Description:
Lignocellulosic biomass has lower bulk density and wider geographical production distribution than fossil fuels, as well as considerable variability even within the same harvest year. Distributed processes that mitigate biomass variability, densify it for transport, alter its processing characteristics and/or produce co-products can improve the overall economics of integrated biorefineries for converting renewable plant biomass. This session focuses on presentations that discuss new technologies, process economics, and/or integrated processing approaches that combine distributed processing with conversion of renewable materials into fuels and value-added products.
Sponsor:
Sustainable Biorefineries
Co-Sponsor(s):
Biorefinery Technologies for Forest Based Lignocellulosic Biomass (T4A), Process Intensification & Modular Chemical Processing (T8), Next-Gen Manufacturing (T6A)
Chair:
Nathan Mosier
Assistant Professor
Purdue University
LORRE / Agricultural and Biological Engineering
500 Central Drive, Potter Building
W. Lafayette, IN
47907
Fax Number: 765-494-7023
Email: mosiern@purdue.edu
Assistant Professor
Purdue University
LORRE / Agricultural and Biological Engineering
500 Central Drive, Potter Building
W. Lafayette, IN
47907
Fax Number: 765-494-7023
Email: mosiern@purdue.edu
Co-Chair:
John E. Aston
Chemical Engineer
Idaho National Laboratory
Biological and Chemical Processing
2525 Fremont Avenue
Idaho Falls, ID
83415
Email: john.aston@inl.gov
Chemical Engineer
Idaho National Laboratory
Biological and Chemical Processing
2525 Fremont Avenue
Idaho Falls, ID
83415
Email: john.aston@inl.gov
Papers:
Abstract Submissions Closed
See more of this Group/Topical: Sustainable Engineering Forum
