Feedstock and catalyst impact on bio-oil production and FCC Co-processing to fuels

被引:9
|
作者
Magrini, K. [1 ]
Olstad, J. [1 ]
Peterson, B. [1 ]
Jackson, R. [1 ]
Parent, Y. [1 ]
Mukarakate, C. [1 ]
Iisa, K. [1 ]
Christensen, E. [1 ]
Seiser, R. [1 ]
机构
[1] Natl Renewable Energy Lab, 15013 Denver West Pkwy, Golden, CO 80401 USA
关键词
Catalytic fast pyrolysis; Co-processing; Zeolite catalysts; Fluidized catalytic cracking; Biogenic carbon; FAST PYROLYSIS; BIOFUEL PRODUCTION; GAS-OIL; BIOMASS; LIQUIDS; CARBON; VGO;
D O I
10.1016/j.biombioe.2022.106502
中图分类号
S2 [农业工程];
学科分类号
0828 ;
摘要
NREL's thermochemical biomass conversion research is focused on ex-situ upgrading of biomass fast-pyrolysis (FP) vapors as an efficient route to completely biogenic pyrolysis-based fuel precursors, fuels, and valueadded chemicals depending on catalyst and process conditions. A near term pathway being developed uses these liquids for co-processing with petroleum feedstocks to assess biogenic carbon incorporation in hydrocarbon fuel feedstocks for potential refinery use. In this work, the impact of feedstock and catalyst on catalytic fast pyrolysis oil (CFPO) composition was determined with the oils then assessed for biogenic fuel production via FCC (fluidized catalytic cracking) co-processing. Biomass vapors were generated via fast pyrolysis with destabilizing vapor components (char, inorganics, tar aerosols) removed by hot gas filtration to produce clean vapors more responsive to catalytic upgrading. A Davison Circulating Riser (DCR), a petroleum industry standard for fluidized catalytic cracking (FCC) catalyst evaluation, was coupled to a custom pyrolyzer system designed to produce consistent-composition pyrolysis vapors as feed to the DCR. Pyrolysis vapors, derived from pure hardwood and softwood, were upgraded using commercially available modified zeolite-based catalysts to produce CFPOs. These upgraded oils were analyzed via 31P and 13C NMR spectroscopy, GCxGC-TOF/MS, carbonyl and ultimate analysis (CHNO), and simulated distillation (SIMDIS) to assess both oil chemistry and distillation behavior as they relate to catalyst and feedstock type for producing fungible hydrocarbon product liquids. These exploratory vapor phase-upgrading results demonstrated the feasibility of producing refinery-compatible hydrocarbon fuel intermediates entirely from biomass-derived fast-pyrolysis vapors using an industry-accepted DCR system for catalytic upgrading. The FCC co-processing results demonstrated the feasibility of using CFPOs with VGO feeds in FCC refinery operations to produce biogenic carbon containing fuels.
引用
收藏
页数:10
相关论文
共 50 条
  • [41] Kinetic Modeling for Co-processing the High-boiling Fraction of Bio-oil with Paraffin Oil Considering the Deactivation by Coke
    Wan, L.
    Zhang, S. -P.
    Zhao, S. -T.
    Xu, Q. -L.
    Yan, Y. -J.
    ENERGY SOURCES PART A-RECOVERY UTILIZATION AND ENVIRONMENTAL EFFECTS, 2013, 35 (09) : 800 - 808
  • [42] Multiperiod Two-Stage Stochastic Programming of Supply Chain for Co-Processing System of Bio-Oil and Heavy Oil
    Xie, Chaoliang
    Tian, Yanmei
    Wu, Le
    ACS SUSTAINABLE CHEMISTRY & ENGINEERING, 2023, 11 (09) : 3850 - 3860
  • [43] Synergistic co-processing of an acidic hardwood derived pyrolysis bio-oil with alkaline Red Mud bauxite mining waste as a sacrificial upgrading catalyst
    Karimi, Elham
    Teixeira, Ivo Freitas
    Gomez, Ariel
    de Resende, Eliane
    Gissane, Christopher
    Leitch, Jay
    Jollet, Veronique
    Aigner, Isabella
    Berruti, Franco
    Briens, Cedric
    Fransham, Peter
    Hoff, Brent
    Schrier, Nick
    Lago, Rochel M.
    Kycia, Stefan W.
    Heck, Richard
    Schlaf, Marcel
    APPLIED CATALYSIS B-ENVIRONMENTAL, 2014, 145 : 187 - 196
  • [44] Co-processing of Waste Cooking Oil and Light Cycle Oil with NiW/(Pseudoboehmite + SBA-15) Catalyst
    Herrador, Jose Miguel Hidalgo
    Psenicka, Martin
    Horacek, Jan
    Tisler, Zdenek
    Vrablik, Ales
    Cerny, Radek
    Murat, Martyna
    CHEMICAL ENGINEERING & TECHNOLOGY, 2019, 42 (02) : 512 - 517
  • [45] Life cycle greenhouse gas emission analysis of co-processing of algal bio-oil and vacuum gas oil in an existing refinery
    Zhang, Jingyu
    Xu, Weibin
    Zhang, Shuai
    Zhu, Yonghong
    Wu, Le
    ENERGY CONVERSION AND MANAGEMENT, 2024, 307
  • [46] Correlation of Feedstock and Bio-oil Compound Distribution
    Li, Jian
    Chen, Yingquan
    Yang, Haiping
    Zhu, Danchen
    Chen, Xu
    Wang, Xianhua
    Chen, Hanping
    ENERGY & FUELS, 2017, 31 (07) : 7093 - 7100
  • [47] From biomass to bio-gasoline by FCC co-processing: effect of feed composition and catalyst structure on product quality
    Fogassy, Gabriella
    Thegarid, Nicolas
    Schuurman, Yves
    Mirodatos, Claude
    ENERGY & ENVIRONMENTAL SCIENCE, 2011, 4 (12) : 5068 - 5076
  • [48] Production of renewable fuels by blending bio-oil with alcohols and upgrading under supercritical conditions
    Omar, Sainab
    Alsamaq, Suzanne
    Yang, Yang
    Wang, Jiawei
    FRONTIERS OF CHEMICAL SCIENCE AND ENGINEERING, 2019, 13 (04) : 702 - 717
  • [49] Co-processing of Biocrudes in Oil Refineries
    Lindfors, Christian
    Elliott, Douglas C.
    Prins, Wolter
    Oasmaa, Anja
    Lehtonen, Juha
    ENERGY & FUELS, 2023, 37 (02) : 799 - 804
  • [50] Thermodynamic analysis of polygeneration systems based on catalytic hydropyrolysis for the production of bio-oil and fuels
    Nguyen, Tuong-Van
    Clausen, Lasse Rongaard
    ENERGY CONVERSION AND MANAGEMENT, 2018, 171 : 1617 - 1638