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September 20-22, 2022
Edmonton Convention Centre
Alberta, Canada

Co-Hosts
  • 10 30 AM

Seeking Novel Technologies for Post Combustion Capture Processes

The Pathways Alliance Knowledge Bar

As part of its suite of innovation opportunities, COSIA is looking for new transformative technologies to capture carbon dioxide (CO2 ) from flue gas streams generated by natural gas combustion in...

Knowledge Partner : Pathways Alliance

  • locationExhibition Floor
  • small-arm10:30 AM - 11:15 AM
tuesday September 20, 2022
The Pathways Alliance Knowledge Bar

Seeking Novel Technologies for Post Combustion Capture Processes

  • pr-alarm10:30 AM - 11:15 AM
  • pr-locationExhibition Floor
Knowledge Partner
Pathways.png

As part of its suite of innovation opportunities, COSIA is looking for new transformative technologies to capture carbon dioxide (CO2 ) from flue gas streams generated by natural gas combustion in Once Through Steam Generators (OTSGs), or potentially gas turbines in the oil sands industry (mining and in-situ). Activities in this opportunity – Post combustion CO2 capture from natural gas combustion flue gas – will increase industry’s understanding of how to dramatically reduce the cost of capture (especially CAPEX) from diluted CO2 streams (<8 vol%). They will also demonstrate how the most advanced and emerging Post Combustion Capture (PCC) technologies and processes can be economically applied to oil sands production. COSIA is also interested in identifying and developing promising early technology readiness level (TRL) processes and technologies for CO2 capture at a significantly lower cost (OPEX and CAPEX) relative to existing state-of-the art advanced amines.

Robert Mugo
Robert Mugo Director GHG COSIA, Pathways Alliance
  • 11 30 AM

Innovation and Collaboration Driving Oil Sands Energy Transition

The Pathways Alliance Knowledge Bar

The oil sands industry is at the forefront of the energy transition to net zero emissions and sustainable oil. Canada and the industry’s goal is to produce energy with net zero emissions by 2050. W...

Knowledge Partner : Pathways Alliance

  • locationExhibition Floor
  • small-arm11:30 AM - 12:15 PM
tuesday September 20, 2022
The Pathways Alliance Knowledge Bar

Innovation and Collaboration Driving Oil Sands Energy Transition

  • pr-alarm11:30 AM - 12:15 PM
  • pr-locationExhibition Floor
Knowledge Partner
Pathways.png

The oil sands industry is at the forefront of the energy transition to net zero emissions and sustainable oil. Canada and the industry’s goal is to produce energy with net zero emissions by 2050. What will it take? Ground-breaking innovation and intense collaboration like the world has never seen before. A unique model of collaboration and innovation, Canada’s Oil Sands Innovation Alliance (COSIA) is building on 10 years of innovation to reduce the impacts of oil sands production on air, land and water in the oil sands region. Now a technical division of the Pathways Alliance, COSIA is developing and stewarding a 10-year evergreen plan of technology development that will allow member companies to achieve milestone GHG emission reductions. No one technology will achieve this goal and a suite of solutions are being pursued including molten carbonate fuel cells, solvents, new mining technologies, sunlight-activated water treatment and many, many more.

Wes Jickling 300x300
Wes Jickling CEO and Vice President, Technology Development COSIA
  • 1 30 PM

Seeking Novel Technologies for Post Combustion Capture Processes

The Pathways Alliance Knowledge Bar

As part of its suite of innovation opportunities, COSIA is looking for new transformative technologies to capture carbon dioxide (CO2 ) from flue gas streams generated by natural gas combustion in...

Knowledge Partner : Pathways Alliance

  • locationExhibition Floor
  • small-arm1:30 PM - 2:15 PM
tuesday September 20, 2022
The Pathways Alliance Knowledge Bar

Seeking Novel Technologies for Post Combustion Capture Processes

  • pr-alarm1:30 PM - 2:15 PM
  • pr-locationExhibition Floor
Knowledge Partner
Pathways.png

As part of its suite of innovation opportunities, COSIA is looking for new transformative technologies to capture carbon dioxide (CO2 ) from flue gas streams generated by natural gas combustion in Once Through Steam Generators (OTSGs), or potentially gas turbines in the oil sands industry (mining and in-situ). Activities in this opportunity – Post combustion CO2 capture from natural gas combustion flue gas – will increase industry’s understanding of how to dramatically reduce the cost of capture (especially CAPEX) from diluted CO2 streams (<8 vol%). They will also demonstrate how the most advanced and emerging Post Combustion Capture (PCC) technologies and processes can be economically applied to oil sands production. COSIA is also interested in identifying and developing promising early technology readiness level (TRL) processes and technologies for CO2 capture at a significantly lower cost (OPEX and CAPEX) relative to existing state-of-the art advanced amines.

Robert Mugo
Robert Mugo Director GHG COSIA, Pathways Alliance
  • 2 30 PM

Innovation and Collaboration Driving Oil Sands Energy Transition

The Pathways Alliance Knowledge Bar

The oil sands industry is at the forefront of the energy transition to net zero emissions and sustainable oil. Canada and the industry’s goal is to produce energy with net zero emissions by 2050. W...

Knowledge Partner : Pathways Alliance

  • locationExhibition Floor
  • small-arm2:30 PM - 3:15 PM
tuesday September 20, 2022
The Pathways Alliance Knowledge Bar

Innovation and Collaboration Driving Oil Sands Energy Transition

  • pr-alarm2:30 PM - 3:15 PM
  • pr-locationExhibition Floor
Knowledge Partner
Pathways.png

The oil sands industry is at the forefront of the energy transition to net zero emissions and sustainable oil. Canada and the industry’s goal is to produce energy with net zero emissions by 2050. What will it take? Ground-breaking innovation and intense collaboration like the world has never seen before. A unique model of collaboration and innovation, Canada’s Oil Sands Innovation Alliance (COSIA) is building on 10 years of innovation to reduce the impacts of oil sands production on air, land and water in the oil sands region. Now a technical division of the Pathways Alliance, COSIA is developing and stewarding a 10-year evergreen plan of technology development that will allow member companies to achieve milestone GHG emission reductions. No one technology will achieve this goal and a suite of solutions are being pursued including molten carbonate fuel cells, solvents, new mining technologies, sunlight-activated water treatment and many, many more.

Wes Jickling 300x300
Wes Jickling CEO and Vice President, Technology Development COSIA
  • 3 15 PM
Break
  • 4 00 PM

Industry Networking Reception

  • locationExhibition Floor
  • small-arm4:00 PM - 6:00 PM
tuesday September 20, 2022

Industry Networking Reception

  • pr-alarm4:00 PM - 6:00 PM
  • pr-locationExhibition Floor
  • 10 30 AM

Investigating the Techno-economic Performance of Chemical Looping Technology for Hydrogen Production

The Pathways Alliance Knowledge Bar

Objectives/Scope:
Objectives:
• Develop a process simulation model for blue hydrogen production via chemical looping partial oxidation of methane (CL-POM).
• Develop a techno-economic model f...

Knowledge Partner : Pathways Alliance

  • locationExhibition Floor
  • small-arm10:30 AM - 11:15 AM
wednesday September 21, 2022
The Pathways Alliance Knowledge Bar

Investigating the Techno-economic Performance of Chemical Looping Technology for Hydrogen Production

  • pr-alarm10:30 AM - 11:15 AM
  • pr-locationExhibition Floor
Knowledge Partner
Pathways.png

Objectives/Scope:
Objectives:
• Develop a process simulation model for blue hydrogen production via chemical looping partial oxidation of methane (CL-POM).
• Develop a techno-economic model for blue hydrogen production through CL-POM.
• Estimate the CO2 emissions and net energy ratio (NER) of blue hydrogen production via CL-POM.
• Develop the scale factor for hydrogen production using CL-POM. Scope: This work includes the techno-economic, GHG emissions, scale factor, and NER of CL-POM to produce hydrogen. The system boundary comprises hydrogen production, purification, and storage, and carbon capture, transport, and sequestration.
• Methods, Procedures, Process: The hydrogen production through CL-POM was modeled to produce 607 tonnes of hydrogen per day, using natural gas as feedstock and Ni-Al2O3 as oxygen carrier. The process modelling includes the production of syngas via partial oxidation of methane in a fluidized set of reactors using a metal oxide to separate the oxygen from the air in the air reactor and circulate it to the fuel reactor to combust the fuel. Then, the syngas undergoes water gas shift reactions at high and low temperatures to maximize the hydrogen yield. Hydrogen is purified via pressure swing absorption for aboveground storage, and CO2 is captured for transportation and sequestration. Capital investment, operating cost, and hydrogen cost were calculated based on the material and energy balance of the process. The process GHG emissions were calculated based on the natural gas used as a feedstock, the electricity demand, and the onsite emissions. The NER was determined as the ratio between the energy produced and the total energy input. We determined the scale factor by varying the hydrogen capacity of the plant and calculating the capital investment, operating cost, and hydrogen cost for each capacity.
• Results, Observations, Conclusions: The cost of hydrogen using CL-POM is C$3.66/kg. When the uncertainties in the input parameters were considered, the hydrogen cost ranged from 3.51 to 4.70 $C/kg. The most sensitive parameters impacting the hydrogen cost are internal rate of return and hydrogen storage. Economies of scale were identified in the production of hydrogen via CL-POM. The scale factor of CL-POM is 0.64. CL-POM has a NER of 0.83, confirming the high energy efficiency compared with conventional hydrogen production routes. The process GHG emissions are 2.86 gCO2/kg-H2, with natural gas upstream emissions as the highest contributor to the overall process footprint. The results show that CL-POM provides a better energy efficiency and environmental footprint than conventional hydrogen production.
• Novel/Additive Information: There is a scarcity of studies investigating the techno-economic and environmental feasibility of the partial oxidation of methane using chemical looping technology. Additionally, the published studies have not included crucial aspects such as hydrogen storage, economies of scale, and NER analysis.

Karina Anaya 300x300
Yurley Karina Anaya Jaimes Master's Student University of Alberta
  • 11 30 AM

Monitoring Surface Expression of CCUS using Satellite InSAR and In-ground Geotechnical Instrumentation

The Pathways Alliance Knowledge Bar

Underground CO2 storage involves pumping liquid CO2 in injection wells at depths that can exceed 1000 m in porous geological horizons limited above by one or several impervious geological horizons...

Knowledge Partner : Pathways Alliance

  • locationExhibition Floor
  • small-arm11:30 AM - 12:15 PM
wednesday September 21, 2022
The Pathways Alliance Knowledge Bar

Monitoring Surface Expression of CCUS using Satellite InSAR and In-ground Geotechnical Instrumentation

  • pr-alarm11:30 AM - 12:15 PM
  • pr-locationExhibition Floor
Knowledge Partner
Pathways.png

Underground CO2 storage involves pumping liquid CO2 in injection wells at depths that can exceed 1000 m in porous geological horizons limited above by one or several impervious geological horizons that will prevent short and long term upper migration of the CO2. Current storage designs anticipate the use of injection wells and observation wells that will be used to monitor the extent of the CO2 plumes. The horizontal extent of the porous geological formations in which CO2 will be stored will be considerable and the large quantities and high injection pressures of the stored CO2 could lead to disruptions in the host geological formations that could, in the worst case, compromise the integrity of the natural impervious horizons that will trap the CO2. A detailed and comprehensive Measurement, Monitoring and Verification (MMV) program is therefore required to establish a baseline and to monitor the storage complex during the injection phase and to assess its long-term performance (Monitoring, Measurement and Verification Principles and Objectives for CO2 Sequestration Projects, Alberta Energy, March 14, 2022, Version 1). Various technologies are already in use as part of MMV program, including but not limited to geophysical surveys, groundwater monitoring, pressure and temperature measurement in the injection boreholes and in observation boreholes, and CO2 flux measurement near and at the surface and in the atmosphere Proper containment of the CO2 plume into the targeted porous geological horizons need also to be monitored. If the CO2 injection was causing significant disruptions, there would be surface uplifts and movements that would arise from these underground movements. One of the best technologies for monitoring surface displacements, especially heaves and settlements is Satellite InSAR (Interferometric Synthetic Aperture Radar) which uses large scale satellite radar images to identify displacements as small as 1 mm of the earth surface. Monitored areas can be as large as 100 to 150 km2 from single images collected at intervals by satellite constellations. The presentation will cover the technology of InSAR and its capabilities and will show examples of its application for CCUS projects. Tiltmeter and GNSS technology that can also complement InSAR for surface displacement measurements will also be discussed, as well as data acquisition and visualization technologies that can be used for monitoring not only the tiltmeters and GNSS but also additional geotechnical monitoring instruments such as piezometers and borehole inclinometers, as well as groundwater monitoring instruments.

Kris Covey 300x300
Kris Covey Director of Business Development InSAR Oil & Gas Ground Movement Monitoring Solutions
  • 12 30 PM

The Role of Carbon Capture in Advanced Biofuel Solutions

The Pathways Alliance Knowledge Bar

The drive to achieve decarbonization within the energy sector is motivating the industry to investigate alternative means of producing conventional drop-in fuels. Thermo-oxidative reforming of biom...

Knowledge Partner : Pathways Alliance

  • locationExhibition Floor
  • small-arm12:30 PM - 1:15 PM
wednesday September 21, 2022
The Pathways Alliance Knowledge Bar

The Role of Carbon Capture in Advanced Biofuel Solutions

  • pr-alarm12:30 PM - 1:15 PM
  • pr-locationExhibition Floor
Knowledge Partner
Pathways.png

The drive to achieve decarbonization within the energy sector is motivating the industry to investigate alternative means of producing conventional drop-in fuels. Thermo-oxidative reforming of biomass is one of the most industrially mature technologies which is gaining significant traction, with multiple large-scale projects under various stages of development. An inherent consequence of the reforming pathway is the need to deploy carbon capture and storage (CCS) technologies, in a similar vein to existing coal to liquids processes. Unique constraints must be taken into consideration for the deployment of such processes pertaining to factors including process flexibility and trace contaminate profiles; while consideration must also be given to the value of renewable carbon contained in the process feedstock. To achieve long-term decarbonization goals and an efficient circular carbon economy, the energy industry will be required to consider trade-offs and methodologies for assigning value to the conversion of renewable carbon feedstocks. Further to the deployment of CCS processes, advanced biofuels technologies in the form of power-to-liquids (PtL) systems have the potential to utilize CO2 as a feedstock to produce convention liquid fuels. Such technologies promise the ability to monetize existing CO2 stores; and to improve conversion within conventional thermo-oxidative reforming pathways. This presentation will explore the role of carbon capture and utilization technologies in the development of advanced biofuels synthesis pathways; and ultimately, the decarbonization of liquid hydrocarbon fuels

Patrick Mraz 300x300
Patrick Mraz Process Specialist - Energy, Anything-to-Liquids (XTL) Hatch