Patents by Inventor Edward G. Latimer
Edward G. Latimer has filed for patents to protect the following inventions. This listing includes patent applications that are pending as well as patents that have already been granted by the United States Patent and Trademark Office (USPTO).
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Patent number: 10480781Abstract: A method for mitigating fouling in a once-through steam generator train is described. The method involves obtaining foulant samples from the once-through steam generator train. Obtaining water samples from one or more locations along the once-through steam generator train. Recovering filtered solids from the water samples from the one or more locations. Characterizing at least one physical property of the foulant samples and the filtered solids. Determining locations along the once-through steam generator train that include foulant precursor based on a matching of the at least one physical property between the foulant samples and the filtered solids. Installing an absorbent at locations that include the foulant precursor.Type: GrantFiled: January 5, 2018Date of Patent: November 19, 2019Assignee: CONOCOPHILLIPS COMPANYInventors: Thomas D. Baugh, Edward G. Latimer, Stephen Appleyard
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Patent number: 9573823Abstract: A closed loop combustion system for the combustion of fuels using a molten metal oxide bed.Type: GrantFiled: October 22, 2010Date of Patent: February 21, 2017Assignee: PHILLIPS 66 COMPANYInventors: David C. LaMont, James Seaba, Edward G. Latimer, Alexandru Platon
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Patent number: 8656999Abstract: The present method produces treated water from a direct steam generator. The method begins by injecting water into a direct steam generator. The injected water is then vaporized with the direct steam generator to produce steam and an effluent stream. The combustible water impurities in the water are then combusted inside a chamber in the direct steam generator and the solid particles are removed from the effluent stream to produce a treated stream.Type: GrantFiled: April 21, 2011Date of Patent: February 25, 2014Assignee: ConocoPhillips CompanyInventors: Edward G. Latimer, James P. Seaba, Thomas J. Wheeler, David C. LaMont
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Patent number: 8430947Abstract: A method of introducing flue gas, from a flue stack in a steam-assisted production facility, into a heat exchanger. The flue gas comprises boiler combustion products selected from at least one of commercial pipeline gas and produced gas. The method begins by cooling a portion of the water vapor in the flue gas in the heat exchanger to produce flue gas water. This flue gas water is then collected and removed as make-up water.Type: GrantFiled: July 13, 2010Date of Patent: April 30, 2013Assignee: ConocoPhillips CompanyInventors: Edward G. Latimer, Christopher R. Copeland, Ryan K. Davis, James Scinta, Dale L. Embry, David C. Lamont, Charles J. Murray, Ryan D. Donahe
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Patent number: 8387545Abstract: A method for introducing flue gas in a steam-assisted production facility into a vapor-liquid contactor. In this method the flue gas comprises boiler combustion products selected from at least one of commercial pipeline natural gas and produced gas. The flue gas is cooled with the vapor-liquid contactor to condense a portion of the water vapor in the flue gas to produce a water stream. The water stream is then recirculated and cooled in an air cooler to produce recirculating water exiting the bottom of the vapor-liquid contactor. A water slipstream is then taken off the recirculating water to be used as make-up water.Type: GrantFiled: July 15, 2010Date of Patent: March 5, 2013Assignee: ConocoPhillips CompanyInventors: Edward G. Latimer, Christopher R. Copeland, Ryan K. Davis, James Scinta, Dale L. Embry, David C. Lamont, Charles J. Murray, Ryan D. Donahe
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Patent number: 8353343Abstract: Methods and apparatus relate to producing hydrocarbons. Injecting a fluid mixture of steam and carbon dioxide into a hydrocarbon bearing formation facilitates recovery of the hydrocarbons. Further, limiting amounts of non-condensable gases in the mixture may promote dissolving of the carbon dioxide into the hydrocarbons upon contact of the mixture with the hydrocarbons.Type: GrantFiled: March 10, 2010Date of Patent: January 15, 2013Assignee: ConocoPhillips CompanyInventors: James P. Seaba, Thomas J. Wheeler, David C. LaMont, Edward G. Latimer
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Patent number: 8353342Abstract: Methods and apparatus relate to both generating steam for injection into a wellbore and capturing carbon dioxide (CO2) produced when generating the steam. A direct steam generator (DSG) makes the steam by contacting water with a combustion area for hydrogen and oxygen. Quantity of the steam made exceeds quantity of water input into the steam generator since the steam includes vaporized water resulting from combustion of the hydrogen and oxygen mixed with the water inputted and heated. Steam-methane-reforming or autothermal-reforming produces the hydrogen stripped of the CO2 prior to introduction into the steam generator. Further, an air separation unit supplies the oxygen to the steam generator.Type: GrantFiled: February 17, 2010Date of Patent: January 15, 2013Assignee: ConocoPhillips CompanyInventors: Edward G. Latimer, Steven A. Treese
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Publication number: 20120227964Abstract: Methods and apparatus relate to processing flue gas from oxy-fuel combustion. Steam generated without contact of the steam with the flue gas combines with the flue gas for injection into a formation to facilitate oil recovery from the formation. Fluids produced include the oil and carbon dioxide with a lower concentration of oxygen than present in the flue gas that is injected.Type: ApplicationFiled: March 7, 2011Publication date: September 13, 2012Applicant: ConocoPhillips CompanyInventors: David C. LaMont, James P. Seaba, Thomas J. Wheeler, Edward G. Latimer
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Publication number: 20110259586Abstract: The present method produces treated water from a direct steam generator. The method begins by injecting water into a direct steam generator. The injected water is then vaporized with the direct steam generator to produce steam and an effluent stream. The combustible water impurities in the water are then combusted inside a chamber in the direct steam generator and the solid particles are removed from the effluent stream to produce a treated stream.Type: ApplicationFiled: April 21, 2011Publication date: October 27, 2011Applicant: CONOCOPHILLIPS COMPANYInventors: Edward G. Latimer, James P. Seaba, Thomas J. Wheeler, David C. LaMont
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Publication number: 20110067610Abstract: A method for introducing flue gas in a steam-assisted production facility into a vapor-liquid contactor. In this method the flue gas comprises boiler combustion products selected from at least one of commercial pipeline natural gas and produced gas. The flue gas is cooled with the vapor-liquid contactor to condense a portion of the water vapor in the flue gas to produce a water stream. The water stream is then recirculated and cooled in an air cooler to produce recirculating water exiting the bottom of the vapor-liquid contactor. A water slipstream is then taken off the recirculating water to be used as make-up water.Type: ApplicationFiled: July 15, 2010Publication date: March 24, 2011Applicant: ConocoPhillips CompanyInventors: Edward G. Latimer, Christopher R. Copeland, Ryan K. Davis, James Scinta, Dale L. Embry, David C. Lamont, Charles J. Murray, Ryan D. Donahe
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Publication number: 20110011559Abstract: A method of introducing flue gas, from a flue stack in a steam-assisted production facility, into a heat exchanger. The flue gas comprises boiler combustion products selected from at least one of commercial pipeline gas and produced gas. The method begins by cooling a portion of the water vapor in the flue gas in the heat exchanger to produce flue gas water. This flue gas water is then collected and removed as make-up water.Type: ApplicationFiled: July 13, 2010Publication date: January 20, 2011Applicant: ConocoPhillips CompanyInventors: Edward G. Latimer, Christopher R. Copeland, Ryan K. Davis, James Scinta, Dale L. Embry, David C. Lamont, Charles J. Murray, Ryan D. Donahe
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Publication number: 20100230097Abstract: Methods and apparatus relate to producing hydrocarbons. Injecting a fluid mixture of steam and carbon dioxide into a hydrocarbon bearing formation facilitates recovery of the hydrocarbons. Further, limiting amounts of non-condensable gases in the mixture may promote dissolving of the carbon dioxide into the hydrocarbons upon contact of the mixture with the hydrocarbons.Type: ApplicationFiled: March 10, 2010Publication date: September 16, 2010Applicant: CONOCOPHILLIPS COMPANYInventors: James P. Seaba, Thomas J. Wheeler, David C. LaMont, Edward G. Latimer
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Publication number: 20100212894Abstract: Methods and apparatus relate to both generating steam for injection into a wellbore and capturing carbon dioxide (CO2) produced when generating the steam. A direct steam generator (DSG) makes the steam by contacting water with a combustion area for hydrogen and oxygen. Quantity of the steam made exceeds quantity of water input into the steam generator since the steam includes vaporized water resulting from combustion of the hydrogen and oxygen mixed with the water inputted and heated. Steam-methane-reforming or autothermal-reforming produces the hydrogen stripped of the CO2 prior to introduction into the steam generator. Further, an air separation unit supplies the oxygen to the steam generator.Type: ApplicationFiled: February 17, 2010Publication date: August 26, 2010Applicant: CONOCOPHILLIPS COMPANYInventors: Edward G. Latimer, Steven A. Treese
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Patent number: 7779914Abstract: A process for emulsifying and burning a portion of heavy oil extracted from an underground reservoir, wherein the emulsified heavy oil is burned to generate steam and a caustic is used to aid in emulsifying the heavy oil.Type: GrantFiled: December 10, 2008Date of Patent: August 24, 2010Assignee: ConocoPhillips CompanyInventor: Edward G. Latimer
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Publication number: 20100154206Abstract: This invention relates to lithium-ion batteries and cathode powders for making lithium-ion batteries where the cathode powder comprises a blend or mixture of at least one lithium transition metal poly-anion and with one or more lithium transition-metal oxide powders. A number of different lithium transition-metal oxides are suitable, especially formulations that include nickel, manganese and cobalt. The preferred lithium transition metal poly-anion is carbon-containing lithium vanadium phosphate. Batteries using the mixture or blend of these powders have been found to have high specific capacity, especially based on volume, high cycle life, substantially improved safety issues as compared to lithium transition-metal oxides, per se, and an attractive electrode potential profile.Type: ApplicationFiled: December 19, 2008Publication date: June 24, 2010Applicant: CONOCOPHILLIPS COMPANYInventors: Zhenhua Mao, Daniel H. Irvin, Mark W. Carel, Edward J. Nanni, Edward G. Latimer, James B. Kimble
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Publication number: 20100139922Abstract: A process for emulsifying and burning a portion of heavy oil extracted from an underground reservoir is disclosed, wherein the emulsified heavy oil is burned to generate steam and a caustic is used to aid in emulsifying the heavy oil.Type: ApplicationFiled: December 10, 2008Publication date: June 10, 2010Inventor: Edward G. Latimer
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Publication number: 20080305256Abstract: This invention relates to a process for producing an improved cathode powder for making lithium ion batteries wherein the powder comprises lithium, vanadium and a polyanion. The process includes forming a solution-suspension of the precursors, which include vanadium pentoxide, with a reducing agent, a solvent, and a carbon-residue-forming material. The reducing agent causes the vanadium in vanadium pentoxide to reduce from V5+ to V3+. The solution-suspension is heated in an inert environment to drive the synthesis of the LVP (Li3V2(PO4)3) such that the carbon-residue-forming material is also oxidized to precipitate in and on the LVP forming carbon-containing LVP or CCLVP. The liquids are separated from the solids and the dry powder is heated to a second higher temperature to drive the crystallization of the product.Type: ApplicationFiled: January 31, 2008Publication date: December 11, 2008Applicant: CONOCOPHILLIPS COMPANYInventors: James B. Kimble, Zhenhua Mao, Edward J. Nanni, Edward G. Latimer
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Patent number: 4956506Abstract: A gas containing water vapor and a minor amount of ethylene and/or propylene is passed through several reactors in series containing a perfluorinated ion-exchange polymer catalyst to convert olefins to alcohols, and alcohol product is recovered from the effluent gases from each reactor.Type: GrantFiled: December 21, 1989Date of Patent: September 11, 1990Assignee: Conoco Inc.Inventor: Edward G. Latimer
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Patent number: 4808299Abstract: A process for removing copper and/or iron impurities from a liquid hydrocarbon-containing feed comprises contacting the feed with an aqueous treating agent comprising water-soluble alkali metal silicate (in particular sodium silicate) and/or a surfactant, in particular an anionic surfactant.Type: GrantFiled: April 14, 1988Date of Patent: February 28, 1989Assignee: Phillips Petroleum CompanyInventors: Edward G. Latimer, Richard W. Jones
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Patent number: 4548711Abstract: The upgrading of heavy, high-metals content oils is optimized when certain solvent mixing and countercurrent flow techniques and/or certain solvent/feed ratios and/or certain extractor internals and extraction residence times are employed.Type: GrantFiled: September 2, 1982Date of Patent: October 22, 1985Assignee: Phillips Petroleum CompanyInventors: Daniel M. Coombs, Edward G. Latimer