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1. 1 Economics of chemicals and fuels from forest biomassTom Browne
2. Annual average oil prices, $US/bbl $80 to $100/bbl: the new normal? Apart from a couple of geopolitical events in the 1970s and 1980s, oil has been at $20/bbl from the end of WWII to about 2004.
At $20, there are not a lot of commercially-viable biomass-based opportunities for new products.
Barring unforeseen events such as a glut of shale oil driving prices down, new oil production costs a lot more than drilling a hole in Saudi Arabia. The cash costs associated with deep offshore or arctic drilling, or oil sands production, imply a new long-term price of $80 to $100 which leaves lots of room for new bio-products.Apart from a couple of geopolitical events in the 1970s and 1980s, oil has been at $20/bbl from the end of WWII to about 2004.
At $20, there are not a lot of commercially-viable biomass-based opportunities for new products.
Barring unforeseen events such as a glut of shale oil driving prices down, new oil production costs a lot more than drilling a hole in Saudi Arabia. The cash costs associated with deep offshore or arctic drilling, or oil sands production, imply a new long-term price of $80 to $100 which leaves lots of room for new bio-products.
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4. Regional newsprint demand Severe drop in NA, flat in EU, growth in Asia
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6. A Lesson from Petroleum Refineries
7. Todays Forest Bio-refinery
8. Scale of Refineries
9. Economies of scale vs. feed costs
10. Economies of scale vs. feed costs
11. Volume or Value?
12. Substitution of Existing Chemical Feeds Tactical approach:
Requires an exact molecular replicate of existing feeds
Cost, product performance will be crucial
Olefins: thin margins, strong competition
Bio-ethylene from Brazilian sugar cane
BTX: Breakthrough required
No easy path from lignin to commercial aromatics
The same issues of volumes vs. capex arise
13. New Chemicals Based on Bio-properties Identify novel products based on unique biomass properties
Requires strategic thinking
Cost less critical if
new functionalities
available?
Exact molecular
replicate less critical?
New capital
infrastructure?
Is this our 4%?
14. Approach Identify value-added products from wood
Focus on chemicals first, then energy from residues
Early economic evaluation (Bio-Pathways)
Start with bolt-on additions to existing plants
Improve economics of existing infrastructure
Reduce costs due to shared infrastructure
Build relationships with customers
Lab-scale samples initially, pilot scale as demand arises
Ensure product meets customers needs
Involve engineering firms early
Good estimates of capex, opex, unexpected problems
15. Long term: brownfield biorefineries Located on an existing mill site
Reuse existing equipment
Integrated with forestry supply logistics
Build it as big as possible, consistent with supply costs
Produce a cheap-to-ship intermediate
Better understanding of processes and markets allows this
Use all components of wood in profitable fashion
Energy self-sufficient
Integrated with end-users infrastructure
Minimize changes to existing petro-chemicals
16. Pathways
17. Forestry-Chemical Industry: one model
18. Conclusion Biomass is bulky, wet and distributed
Petroleum is cheap, dense, comes out of a pipe
GWTH-scale of forestry installations:
Driven by feedstock costs
Implies additives, not wholesale replacement
Competing in commodities will be very challenging
The petroleum example is critical
4% of feed makes 42% of revenues
Doing something useful with the other 96% is equally critical
We can always burn the residues
Combustion, fermentation are among our oldest technologies
19. Mankinds oldest technologies The pointy stick
To catch dinner
20. Thank you for your attention Support came from Natural Resources Canadas Transformative Technologies Program
Tom.Browne@FPInnovations.ca
+1 514 630 4104