Biomass Feedstock Bottlenecks Approach Expertise S1007 The Science and Engineering for a Biobased Industry and Economy “Multistate Research Committee”

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Presentation transcript:

Biomass Feedstock Bottlenecks Approach Expertise S1007 The Science and Engineering for a Biobased Industry and Economy “Multistate Research Committee” A.R. Womac, The University of Tennessee November 6-7, 2003 Washington, D.C.

“Feedstock” Biologically Based – Recent Solar Capture Many sources – Much potential Typically Voluminous Typically Cultivated/ Cultured Feedstock Supply/ Engineering –Growth –Harvest –Handle –Store –Transport –Processe –“Supply and Prep of Plant Material for Conversion”

Feedstock Integration Feedstock Supply Can’t Function in a Knowledge Vacuum –Optimizing Biological production versus ease of Harvesting? –Knowledge of Feedstock value versus Over-investment? –What are feedstock requirements and tolerances for the conversion? –What do feedstock quality compromises do to conversion efficiency? –Does large-scale conversion perform like bench-top experiments? –Standards for At-the-Door Feedstock Characteristics

Feedstock Bottlenecks Growth –Impact of system design on biomass yield and quality –Impact of system operation on ecosystem and environment Harvest –Terrestrial and Aquatic cutting and gathering equipment –Ag machinery not robust for many feedstock sources Storage –Wet versus Dry –Supply Management versus Fermentation versus Drying Energy Transport –Handling Discrete versus Continuous Units –Transport Density versus Densification Energy Processing –Size Reduction Energy versus Conversion Process Efficiency –Physical Separation versus Benefits Standardization –Few standards to ensure consistent feedstock supply to processing plants

Feedstock Approach Growth –Optimization of Genetic and Agronomic Factors –Harvest frequency on Yield, Quality, Wildlife Habitat, CRP grasslands Harvest –Take advantage of Biomass Weakest Mode of Failure –In-Field processing, Size Reduction, Dry Flowable Product, Densification Storage –Centralized storage – methods, deterioration, Dry Matter Losses –In-field “storage” Transport –Availability - Use - Moisture - Deterioration Strategies –GPS – GIS – Shortest Distance Management Processing –Size Reduction Optimization –Separation Benefits Standardization –ASAE and other – Uniform terminology, system integration

Feedstock Expertise Growth –Paul AdlerAgronomistUSDA-ARS –Lewis LiuMolecular BiologistUSDA-ARS –David BruneEngineerClemson University Harvest –Raymond Huhnke Engineer Oklahoma State University –Shahab SokhansanjEngineerORNL –Alvin Womac Engineer University of Tennessee Storage –Carl BernEngineerIowa State University Transport –Michael MontrossEngineerUniversity of Kentucky Processing –Lonnie IngramMicrobiologistUniversity of Florida –Lester PordesimoEngineerUniversity of Tennessee Standardization –All