Combining industrial scale biosynfuel production with economic biomass logistics

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Combining industrial scale biosynfuel production with economic biomass logistics Funded by: Nicolaus Dahmen, bioliq project, Karlsruhe Institute of Technology (KIT) Armin Günther, Air Liquide / Lurgi GmbH Sustainable biofuels From Pilot to demonstration: case studies 1 N. Dahmen ITC-CPV 13.01.2009

THE CONCEPT: Energy density [GJ/m 3 ] Biomass harvesting Transport radius THE TECHNOLOGY: Straw 2 Biosyncrude 25 Diesel 36 Regional intermediate fuel production regionale Pyrolyse- Anlagen Zentraler Centralized syngas- and synfuel production 25 km 250 km Biomass Central Fast pyrolysis Biosyncrude Stroh preparation High pressure entrained flow gasification Gas cleaning and conditioning De-central Fuel synthesis Biosynfuel MAIN FEATURES: Large biosynfuel production capacities possible Agriculture and forestry participate in the value chain Use of any kind of dry lignocellulosic material Technologies already demonstrated/commercialized utilizing fossil fuels ( e.g. LR Coker, MPG, Rectisol, Megamethanol, GTL.F1..) 2 N. Dahmen ITC-CPV 13.01.2009

CRITICAL and CORE TECHNOLOGIES: The principle technical feasibility of the critical process steps has been proven: Fast Pyrolysis in Process Development Units (15 kg/h) Entrained Flow Gasification in a 3-5 MW pilot gasifier (26 bar) With biosyncrudes prepared from a variety of biomass feeds CORE TECHNOLOGIES and CHALLENGES: Fast pyrolysis to make it a Pre-treatment: MOST CRITICAL! - simple (cost and energy efficient) - robust (broad feedstock range) - multi-feed (changing feedstocks) High Pressure Entrained Flow Gasification up to 80 bars based on MPG technology - with hot gas cleaning - high pressure atomization of slurries containing solids - increasing energy efficiency, heat integration and recovery - slag recovery and recycling Synfuels via Fischer-Tropsch (GTL.F1 ) are commercially available. Bioliq aims at the production of Biosynfuels via the methanol/dme route. R&D is to be performed for all processes! 3 N. Dahmen ITC-CPV 13.01.2009

The bioliq PILOT PLANT: Fast pyrolysis with twin screw mixing reactor (500 kg/h, 2 MW) Subsequent mixing of pyrolysis products by colloidal mixing High Pressure Entrained Flow Gasification up to 80 bar (2-5 MW) High pressure high temperature gas cleaning and conditioning Methanol/DME synthesis followed by Methanol /DME to Synfuel synthesis (2 MW, ~100 L/h biosynfuel) Actual project cost plan Approved Applied for Pilot plant Stage 1 Stage 2 Stage 3 Stage 4 Process Fast pyrolysis High pressure entrained flow gasification Gas cleaning + Synthesis I Synthesis II Product bioliqsyncrude Synthesis gas Methanol DME Synthetic Diesel Fuel Realization 2008 2011 2012 2013 Cost (Inv.) 8,2 Mio. 24,8 Mio. 11,9 Mio. 5,6 Mio. 4 N. Dahmen ITC-CPV 13.01.2009

Road map for Pyrolysis Demo: Process demonstration first of all required for Fast Pyrolysis ( 10 t/h, 50 MW) Alternative Biosyncrude utilization options Planning and basic engineering demonstration unit Contracting and logistics for 50.000 t/a biomass and biosyncrude Detailed engineering and demo plant construction Commissioning PARTNERS: Engineering and construction Feedstock supplier Plant investors / operator Product off-take / delivery Conclusion: Demonstration of the complete bioliq-process chain Provide single process steps as modular units for other process chains as contribution for advanced decentralized / centralized solutions for large B-XTL industrial plants 5 N. Dahmen ITC-CPV 13.01.2009