Life cycle analysis of direct and indirect coal liquefaction for vehicle power in China

被引:41
作者
Gao, Dan [1 ]
Ye, Chao [1 ]
Ren, Xiangkun [2 ]
Zhang, Yuning [1 ]
机构
[1] North China Elect Power Univ, Sch Energy Power & Mech Engn, Key Lab Condit Monitoring & Control Power Plant E, Minist Educ, Beijing 102206, Peoples R China
[2] Beijing Sanju Environm Protect & New Mat Co Ltd, Beijing 100044, Peoples R China
基金
中国国家自然科学基金;
关键词
Coal chemical engineering; Life cycle analysis; Coal liquefaction; Coal-to-liquid; Energy efficiency; Production costs; RENEWABLE ENERGY-SOURCES; HYDROGEN-TRANSFER; ASSESSMENT LCA; CONSUMPTION; METHANOL; IMPACTS; BUBBLES; SYSTEMS; FUELS; STAGE;
D O I
10.1016/j.fuproc.2017.09.007
中图分类号
O69 [应用化学];
学科分类号
081704 ;
摘要
In the present paper, life cycle analysis of several typical coal liquefaction technical routes for vehicle power in China is performed with full considerations of environmental pollutants (e.g. SO2 and NOx), greenhouse gas emissions, costs, and energy efficiency. Direct and indirect coal liquefactions are discussed in detail with comparisons of several different technical routes (e.g. different transportation methods and liquefaction factory locations). Furthermore, sensitivity analysis of three direct coal liquefaction routes is performed with a focus on the transportation distance and vehicle internal combustion engine efficiency. Our analysis shows that the direct coal liquefaction with railway distribution is the best technical route among all the routes investigated, which could significantly reduce the emissions of CO2, the production costs with acceptable energy efficiency. Generally speaking, the coal liquefaction factory should be located at the coal mining area to minimize the costs of products.
引用
收藏
页码:42 / 49
页数:8
相关论文
共 50 条
[31]   Life Cycle Analysis of CO2 Control Technology: Comparison of Coal-fired Power with Renewable Energy Power [J].
Wang, Shujuan ;
Chen, Yinying ;
Zhong, Ping ;
Jia, Li ;
Zhu, Yingxin .
CLEANER COMBUSTION AND SUSTAINABLE WORLD, 2012, :841-844
[32]   4-E and life cycle analyses of a supercritical coal direct chemical looping combustion power plant with hydrogen and power co-generation [J].
Surywanshi, Gajanan Dattarao ;
Patnaikuni, Venkata Suresh ;
Vooradi, Ramsagar ;
Anne, Sarath Babu .
ENERGY, 2021, 217
[33]   Life Cycle GHG of NG-Based Fuel and Electric Vehicle in China [J].
Ou, Xunmin ;
Zhang, Xiliang ;
Zhang, Xu ;
Zhang, Qian .
ENERGIES, 2013, 6 (05) :2644-2662
[34]   Life cycle assessment on energy efficiency of hydrogen fuel cell vehicle in China [J].
Lu, Qiang ;
Zhang, Bo ;
Yang, Shichun ;
Peng, Zhaoxia .
ENERGY, 2022, 257
[35]   Evolution of the life cycle of residential buildings in Andalusia: Economic and environmental evaluation of their direct and indirect impacts [J].
Rivero-Camacho, Cristina ;
Martin-del-Rio, Juan Jesus ;
Marrero-Melendez, Madelyn .
SUSTAINABLE CITIES AND SOCIETY, 2023, 93
[36]   Life cycle assessment and life cycle cost analysis of compound microbial fertilizer production in China [J].
Zhou, Yan ;
Xiao, Chunqiao ;
Yang, Sheng ;
Yin, Huaqun ;
Yang, Zhaoyue ;
Chi, Ruan .
SUSTAINABLE PRODUCTION AND CONSUMPTION, 2021, 28 :1622-1634
[37]   Life cycle analysis of greenhouse gas emissions of China's power generation on spatial and temporal scale [J].
Zhu, Xiaonan ;
Wang, Shurong ;
Wang, Lei .
ENERGY SCIENCE & ENGINEERING, 2022, 10 (04) :1083-1095
[38]   Life cycle analysis of power cycle configurations in bioenergy with carbon capture and storage [J].
Bennett, Jeffrey A. ;
Melara, A. Jasmin ;
Colosi, Lisa M. ;
Clarens, Andres F. .
26TH CIRP CONFERENCE ON LIFE CYCLE ENGINEERING (LCE), 2019, 80 :340-345
[39]   Life cycle carbon emission and cost-effectiveness analysis of electric vehicles in China [J].
Guo, Xiaopeng ;
Sun, Yue ;
Ren, Dongfang .
ENERGY FOR SUSTAINABLE DEVELOPMENT, 2023, 72 :1-10
[40]   Life cycle water footprint and carbon footprint analysis of coal gasification to clean fuel dimethyl ether [J].
Liu, Yangyang ;
Xu, Hongwei ;
Wang, Yu ;
Cui, Peizhe ;
Sun, Chaoyue ;
Zhu, Zhaoyou ;
Wang, Yinglong .
FUEL, 2024, 357