Termites: The Green Solution Travis Bradshaw, Bill Eggert, Elyse Landry, Leo Logan, Sean Murray Location: Nantong, China Primary rice producing area Two.

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Termites: The Green Solution Travis Bradshaw, Bill Eggert, Elyse Landry, Leo Logan, Sean Murray Location: Nantong, China Primary rice producing area Two harvesting periods per year Cellulosic Biomass: The waste material present in all plant material including corn stover, rice husks, and saw dusk Goals : Cellulosic Biomass Valuable Products Reduce energy demand and carbon footprint using an innovative design Reduce energy cost and carbon footprint Background/Goals: Using Nature’s Power: Waste to Value Acknowledgements: Dr. Kenneth Cox, Dr. Strait Termite Enzyme: Versatile cellulose digester that can react with any cellulosic feed stock Dilute Acid Pretreatment: Increases the efficiency of the termite enzyme digestion Cellulose Acetate Production Non-reacted cellulose created into valuable synthetic fiber Heat Integration Remaining lignin and cellulose burned to fuel plants energy needs Innovation: H₂SO₄ Heated Pretreatment Fermenters EtOH Cellulose, Lignin, Hemicellulose Acid Pretreatment, Acytelation, Filtration Sold as. Synthetic Fiber Furnace Electricity/Steam Glucose Termite Enzymatic Reactor EtOH, AcOH, Succ Acid Glucose Unreacted Celluloses, Lignin Cellulose Acetate Lignin Distillation 1100 lb/hr 8000 lb/hr 400 lb/hr 3.6 x10 6 BTU/hr Cellulosic Biomass Cellulose Acetate Production Waste from Enzymatic Hydrolysis Batch: AcOH, (CH₃CO)₂O, CH₂Cl₂, H₂SO₄ Cellulose Acetate intermediate Solid/ Liquid Separation Solid Residue Liquid Filtrate Batch : Chloroform Solid Residue: lignin Liquid Filtrate Evaporation Cellulose Acetate Rice Husk 20% of rice harvest by mass is husk Commonly thrown in refuse heaps/burned to produce energy Grown easily in China Basis size Plant will accept rice husks from 50,000 acres (~80 mi 2 ) Husks will be stored during the year to allow a constant feed rate Feedstock composition 56% Cellulose/Hemicellulose 16% Lignin 18% Ash (Primarily SiO 2 ) 10% Moisture Feedstock: Energy Crisis: Due to the global population growth, there is high demand for a renewable fuel. Current energy oil consumption is 31 billion barrels per year and only 2962 billion barrels remain. With consumption growth of 2% per year the reserves are expected to last for 68 years. China’s Economic Growth: China exports over $24 billion dollars worth of textiles. As their industries continue to grow more synthetic fibers will be needed. Carbon Footprint: Current industrial processes produce greenhouse gases that contribute to environmental consequences. Motivation: Pressure Vessels Pretreatment Reactors: $107k Enzymatic Reactors: $865k Fermenters: 8x125k=$1,005k Heat Exchangers 5 S/T Exchangers: $150k total Furnace: $644k Separators Molecular Sieve Tower: $1250k Liquid/Solid Separators (4): $2500k Storage Will need 7 silos to store rice husk at peak harvest time :7x110k=$770k Major Unit Costs: Dilute Acid Pretreatment/Termite Enzyme Saccharifcation Milled Rice Husk H₂SO₄ Pretreatment Solid/ Liquid Separation Enzymatic Reactor Solid/ Liquid Separation 8000 lb/hr Unreacted Celluloses, Lignin Glucose, Water Milled Husk Ambient T Milled Husk 121 C and 1 atm* Unreacted solids 45 C 1 atm To Fermentation Process To Cellulosic Acetate Process *Not Shown: Heat exchanger with steam in series to achieve target temperature Solid/ Liquid Separation To Furnace Glucose EtOH, AcOH, Succ Acid, CO2 Filtration Solid Residue Fermentation Air Primary Fermentation 23 ⁰C Secondary Fermentation 35 ⁰C Vapor : CO 2 Liquid Filtrate: EtOH, AcOH Molecular Sieve Dehydration Calcium Succinate EtOH Knock-out Pot CO 2