Impact on Crude Quality

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Partial Upgrading of Bitumen Impact on Crude Quality Presented to the joint COQA/CCQTA Meeting Denver, Colorado May 2018

Overview Interest in partial upgrading of bitumen Alberta Government incentives Partial upgrading is? Range of technologies under development Impact on crude quality CCQTA initiatives Conclusions Reference May 24, 2018 CCQTA/ COQA Joint Meeting Slide 2

Partial Upgrading in Alberta New Alberta Government incentives in place to encourage technology development Motivation Diluent avoidance Diluted bitumen is up to 30% natural gas condensate Estimated cost US$14/bbl * Market access issues Pipeline limitations Quality improvements over bitumen Marketability and value New market opportunities Reduced bottoms can fit more refineries Provide options for bitumen producers * Jacobs Consultancy Bitumen Partial Upgrading Whitepaper March 2018 AM 401A Alberta Innovates May 24, 2018 CCQTA/ COQA Joint Meeting Slide 3

Partial Upgrading in Alberta Government Incentives $1 billion offered to support development Source: Edmonton Journal Feb 26, 2018 May 24, 2018 CCQTA/ COQA Joint Meeting Slide 4

National Partial Upgrading Program Initiated by Alberta Innovates in 2014 to get Alberta s bitumen resources to market A combined government and industry group Pools national ingenuity Find the most environmentally friendly and economically-sustainable methods to transform bitumen NPUP created to identify technologies that upgrade bitumen to meet the minimum pipeline specifications at a low cost May 24, 2018 CCQTA/ COQA Joint Meeting Slide 5

National Partial Upgrading Program Alberta Innovates recently released Whitepaper (Jacobs Consultancy) May 2018 * Scan and evaluate 25 partial upgrading technologies at various stages of development Results will help determine which technologies are ready for more detailed evaluation and development Key conclusion: Multiple technologies under development making different products More R&D work needed to better understand the impact of partially upgraded product quality on refinery processability and value * Report link at the end of the presentation May 24, 2018 CCQTA/ COQA Joint Meeting Slide 6

Partial Upgrading Partial upgrading of bitumen produces a refinery feedstock product In between bitumen and full SCO Target is to upgrade bitumen sufficiently that it does not require pipeline diluent Freeing up pipeline capacity (30%) A range of technologies have been evaluated Development, pilot, field demonstration commercial Partial upgrading could takes place in the field near the wellhead Central stand alone or bolt-on to production facility May 24, 2018 CCQTA/ COQA Joint Meeting Slide 7

Where Does Partial Upgrading Fit? Partial bitumen upgrading of SAGD produced bitumen can be located either at the production site or a central stand-alone facility May 24, 2018 CCQTA/ COQA Joint Meeting Slide 8

Processing Objective The proven technologies that achieve the necessary results involve a combination of: Thermal cracking Carbon rejection Hydrogen addition Developmental technologies can include new approaches: Fluid mechanical techniques Catalysts and additives The prescribed goal is to upgrade bitumen to meet pipeline specifications Outside the range Undiluted bitumen shipped by rail Bitumen to finished products May 24, 2018 CCQTA/ COQA Joint Meeting Slide 9

Partial Upgrading Goals Low cost, low intensity processing Various approaches with a range of products Primary processing target: Convert bitumen to a product that does not require diluent for common carrier pipeline transport Pipeline specifications: 19 API 350 cst at ground temperature Bottoms Sediment and Water < 0.5 vol% Olefins < 1 wt% (as measured by NMR) Product must be suitable for refinery processing Control of contaminants and undesirables May 24, 2018 CCQTA/ COQA Joint Meeting Slide 10

Partial Upgrading Developers Partial upgrading of bitumen to a pipelineable typically takes one of two pathways using thermal conversion: No rejected material This minimizes cost and maximizes yield Partial conversion of heavy components No rejection of contaminants Asphaltene removal Thermal conversion with removal of a portion of the asphaltenes Achieve pipeline specifications and simultaneously improve the value of the partially upgraded product May 24, 2018 CCQTA/ COQA Joint Meeting Slide 11

Partial Upgrading Developers Thermal conversion is at the heart of all promising technologies Mature enough to consider for demonstration or commercialization Low cost Thermal processing remain poorly understood Despite long use in petroleum refinery processing This may impact the valuation of partially upgraded bitumen-derived crude oils Potential risks of making products that are not well received or valued by the market May 24, 2018 CCQTA/ COQA Joint Meeting Slide 12

Challenges Key factors associated with successful deployment of partial upgrading in Alberta: Changing market conditions Logistical barriers Mismatch between properties desired by crude oil refiners and achieved by partial upgrading High capital and operating costs Yield loss GHG impact Lack of scale Technical risks Need a solid technical basis to support a viable business case May 24, 2018 Slide 13 CCQTA/ COQA Joint Meeting

Progress Work is progressing on technology development through: Multiple pilot plants are planned or have been built Research and Development continues New and different technologies Field demonstration unit construction Government support, both Federal and Provincial is being promoted to mitigate challenges May 24, 2018 Slide 14 CCQTA/ COQA Joint Meeting

Considerations Technology success parameters based on: Market What product is produced Technical performance Cost Yield, quality, and environmental Capital and operating Screening of technology options intended to: Inform the identification and selection of appropriate technologies Technology that is suitable to be developed and supported by industry and government consortium investments May 24, 2018 CCQTA/ COQA Joint Meeting Slide 15

Technology Review 25 technologies identified Screened related to: Ability to produce partially upgraded bitumen meeting pipeline specifications (API, Viscosity, Olefins) Upgrading steps Primary, secondary and treating Viability of technology Technical and product market basis Environmental performance GHG production relative to baseline Field vs central Bolt on vs stand alone May 24, 2018 CCQTA/ COQA Joint Meeting Slide 16

Technology Review Commercially Demonstrated Technology Process Type Partially Upgraded Target Delayed Coking Severe thermal cracking exceeds Mining PFT (Paraffinic Froth Treatment) Asphaltene removal meets - with diluent Solvent Deasphalting Asphaltene removal meets - with diluent SELEX-Asp (solid asphaltene removal) Asphaltene removal meets - with diluent Visbreaking Mild thermal cracking meets - with diluent Alberta Taciuk Retort Process (ATP) Severe thermal cracking exceeds Expander Energy FT Crude Asphaltene removal + asphaltene gasification + Fischer Tropsch exceeds Partially upgraded target is product that meets pipeline specifications for API gravity, viscosity and olefins May 24, 2018 CCQTA/ COQA Joint Meeting Slide 17

Technology Review Field Demonstration Technology Process Type Partially Upgraded Target Fractal Systems Jet Shear /Enhanced Jet Shear mild thermal cracking + fluid mechanical meets - with diluent Fluid Oil Viscositor (Ivanhoe HTL) severe thermal cracking exceeds Field demonstration units typically sized for 1,000 1,500 BPD May 24, 2018 CCQTA/ COQA Joint Meeting Slide 18

Under Development Technology Review Technology Process Type Partially Upgraded Target Husky HDR - Hydrogen Donor Cracking with SCO mild thermal meets MEG HI-Q Partial Upgrading Technology Nexen's BituMax Partial Upgrading Technology VCI's ADC and COC Technologies mild thermal + solid asphaltene removal asphaltene removal + mild thermal solid asphaltene removal + severe thermal cracking meets meets meets Water-Based Supercritical Solvent Extraction (JGC) mild thermal + water extraction meets Hydrovisbreaking mild thermal + hydrotreating May meet ETX Systems IYQ Technology severe thermal cracking exceeds Field Upgrading - Molten Sodium Upgrading direct sulphur removal + sodium regeneration exceeds on sulphur Water-Based Catalytic Visbreaking (Aquaconversion) mild thermal does not meet Superior Upgrading Tech./Hammer Technology fluid mechanical unknown Lab tested at bench scale and pilot plant, leading to field demonstration May 24, 2018 CCQTA/ COQA Joint Meeting Slide 19

Technology Review Other Technology Process Type Partially Upgraded Target Novel Diluent dilution with non-traditional diluents not met Bitumen solidification Encapsulation not met Auterra Oxidative Desulfurization sulphur removal unknown Electromechanical based technologies physical separation unknown Novel Additive-Based Upgrading various unknown In Situ Upgrading various unknown There are a range of other partial upgrading technologies which are at early stages of development May 24, 2018 CCQTA/ COQA Joint Meeting Slide 20

Recommendation for R&D Viscosity reduction Alternatives to thermal cracking Asphaltene stability Stability, compatibility and fouling propensity Olefin reduction Good vs bad olefins Asphaltene uses New markets and uses for rejected by-product Quality improvement vs price for partially upgraded bitumen Value to refiners of key quality improvements TAN reduction May 24, 2018 CCQTA/ COQA Joint Meeting Slide 21

CCQTA Initiatives Active CCQTA products that related to the recommended R&D initiatives Properties of Thermally Processed Materials (Olefin reduction) Investigate the properties of materials that have been thermally processed through partial upgrading processes Differentiate between cracked and virgin products Further identify which of those differing properties result in negative impacts to downstream operations May 24, 2018 CCQTA/ COQA Joint Meeting Slide 22

CCQTA Initiatives Crude Oil Compatibility Test Method Measurement of stability, compatibility and fouling propensity Applicable to partially upgraded products and blends TAN Reduction Long history of developing test methods applicable to partially upgraded materials leading to a published white paper This white paper provides a brief summary of the 14 year history of this project and findings is available on the CCQTA web site May 24, 2018 CCQTA/ COQA Joint Meeting Slide 23

Conclusions Partial Upgrading technology developments progressing A range of technologies produce a range of products Work is necessary to better understand the relationship between product quality and value to the market R&D efforts identified with the CCQTA active in projects to better understand the quality impacts on refinery customers May 24, 2018 CCQTA/ COQA Joint Meeting Slide 24

Alberta Innovates Report https://albertainnovates.ca/wp-content/uploads/2018/05/bitumen-partial- Upgrading-2018-Whitepaper-2433-Jacobs-Consultancy-rev7.pdf May 24, 2018 CCQTA/ COQA Joint Meeting Slide 25

Contact Us WWW.CCQTA.COM May 24, 2018 CCQTA/ COQA Joint Meeting Slide 26