The Sugarcane Industry Wastes Considerable Energy The current sugarcane market in Brazil produces an excess of unused resources. Following sugar extraction,

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The Sugarcane Industry Wastes Considerable Energy The current sugarcane market in Brazil produces an excess of unused resources. Following sugar extraction, the remaining sugarcane bagasse is burned as fuel for on-site sugarcane mills. Although the bagasse is recycled, the current process does not optimize the high energy potential of the cellulosic components of bagasse. The proposed design seeks to convert cellulose and hemicellulose into ethanol and butanol to substantially increase the profitability of the system. The application of bioreactors will also minimize the associated energy requirements of our design. Creating Green Energy from An Otherwise Unusable Energy Source Design an industrial size plant while optimizing cost and sustainability Transmute sugarcane bagasse into profitable energy sources Process Specifications Conversion of Sugarcane Bagasse to Butanol and Ethanol via Solid State Fermentation Converting Sugarcane Bagasse into Ethanol and Butanol What are the benefits of this design? Optimization of cost - Production rather than purchase of enzymes - Mild reactor operating conditions - Minimal transportation costs - Economy of scale Reduces carbon footprint by 47.4% through conversion of lignin to biochar The plant will break even in 15 years References and Acknowledgements Kheng, P.P. and Omar, I.C. Journal of Science Technology 2005, Mekala, N.K., et al. Applied Biochemical Biotechnology 2008, 121, Petiot, E. Ethanol Producer Magazine 2008 We would like to acknowledge Dr. Kenneth Cox, Dr. Tracy Volz, Dr. George Bennett, Dr. Ann Saterbak, and Megan Weeks for their assistance on our design project The Chosen Location, Feedstock, and Products Allow for Maximum Profitability Why São Paulo, Brazil? - Greatest availability of feedstock from sugarcane processing company Cosan Limited 2 - Familiarity with sugarcane bagasse treatment 1 Why bagasse? - Waste product in large excess - Room to maximize energy usage and profitability Why ethanol and butanol? - High-value chemicals with substantial market in Brazil Bioreactors Offer An Innovative Industrial Scale Design Solid state fermentation (SSF) - Cell growth on surface of solid substrate produces extracellular enzymes, avoiding high purchase cost - Optimize reactor conditions to direct metabolism of specific enzymes 5 Enzyme hydrolysis of cellulosic components to fermentable simple sugars - Cellulase converts cellulose to glucose 4 - Xylanase converts hemicellulose to xylose 3 Department of Chemical and Biomolecular Engineering Rice University, Houston, TX James Carpenter - Barney Cruz Austin Lipinski - Laura Tanenbaum Michael Taylor Xylanase Sugarcane bagasse Lignin Hemicellulose Cellulose Cellulase EthanolButanolBiochar Process Stream Heat Flow (kW) Required1500 Generated1216 Input284 Process Stream Mass Flow (kg/h) Bagasse (Feed)1000 Ethanol46.2 Butanol7 Biochar56 The Plant will Break Even in 15 Years Interst rate = 10% IRR = 11% NPV = $106,000