喷气燃料
航空燃料
原材料
石墨
废物管理
材料科学
化石燃料
可再生能源
燃料油
可再生燃料
环境科学
化学
有机化学
冶金
工程类
电气工程
作者
Lillian Lower,Steven M. Rowland,Michael Regula,Kristiina Iisa,Zachary A. Combs,Sunkyu Park,T. J. De Vries,Ton R. Vries,Mark R. Nimlos,William Joe Sagues
出处
期刊:Chemsuschem
[Wiley]
日期:2025-03-04
卷期号:18 (10): e202402509-e202402509
被引量:7
标识
DOI:10.1002/cssc.202402509
摘要
Abstract Battery‐grade graphite and aviation fuel are traditionally produced from non‐renewable, fossil carbon feedstocks and result in substantial greenhouse gas emissions. Biomass holds exciting potential as a renewable and sustainable feedstock for the production of graphite and aviation fuel, but challenges exist including the necessity of a catalyst when producing graphite and low selectivity when producing aviation fuel. A process to convert a biomass‐derived feedstock into graphite without the use of a catalyst and fuels with high selectivity towards sustainable aviation fuel (SAF) is innovated. Heavy bio‐oil undergoes a conversion process similar to the commercial production of synthetic graphite including coking at 500 °C, calcination at 1000 °C, and graphitization at 2800 °C. The resulting biographite exhibits excellent performance in lithium‐ion battery configurations with specific capacity of ~330 mAh g−1 and a 96.8 % capacity rebound after high rate cycling. The liquid hydrocarbon co‐product from coking is suitable for hydrotreating into SAF. The aviation fuel fraction (70 wt % of the fuel produced) meets ASTM standards and is composed primarily of cycloalkanes (~80 wt %) which improves energy density compared to paraffins produced by other SAF pathways and may replace aromatics for elastomer swelling in traditional jet fuel with less soot production.
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