logging in or signing up Gerard Fries Pumbaa Download Post to : URL : Related Presentations : Share Add to Flag Embed Email Send to Blogs and Networks Add to Channel Uploaded from authorPOINTLite Insert YouTube videos in PowerPont slides with aS Desktop Copy embed code: (To copy code, click on the text box) Embed: URL: Thumbnail: WordPress Embed Customize Embed The presentation is successfully added In Your Favorites. Views: 592 Category: Entertainment License: All Rights Reserved Like it (2) Dislike it (0) Added: October 24, 2007 This Presentation is Public Favorites: 1 Presentation Description No description available. Comments Posting comment... Premium member Presentation Transcript Slide1: CO2 from capture to storage Gérard FRIES Executive Vice-President Institut Français du PétroleEvolution of CO2 concentration in the atmosphere : Evolution of CO2 concentration in the atmosphere Source : IPCC PPMScenarios of Carbon Emission Evolution: Scenarios of Carbon Emission Evolution Source : IPCC Repartition of CO2 emissions: Repartition of CO2 emissions Power production 39% Other Industries 22% Transport 23% Agriculture 2% Residential 10% Tertiary 4% Source : ENERDATASolutions: Solutions Improving energy efficiency Switch from low to high hydrogen content fossil fuels (from coal to natural gas) Substitution of fossil fuels by renewables and/or nuclear energy Capture, transport and storage of CO2CO2 capture from industrial plants: Fuel Combustion CO2 Extraction CO2 Flue gases Air N2/H2O CO2 capture from industrial plants Existing plants Large volume of gases with diluted CO2 Post-combustion captureCO2 capture from industrial plants: Oxyfuel combustion CO2 capture from industrial plants New plants Lower volume of gases with concentrated CO2CO2 capture from industrial plants: Air H2 N2/H2O CO2 Steam reforming ATR POx Shift reactor Extraction CO2 Combustion Fuel CO2 capture from industrial plants New plants The way to hydrogen Pre-combustion capture ATR : autothermal reforming POx : partial oxidation 02/H20Hydrogen and power generation with CO2 capture and storage: Hydrogen and power generation with CO2 capture and storageTransport of CO2: Transport of CO2 no specific regulation transport under supercritical phase risks of corrosion USA: several thousand of km of pipes delivering CO2 to EOR (Enhance Oil Recovery) operationsCO2 geological storage: CO2 geological storageCO2 geological storage: CO2 geological storage Hydrocarbon reservoirs (oil and gas) proven to be tight (to non reactive gas) geological traps well-known objects possible benefit through Enhanced Oil and Gas Recovery (EOR / EGR) Saline Aquifers huge porous volume: the biggest place for storage no drinkable water largely distributed generally poorly investigated Coals seams strong adsorption of CO2 possible benefit through E Coal Bed Methane (ECBM) low permeability and porous volume Geological storage: technical challenges: Geological storage: technical challenges Numerical modelling: regional scale, long time (1000 years) reservoir scale, short time (20-40 years) MonitoringAn example of industrial operation: Sleipner: An example of industrial operation: Sleipner An example of industrial operation: Sleipner: An example of industrial operation: Sleipner Main opportunities: Main opportunities IEA-GHGSome future initiatives for CO2 capture & storage in Europe & mediterranean basin: Some future initiatives for CO2 capture & storage in Europe & mediterranean basin CASTOR EU project: - Spain: offshore oil reservoir (Casablanca) - Norway: offshore aquifer (Snohvit) - Austria: offshore gas field (Lindach) - Netherlands: gas fields CO2SINK EU project: - Germany: onshore aquifer (Berlin) IN-SALAH (Algeria) RECOPOL EU project: - Poland: coal seams (Katowice) Possible new project: - Tarnow: EOR Capture & sorage of CO2: economic issues: Capture & sorage of CO2: economic issues Flue gases Separation transport Geological storage 30 - 50 $/t 8 - 10 $/t 0.7 - 4 $/t per 100 km 2 - 8 $/t Compression Injection Cost reduction Evaluation of capacity 20 $/t ? Total : 40 $/t to 70 $/t CO2CO2 capture & storage: the future: Cost reduction Optimisation of storage capacity Security of the storage Acceptance of the concept R&D efforts Improve the knowledge on physical and chemical processes for CO2 storage Real-site validation / demonstration Development of new cost effective separation techniques The targets CO2 capture & storage: the futureFuture prospects and opportunities: Future prospects and opportunities Eliminate gas flaring Produce hydrogen, power and clean fuels without CO2 emissions Use CO2 for EOR applications: specially the North Sea Benefits from emissions credits for CO2 reinjection You do not have the permission to view this presentation. In order to view it, please contact the author of the presentation.
Gerard Fries Pumbaa Download Post to : URL : Related Presentations : Share Add to Flag Embed Email Send to Blogs and Networks Add to Channel Uploaded from authorPOINTLite Insert YouTube videos in PowerPont slides with aS Desktop Copy embed code: (To copy code, click on the text box) Embed: URL: Thumbnail: WordPress Embed Customize Embed The presentation is successfully added In Your Favorites. Views: 592 Category: Entertainment License: All Rights Reserved Like it (2) Dislike it (0) Added: October 24, 2007 This Presentation is Public Favorites: 1 Presentation Description No description available. Comments Posting comment... Premium member Presentation Transcript Slide1: CO2 from capture to storage Gérard FRIES Executive Vice-President Institut Français du PétroleEvolution of CO2 concentration in the atmosphere : Evolution of CO2 concentration in the atmosphere Source : IPCC PPMScenarios of Carbon Emission Evolution: Scenarios of Carbon Emission Evolution Source : IPCC Repartition of CO2 emissions: Repartition of CO2 emissions Power production 39% Other Industries 22% Transport 23% Agriculture 2% Residential 10% Tertiary 4% Source : ENERDATASolutions: Solutions Improving energy efficiency Switch from low to high hydrogen content fossil fuels (from coal to natural gas) Substitution of fossil fuels by renewables and/or nuclear energy Capture, transport and storage of CO2CO2 capture from industrial plants: Fuel Combustion CO2 Extraction CO2 Flue gases Air N2/H2O CO2 capture from industrial plants Existing plants Large volume of gases with diluted CO2 Post-combustion captureCO2 capture from industrial plants: Oxyfuel combustion CO2 capture from industrial plants New plants Lower volume of gases with concentrated CO2CO2 capture from industrial plants: Air H2 N2/H2O CO2 Steam reforming ATR POx Shift reactor Extraction CO2 Combustion Fuel CO2 capture from industrial plants New plants The way to hydrogen Pre-combustion capture ATR : autothermal reforming POx : partial oxidation 02/H20Hydrogen and power generation with CO2 capture and storage: Hydrogen and power generation with CO2 capture and storageTransport of CO2: Transport of CO2 no specific regulation transport under supercritical phase risks of corrosion USA: several thousand of km of pipes delivering CO2 to EOR (Enhance Oil Recovery) operationsCO2 geological storage: CO2 geological storageCO2 geological storage: CO2 geological storage Hydrocarbon reservoirs (oil and gas) proven to be tight (to non reactive gas) geological traps well-known objects possible benefit through Enhanced Oil and Gas Recovery (EOR / EGR) Saline Aquifers huge porous volume: the biggest place for storage no drinkable water largely distributed generally poorly investigated Coals seams strong adsorption of CO2 possible benefit through E Coal Bed Methane (ECBM) low permeability and porous volume Geological storage: technical challenges: Geological storage: technical challenges Numerical modelling: regional scale, long time (1000 years) reservoir scale, short time (20-40 years) MonitoringAn example of industrial operation: Sleipner: An example of industrial operation: Sleipner An example of industrial operation: Sleipner: An example of industrial operation: Sleipner Main opportunities: Main opportunities IEA-GHGSome future initiatives for CO2 capture & storage in Europe & mediterranean basin: Some future initiatives for CO2 capture & storage in Europe & mediterranean basin CASTOR EU project: - Spain: offshore oil reservoir (Casablanca) - Norway: offshore aquifer (Snohvit) - Austria: offshore gas field (Lindach) - Netherlands: gas fields CO2SINK EU project: - Germany: onshore aquifer (Berlin) IN-SALAH (Algeria) RECOPOL EU project: - Poland: coal seams (Katowice) Possible new project: - Tarnow: EOR Capture & sorage of CO2: economic issues: Capture & sorage of CO2: economic issues Flue gases Separation transport Geological storage 30 - 50 $/t 8 - 10 $/t 0.7 - 4 $/t per 100 km 2 - 8 $/t Compression Injection Cost reduction Evaluation of capacity 20 $/t ? Total : 40 $/t to 70 $/t CO2CO2 capture & storage: the future: Cost reduction Optimisation of storage capacity Security of the storage Acceptance of the concept R&D efforts Improve the knowledge on physical and chemical processes for CO2 storage Real-site validation / demonstration Development of new cost effective separation techniques The targets CO2 capture & storage: the futureFuture prospects and opportunities: Future prospects and opportunities Eliminate gas flaring Produce hydrogen, power and clean fuels without CO2 emissions Use CO2 for EOR applications: specially the North Sea Benefits from emissions credits for CO2 reinjection