; separately introducing energy to said pressure zone to initiate a reaction of the aqueous slurry; conveying said slurry between said pressure zone an the upper end of said confined space through a conduit extending downwardly in said space to said pressure zone; and withdrawing the resultant of said reaction from said pressure zone. 8. A method as defined in claim 7, wherein said aqueous slurry includes carbonaceous solids. 9. A method as defined in claim 7 wherein said energy introduced is an oxidizing agent. 10. A method as defined in claim 7, wherein said oxidizing agent flows downwardly separately from said conduit conveying said slurry. 11. A method as defined in claim 7, wherein said pressure zone is defined by a depth which creates at least supercritical conditions in the said slurry. 12. A method as defined in claim 7 wherein said energy introduced results from electrical energy. 13. A method as defined in claim 7, wherein said pressure zone is defined by a depth of about 10,000 feet. 14. An apparatus for the continuing processing of carbonaceous solid slurry comprised of: an outer vessel emplaced within the earth to a depth necessary to obtain hydrostatic pressure sufficient to present supercritical conditions from the weight of the slurry; a means to convey said slurry to be processed to said designed depth within said outer vessel for processing; and a means to convey the said slurry after processing within said reactor zone back to the surface. 15. An apparatus to obtain high pressures for the processing of a carbonaceous-solid slurry comprised of: a sealed first vessel emplaced to a depth within the earth to obtain a hydrostatic pressure sufficient to create supercritical conditions resulting from the weight of the carbonaceous-solid slurry; a second vessel disposed within said first pipe, and open at the bottom of said pipe, extending from the surface to substantially the lowest portion of said outer vessel; means to transport said slurry to be processed through said second vessel into the substantially lowest portion of said first vessel; and means to return said slurry through said first vessel back to the surface after said slurry is processed. 16. Apparatus for carrying out a chemical process at an elevated pressure and involving an aqueous slurry including carbonaceous solids, comprising: means defining a vertically elongated, laterally enclosed space, said space including a reaction zone at the lower portion of said vertically elongated space; means for introducing said aqueous slurry adjacent the top of said space means, so that the desired pressure is produced by the hydrostatic head of said aqueous slurry in said reaction zone of said space; a pipe extending downwardly within said space to said reaction zone for introducing an oxidizing agent to said reaction zone; means for collecting resultants of the reaction within said reaction zone; and means for conveying said resultants from the said reaction zone to the top of the said vertically elongated space. 17. Apparatus as defined in claim 16 wherein said means defining said space comprises: a bore extending downwardly into the earth a sufficient distance to provide for the creation of supercritical conditions to be present within said aqueous slurry; and a pressure vessel within said bore. 18. Apparatus as defined in claim 16, wherein said downwardly extending pipe conveys said slurry to the lower portion of said pressure zone. 19. Apparatus as defined in claim 16, further including an upwardly extending pipe conveys the reaction product of said slurry upwardly, said slurry moving separately from the said slurry introduced at the top of the said vertically elongated space.