Lignocellulose, Cellulose and Lignin as Renewable Alternative Fuels for Direct Biomass Fuel Cells

被引:43
作者
Antolini, Ermete [1 ]
机构
[1] Scuola Sci Mat, Via 25 Aprile 22, I-16016 Genoa, Italy
关键词
Biomass; cellulose; fuel cells; lignocellulose; lignin; ELECTRICITY-GENERATION; SOLID OXIDE; POWER-GENERATION; CORN STOVER; RICE STRAW; ELECTROCHEMICAL OXIDATION; DIRECT CONVERSION; FILM PHOTOANODE; COFFEE GROUNDS; WASTE BIOMASS;
D O I
10.1002/cssc.202001807
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
In recent years the use of renewable sources, such as lignocellulosic biomass (LCB), as the fuel for various types of fuel cells received growing interest. Different types of fuel cells, that is, operated at low temperatures (T<100 degrees C; microbial fuel cells (MFC), alkaline (AFCs) and flow fuel cells (FFCs)), intermediate temperatures (Tin the range 150-300 degrees C, proton-conducting inorganic-organic composite membrane fuel cells), and high temperatures (T >= 500 degrees C, direct carbon fuel cells (DCFCs)), have been used for the conversion of the chemical energy in LCB to electrical energy. The economic advantage of the direct use of LCB consists of avoiding the acid hydrolysis of cellulose to glucose for low-temperature fuel cells and the pretreatment at high temperatures necessary to convert biomass to biochar (pyrolysis) in the case of high-temperature fuel cells. In this Review, the characteristics of direct biomass fuel cells are presented and their performance is compared with that of indirect biomass fuel cells fed with glucose (low-temperature fuel cells) and biochar (high-temperature fuel cells).
引用
收藏
页码:189 / 207
页数:19
相关论文
共 141 条
[1]   A Principal Component Analysis in Switchgrass Chemical Composition [J].
Aboytes-Ojeda, Mario ;
Castillo-Villar, Krystel K. ;
Yu, Tun-hsiang E. ;
Boyer, Christopher N. ;
English, Burton C. ;
Larson, James A. ;
Kline, Lindsey M. ;
Labbe, Nicole .
ENERGIES, 2016, 9 (11)
[2]   Energy recovery from cassava peels in a single-chamber microbial fuel cell [J].
Adekunle, Ademola ;
Gariepy, Yvan ;
Lyew, Darwin ;
Raghavan, Vijaya .
ENERGY SOURCES PART A-RECOVERY UTILIZATION AND ENVIRONMENTAL EFFECTS, 2016, 38 (17) :2495-2502
[3]   A review of cellulosic microbial fuel cells: Performance and challenges [J].
Ahmad, Farrukh ;
Atiyeh, Mays N. ;
Pereira, Brian ;
Stephanopoulos, Gregory N. .
BIOMASS & BIOENERGY, 2013, 56 :179-188
[4]   Polyoxometalates: formation, structures, principal properties, main deposition methods and application in sensing [J].
Ammam, Malika .
JOURNAL OF MATERIALS CHEMISTRY A, 2013, 1 (21) :6291-6312
[5]   Mediated Fuel Cells: Soluble Redox Mediators and Their Applications to Electrochemical Reduction of O2 and Oxidation of H2, Alcohols, Biomass, and Complex Fuels [J].
Anson, Colin W. ;
Stahl, Shannon S. .
CHEMICAL REVIEWS, 2020, 120 (08) :3749-3786
[6]   Alkaline direct alcohol fuel cells [J].
Antolini, E. ;
Gonzalez, E. R. .
JOURNAL OF POWER SOURCES, 2010, 195 (11) :3431-3450
[7]   The stability of LiAlO2 powders and electrolyte matrices in molten carbonate fuel cell environment [J].
Antolini, Ermete .
CERAMICS INTERNATIONAL, 2013, 39 (04) :3463-3478
[8]   The stability of molten carbonate fuel cell electrodes: A review of recent improvements [J].
Antolini, Ermete .
APPLIED ENERGY, 2011, 88 (12) :4274-4293
[9]  
Ayeni A. O., 2015, American Journal of Engineering Research, V4, P14, DOI DOI 10.1016/J.IJBIOMAC.2021.03.077
[10]  
Badwal S. P. S., 2017, ENCY SUSTAINABLE TEC, P317