NETL June 2015 Meeting Public · Budget Period 1 (Oct 2013 – June 2015) $3,369,528 $842 ,382...
Transcript of NETL June 2015 Meeting Public · Budget Period 1 (Oct 2013 – June 2015) $3,369,528 $842 ,382...
CO2 Capture by Cold Membrane Operation with actual power plant flue gas
(DE-FE0013163)
NETL CO2 Capture Technology Meeting 2015
June 23 rd 2015T. Chaubey, S. Kulkarni, A. Augustine, D. Hasse, J. Brumback, D. Kratzer, D. Calvetti, J. Ma| R&D
Project Summary
Air Liquide Hybrid Cold membrane - Liquefaction Process plant for 550 MWe scale
CO2 for sequest. or EOR+
Flue Gas
Improved Performance at Cold Condition
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Cold membrane testing at 0.1 MWe with synthetic flue gas (TRL4) in 2012
CO2 Capture Cost estimated at 46-52$/tonne (DOE Target - $40/tonne)
Current project will test the cold membrane technology at 0.3 MWe scale (TRL5) at National Carbon Capture Center (NCCC)
POWER PLANT LIQUEFACTIONCOLD MEMBRANE
+
Project Team
AIR LIQUIDE (R&D, MEDAL, E&C)Membrane experts – Sudhir Kulkarni, David Hasse, Karl Beers (MEDAL), Jean-Marie Gauthier (MEDAL)
Process experts – Trapti Chaubey, Alex Augustine, Paul Terrien (E&C), Alfredo Velasco (MEDAL)
Modeling expert – Jiefu Ma
Senior Technicians – Jacob Brumback, Dean Kratzer, Judy Huss
Engineering Services – Dennis Calvetti, Robert Sokola, Hwanho Kim
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Engineering Services – Dennis Calvetti, Robert Sokola, Hwanho Kim
AL management – Robert Gagliano, David Edwards, Ed Sanders
External Partner - PARSONS GOVERNMENT SERVICES Brad Knutson
TEST SITE - NATIONAL CARBON CAPTURE CENTER Tony Wu, Eric Fleming, Barton Pate, Max Phillips, Bob Lambrecht, Mike England
Agenda
AL Motivation & Roadmap
Hybrid Cold Membrane Technology
Project Overview
Project Progress
Project Risks
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Project Risks
Next Steps
Air Liquide MotivationMARKET
CO2 as a Product - 12 CO2 plants in US
CO2 for EOR application – Huge potential market
SOLUTIONCO2 Separation technologies such as cold membrane hybrid process, liquefaction plants, adsorption and absorption
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plants, adsorption and absorption
PROBLEMCO2 Generator – 22.9 MMt of CO2 emitted in 2014 worldwide • AL SMR plants, cogen plants, Electricity for
ASU and other applications
CO2 emission equivalent to 7 Commercial power plants
Air Liquide Roadmap for Post-Combustion Capture
FIE
LDT
ES
TS
LA
RG
E S
CA
LE
PLA
NT
S
COMMERCIAL PLANTS
PI-1 (Commercial Material)
NCCC (2x12’’ Bundles) 0.3 MWe
Large ScalePilot
12’’ Bundle (0.5 MWe)
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2010 2014 201820162012 2020
CO
NC
EP
TU
AL/
BE
NC
H S
CA
LE
ST
UD
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PIL
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/ F
IELD
TE
ST
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PI-2 (Novel Material)
DRTC (6’’ Bundle) Tested at 0.1 MWe
Current Project
Mini-permeator
1 ’’ Bundle (<0.01 MWe)
4 ’’ Bundle (0.04 MWe)
6’’ Bundle(0.12 MWe)
Different size bundle capacity shown at 90%
CO2 recovery based on the intrinsic fiber performance
Agenda
AL Motivation & Roadmap
Hybrid Cold Membrane Technology
Project Overview
Project Progress
Project Risks
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Project Risks
Next Steps
Cold Membrane Process Based on Hollow Fiber Membrane
CO2 N2
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>5X Surface area/volume compared to spiral membrane s.
Cost effective solution at large scale application
Key Parameters for high membrane performance
High surface area/vol, Good intrinsic property, very low thickness
High productivity/bundle is critical meeting the permeate purity spec
Hybrid Membrane + Liquefaction Configuration
Power Plant
Pretreatment
BFW
To Stack
CO2 Product 2200 psig
Cold Expansion
Warm Expansion
Flue Gas
BFW
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Heat ExchangerCompressor
Liquefaction
Dryer
Membrane
-35 to -45°C100-200 psig
Recycle
N2 Rich
CO2 Rich
All technology bricks have been demonstrated with the exception of membrane with real flue gas
Agenda
AL Motivation & Roadmap
Hybrid Cold Membrane Technology
Project Overview
Project Progress
Project Risks
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Project Risks
Next Steps
Total Budget : $5.88MM, DOE Funding - $4.7MM ; Cost share - $1.17MM
Period of Performance: 10/01/2013 through 12/31/2016 over 2 Budget PeriodsNETL Project Manager: José FigueroaPrime Recipient: American Air Liquide DRTCProject Sub-awardees: MEDAL (Bundle Optimization support, Detailed engineering), E&C (Basic Engineering & TEA), Parsons (TEA Review)
Project Overview: DOE NETL Award No. DE-FE0013163
DOE Share AL Cost Share
Budget Period 1 (Oct 2013 – June 2015) $3,369,528 $842,382
Budget Period 2 (July 2015 – Dec 2016) $1,338,964 $334,741
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engineering), E&C (Basic Engineering & TEA), Parsons (TEA Review)E&C - $489K, MEDAL - $361K, Parsons - $96K
Delaware Research & Technology CenterNewark, DE
MEDAL (Membrane Supplier)Newport, DE
Air Liquide EngineeringChampigny, France
Parsons Governmental ServicesPasadena, CA and Philadelphia, PA
Project Schedule & StatusMain Tasks Start End Milestones/
Success CriteriaStatus
BUDGET PERIOD 1 (BP1) Oct 2013 to June 2015PI-1 Optimization & Testing
Oct 2013 March 2014
>30% improvement in bundle productivity
COMPLETED
PI-2 Bundle Preparation & Testing
Oct 2013 June 2015
4-5X Projected Bundle Productivity compared to PI-1
COMPLETED
Design and fabrication Oct 2013 June Fabrication, COMPLETED
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Design and fabrication of 0.3 MWe field test unit
Oct 2013 June 2015
Fabrication, Installation, Acceptant Testing of FTU
COMPLETED
BUDGET PERIOD 2 (BP2) July 2015 to December 2016Field Test at NCCC July 2015 July 2016 500 hours of steady
state testingTarget 2016
TEA July 2015 Dec 2016 $40/tonne CO2 capture cost
Target 2016
Preliminary design next phase
July 2015 July 2016 Preliminary design and costing of next phase
Target 2016
Agenda
AL Motivation & Roadmap
Hybrid Cold Membrane Technology
Project Overview
Project Progress
Project Risks
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Project Risks
Next Steps
PI-1 Bundle Testing Summary
PI-1 Commercial Bundles tested for >13,700 hours
Current Project - Six 12 inch bundles ~6500 hours • 4 Bundles Qualified for field
Previous Project - Two 6 inch bundles – 7200 hours
Completed Bundle Optimization and testing with synthetic flue gas
Process simulation used due to current bench scale skid (0.1 MWe) limitations:
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limitations:
Feed flow rate 400 Nm3/hr
Permeate pressure 7-8 psig
Process Performance is scaled to NCCC conditions
Feed flow capacity at NCCC~1000 Nm3/hr (0.3 MWe)
Lower permeate pressure at NCCC test conditions (Target – 1.5 psig with single bundle)
90% CO2 Capture Data & Performance scaled for NCCC
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combination of simulation and experiments
Membrane Bundle Configurations at NCCC
Single Stage Configuration
F( 18% CO2)R
(2.2% CO2)
P (61% purity)
90% Recovery Permeate is
further purified in a liquefier
Sweep>450 Nm3/hr
200 psig, -45°C
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2 Stage Configuration in Series – Completed bench scale test (0.1 MWe) at different feed composition to validate the concept
2xFEED (18% CO2) Stage 2 (~70%
Recovery) Sweep
R1R2
(2.2% CO2)
P mix (61% purity)
Stage 1 (~70%
Recovery)
P2P1
>900 Nm3/hr200 psig, -45°C
Multiple Configurations will be tested at NCCC Single stage, 2 bundles in series or parallel
2 Stage Configuration – CFD Analysis
Both stages will operate at 65-70% CO2 recovery for overall 90% recovery
Total number of bundles will be reduced for the final solution
Partial Pressure Difference High Low
Permeate70% Recovery
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FEEDRetentate
90% Recovery
Retentate FEED
Permeate
Higher Driving force at 70% CO 2 Recovery
Ideal Counter Current
CFD 1psig Back Pressure
2 Stage Configuration – CFD Analysis
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CFD 10 psig Back Pressure
Bundle Non-ideality is dominant at high CO 2 recovery and accentuated at higher permeate pressure
PI-2 Membrane Development SummaryLaboratory trials to develop spinning techniques for PI-2 membranes
CO2 permeance is >5X compared to PI-1 material
Increase in membrane separation performance at lower temperature consistent to PI-1
Scale-up in the current project
Fiber Count Compared to
Mini-Permeator
Synthetic Flue gas test
Real Flue Gas Test (NCCC)
Mini-Permeator 1X Test Completed -
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Challenges with PI-2
Polymer qualification
Fabrication scale-up
Mini-Permeator 1X Test Completed -
1 inch Permeator 25X – 45X Test in progress (3 Permeators
qualified for NCCC)
BP2 (Campaign 1)
1 inch Bundle 250X – 350X BP2 BP2 (Campaign 2)
1 inch PI-2 Permeator Testing
MEDAL commercial 1 inch bundle design is used to prepare PI-2 permeators
1 inch permeator testing is in progress
Long term testing is continuing for >500 hours
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Performance is stable after >500 hours long term te sting at cold temperature
PI-2 Permeator Parametric Testing
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Fiber Performance target has been met.Projected 4-5X Bundle Productivity compared to PI-1
FIELD TEST UNIT
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FIELD TEST UNIT
0.3 MWe Field Testing at NCCC
HP Dryer and filters
Skid 1
Skid 2
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29’ 6”
30’Membrane
Skid 3
0.3 MWe Field Test Unit Design and Construction
Pretreatment Skid Membrane Skid
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Process equipment installation and acceptance testi ng is complete
0.3 MWe Field Test Unit Design and Construction
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Agenda
AL Motivation & Roadmap
Hybrid Cold Membrane Technology
Project Overview
Project Progress
Project Risks
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Project Risks
Next Steps
Project RisksProject Risks Mitigation Strategy
PI-1 Risks• Lower performance of 12 inch bundle compared to 6 inch• Bench scale skid limitation
•Optimized bundle testing limited due to time
PI-1 Mitigation Strategy• Bundle Optimization
• Process simulation used. Validation by field testing• Selective testing & CFD modeling
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PI-2 Risks • Bundle manufacturing and viability for test at low temperature is unknown• Polymer Qualification for membrane• Scale-up
PI-2 Mitigation Strategy• Laboratory Testing at low temperature• Close Collaboration with supplier• Different phases of development
Project RisksProject Risks Mitigation Strategy
Field Test Risks• Particulates can foul the compressor or blind the hollow fiber membrane• Compressor corrosion due to acid contaminants• Acid contaminants in the presence of moisture may lead to long term hydrolysis of membrane
Field Test Mitigation Strategy• Dust filtration to remove the particulates• Water knock-out and de-saturation before compressor• Dryer upstream of membrane
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membrane• Design related safety issues• Uncertainty in field
• Detailed HAZOP review• Extensive acceptance testing, AL experience and close collaboration with NCCC
Agenda
AL Motivation & Roadmap
Hybrid Cold Membrane Technology
Project Overview
Project Progress
Project Risks
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Project Risks
Next Steps
Next Steps - Budget Period 2 (July 2015 – Dec 2016)0.3 MWe Field testing at NCCC (October 2015 – July 2016)
PI-2 bundle fabrication
TEA and EH&S analysis for CO2 capture using cold
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TEA and EH&S analysis for CO2 capture using cold membrane technology
Comparison between different membrane configurations
PI-1 versus PI-2 membrane material
Preliminary design of next phase
Acknowledgements & DisclaimerUS DOE – José Figueroa, Lynn Brickett, Andrew O’Palko
Parsons Government Services and NCCC
Some material in this presentation is based on work supported by the Department of Energy National Energy Technology Laboratory under Award Number DE-FE0004278 (completed) and DE-FE0013163. The National Carbon Capture Center is support by Award DE-FE0022596.
“This report was prepared as an account of work sponsored by an agency of the United States Government. Neither the United States Government nor any agency thereof, nor any of their employees, makes any warranty, express or implied, or
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thereof, nor any of their employees, makes any warranty, express or implied, or assumes any legal liability or responsibility for the accuracy, completeness, or usefulness of any information, apparatus, product, or process disclosed, or represents that its use would not infringe privately owned rights. Reference herein to any specific commercial product, process, or service by trade name, trademark, manufacturer, or otherwise does not necessarily constitute or imply its endorsement, recommendation, or favoring by the United States Government or any agency thereof. The views and opinions of authors expressed herein do not necessarily state or reflect those of the United States Government or any agency thereof.”