水热液化
生物过程
原材料
生物燃料
环境科学
生物量(生态学)
玉米秸秆
制浆造纸工业
生物能源
藻类
废物管理
农学
植物
工程类
生物
生态学
化学工程
作者
Yunhua Zhu,Susanne B. Jones,Andrew J. Schmidt,Heather Job,Justin M. Billing,James R. Collett,Kyle R. Pomraning,Samuel P. Fox,Todd R. Hart,Scott Edmundson,Michael R. Thorson,Pimphan A. Meyer,Lesley Snowden-Swan,David M. Anderson
摘要
A preliminary techno-economic analysis (TEA) was developed for the fiscal year 2020 state of technology (SOT) assessment to evaluate the benefits and risks for a large-scale microalga hydrothermal liquefaction (HTL) system based on most recent testing results. The focus of the study is directed toward the conversion system, which consists of five processes: two-stage sequential HTL (SEQHTL), biocrude upgrading to final fuels, bioprocessing for co-product generation, hydrogen generation, and steam cycle. In this system, algae biomass with corn stover supplement during the lower algae productivity seasons (winter, fall, and spring) to match the maximum algae seasonal production rate in summer is employed to maintain a constant plant capacity in all the seasons. Algae only (summer season) or algae/corn stover blended feedstock (other seasons) are sent to a two-stage SEQHTL process. In stage I, the carbohydrates in the feedstock are extracted and separated from the residual solid. The residual solid from stage I is further converted to biocrude in the SEQHTL stage II step. The biocrude is upgraded to final fuel products in an upgrading process. The extract stream from HTL stage I is sent to the bioprocessing section for co-product generation via fermentation of carbohydrate. Lactic acid (LA) is assumed to be the co-product based on current bioprocessing testing results.
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