Mitsubishi Heavy Industries, Ltd. · TSE:7011

Mitsubishi Heavy Industries — 1st QP – JCCP Joint Environment Symposium 2007

24 slides from Mitsubishi Heavy Industries's conference presentation, February 2007

  1. Slide 1: Flue Gas CO2 Capture, EOR Application and the Role of CDM

    1st QP – JCCP Joint Environment Symposium, February 5-7 2007 Sustainable Development & Climate Change FLUE GAS CO2 CAPTURE, EOR APPLICATION AND THE ROLE OF CDM Masaki Iijima & Ronald Mitchell Group Manager – CO2/EOR Project Group Mitsubishi Heavy Industries, Ltd.

  2. Slide 2: Contents

    Contents PART I INTRODUCTION PART II KM-CDR PROCESS - Features / design / process - Process comparison MEA v KS-1 - Experience / delivery record PART III Enhanced Oil Recovery (EOR) - Background of EOR - Concept - Economic evaluation - Kyoto Protocol and CDM PART IV CONSIDERATIONS

  3. Slide 3: Introduction

    Introduction ¾ Climate change is rapidly becoming the most important issue facing humanity – see ‘Stern Review’ (Oct 2006) ¾ Many recent examples to demonstrate global warming is a real and potentially devastating phenomenon ¾ Economic and industrial expansion in developing nations – GHG emissions w

  4. Slide 4: KM-CDR Process using KS-1 solvent

    KM-CDR Process using KS-1 solvent Flue Gas Outlet CO2 Purity : 99.9 % ABSORBER STRIPPER (Regenerator) C.W. Flue Gas Cooler C.W. Flue Gas C.W. Reboiler Steam

  5. Slide 5: Amine Reaction Mechanism

    Amine Reaction Mechanism z Mono-ethanol Amine (MEA) 2 R-NH2 + CO2 R-NH3+ + R-NH-COO- R-NH2 + CO2 + H2O R-NH3+ + HCO3- Less solvent z Sterically Hindered Amine (KS-1) use 2 R-NH2 + CO2 R-NH3+ + R-NH-COO- R-NH2 + CO2 + H2O R-NH3+ + HCO3- # Key feature is KS-1 amine requires only 1 mole to react with 1

  6. Slide 6: Solubility of CO2 in KS-1 and MEA Solution

    Solubility of CO2 in KS-1 and MEA Solution Regeneration Region MEA KS-1 CO 2 Partial Pressure Higher CO2 loading More efficient regeneration Absorption Region 0 0.1 0.2 0.3 0.4 0.5 0.6 0.7 0.8 0.9 1 CO 2 Loading (mol.CO 2 /mol.Amine)

  7. Slide 7: Heat of Dissociation (Heat of Absorption)

    Heat of Dissociation (Heat of Absorption) MEA KS-1 Heat of Dissociation Less heat required 0.0 0.1 0.2 0.3 0.4 0.5 0.6 0.7 0.8 CO 2 Loading (mol.CO 2/mol.Amine)

  8. Slide 8: Heat Stable Salts: Deteriorated Product of MEA and KS-1

    3. MHI’s CO2 Capture Technology Confidenti al Deteriorated Product of MEA and KS-1 +4 KS-1 Commercial KS-1 Pilot HEAT STABLE SALTS (wt%) +3 MEA Pilot +2 +1 Less HSS formed Base 0 100 200 300 400 500 600 RUNNING TIME (hours)

  9. Slide 9: Corrosion Test Result

    Corrosion Test Result (Unit : mils per year) Test 1 Test 2 MEA 93.0 76.4 MEA + inhibitor 9.5 8.3 KS-1 3.1 3.6 Test condition : 130°C, in the presence of O2 Less corrosion

  10. Slide 10: Process Comparison

    Process Comparison MEA KS-1 Solution Circulation Rate 1 0.6 Regeneration Energy 1 0.68 Degradation of the Solvent 1 0.1 Solvent Loss 1 0.1 Corrosion Inhibitor YES NO

  11. Slide 11: Advantages of KM-CDR Process

    Advantages of KM-CDR Process ¾ High CO2 loading ¾ Low generation energy KS-1 Solvent ¾ Negligible corrosion ¾ Minimal solvent degradation ¾ Low utility and solvent consumption Process ¾ Easy operation and maintenance Economy ¾ Minimal operation costs ¾ Scale of economy by large scale unit

  12. Slide 12: MHI's CO2 Recovery Technology

    MHI’s CO2 Recovery Technology ¾ World’s most advanced and comprehensive industrial R&D programs (commenced in 1990 and ongoing) ¾ KEPCO & MHI‘s proprietary flue gas CO2 capture Technology commercially applied since 1998 ¾ The ‘Complete Solution’ - hindered amine solvent “KS-1” with accompanying prop

  13. Slide 13: Evolution of KM-CDR Process R&D programs

    Evolution of KM-CDR Process R&D programs Evolution 90 91 92 93 94 95 96 97 98 99 00 01 02 03 04 05 06 07 08 09 Nanko Pilot Plant (2 T/D) R&D for Process Improvement 1 T/D Pilot Test Completed Long Term Demo. Plant Coal Fired Flue Gas Application Test Starts Large Scale Demonstration 1 T/D Pilot Plan

  14. Slide 14: Delivery Record KM-CDR Process

    Delivery Record KM-CDR Process Location Status Year T/D CO2 Product (Fuel) Malaysia On Stream 1999 ~ 200 Urea (Steam reformer) Japan On Stream 2005 ~ 330 General use (Nat. gas & Oil) India On Stream Dec 2006 ~ 450 (x2) Urea (Nat. gas) UAE FEED - 400 Urea (Nat. gas) completed China FEED - 800 Methano

  15. Slide 15: Example: Commercial Project in Malaysia

    Example: Commercial Project in Malaysia Plant Outline ¾ Client : Petronas Fertilizer (Keda) Sdn. Bhd. ¾ Capacity : 200 T/D (Max.) ¾ Solvent : KS-1 ¾ Feed Gas : Steam Reformer Flue System Gas ¾ Use of CO2 : Urea Production ¾ Start-up : 1999

  16. Slide 16: What is EOR?

    What is EOR? ¾ Enhanced Oil Recovery is a process whereby additional oil is recovered or ‘produced’ from an oil reservoir through use of tertiary means. Primary Recovery Artificial Lift Natural Flow Secondary Pump, Gas Lift, Other Recovery Conventional Oil Recovery Pressure Maintenance Water Flood D

  17. Slide 17: Concept of CO2 Recovery for EOR

    Concept of CO2 Recovery for EOR CO2 Recovery Plant Thermal Power Plant Clients Own Oil Field

  18. Slide 18: CO2 Injection and Recycling System

    CO2 Injection and Recycling System Compression & Dehydration CO2 20-30% Thermal Power CO2 Natural Gas CO2 CO2 Plant Compressor Recycle Capture Plant NGL Separator CO2 Injection Production Well Well Tank 100% Crude Oil Cap Rock Gas CO2 Crude Oil Oil Reservoir

  19. Slide 19: EOR in Gulf Coast Countries – WHY?

    EOR in Gulf Coast Countries – WHY? ‹ Large number of oil fields ‹ >2300 Billion stb STOIIP ‹ 950 Billion stb recoverable reserves ‹ 235 fields with STOIIP >1000 MMstb ‹ Highly suitable regional storage sites ‹ Regional reliance on ‘cheap’, local fossil fuels for power generation ‹ Recent industriali

  20. Slide 20: CCS Site Suitability in the Gulf Region

    CCS Site Suitability in the Gulf Region Highly suitable CO2 storage sites Source: United Nations Framework Convention on Climate Change

  21. Slide 21: EOR Economic Case Study

    EOR Economic Case Study Revenue Cost 4200 T/D CO2 Injection 5 MSCFD/bbl (US Case) 16 thousand bbl/day Case 1 Case 2 365days/year x 90% @$19/T @$47.5/T 5.3 Million bbl/year $80k/day $200k/day @US$30 and $60/bbl 365days/year x 90% US $158 US $316 US $26.3 US $65.7 Mill./Y Mill./Y Mill./Y Mill./Y Addit

  22. Slide 22: The Kyoto Protocol and the CDM

    The Kyoto Protocol and the CDM ¾ The Kyoto Protocol commits Annex I countries to individual targets to limit or reduce their greenhouse gas emissions during the first commitment period from 2008 to 2012 ¾ EU started CO2 emission trading scheme (ETS) from January 2005 and price has fluctuated widely

  23. Slide 23: Gulf Coast Countries and Japan: CDM leads to win-win

    Gulf Coast Countries and Japan CDM leads to win-win ¾ CDM project development will further enhance the strong business relationship between GCCs and Japan leading to a win-win situation ¾ CDM projects Benefit both developing and Annex 1 countries, HOW? Japan – energy security & supply, generating em

  24. Slide 24: Considerations

    CONSIDERATIONS Critical factors in promoting CO2 EOR and CCS ¾ Recognition that ‘cheap oil’ era has ended. We must maximize the use and efficiency of our existing energy resources ¾ ‘Science rich’ data confirming global warming is real ¾ Future ‘formal’ recognition of CCS projects as greenhouse gas

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