Fuzzy optimization of the automotive ammonia fuel cycle

被引:20
作者
Angeles, Donna A. [1 ]
Tan, Raymond R. [1 ]
Aviso, Kathleen B. [1 ]
Are, Kristian Ray Angelo G. [1 ]
Razon, Luis F. [1 ]
机构
[1] De La Salle Univ, Dept Chem Engn, 2401 Taft Ave, Manila 0922, Philippines
关键词
Ammonia; Fuel; Life-cycle optimization; Carbon footprint; Nitrogen footprint; SENSITIVITY-ANALYSIS; IGNITION ENGINE; VALUE CHAIN; DESIGN; ENERGY; CARBON; BIODIESEL; BIOMASS; SYSTEMS;
D O I
10.1016/j.jclepro.2018.03.143
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Ammonia has favorable properties for use in automotive fuel applications, such as good storage properties and mature production and distribution infrastructure. However, the sustainability of ammonia as an alternative automotive fuel remains in question, due to the significant environmental impact of conventional production technology and the need for a secondary hydrocarbon fuel to promote combustion when used in internal combustion engines. The two commercially implemented processes for ammonia: steam reforming and partial oxidation, a wood-based syngas process and a cyanobacterial process combined are considered in the life cycle optimization of the ammonia-based fuel system. It is assumed that the functional unit is 1 km travelled by a representative light-duty internal combustion engine vehicle. Two conventional fuels are also considered as secondary fuel in this study, namely, gasoline and diesel. Fuzzy linear programming is applied using carbon and nitrogen footprint as environmental objectives. The cyanobacteria-based process combined with gasoline as the secondary fuel was identified as the optimal solution. The most significant parameter was the end-user vehicle fuel economy. Hence, more attention must be given to the improvement of vehicle technology to enable the sustainable use of ammonia for transportation. (C) 2018 Elsevier Ltd. All rights reserved.
引用
收藏
页码:877 / 882
页数:6
相关论文
共 36 条
[1]   Ammonium nitrate fertiliser production based on biomass -: Environmental effects from a life cycle perspective [J].
Ahlgren, Serina ;
Baky, Andras ;
Bernesson, Sven ;
Nordberg, Ake ;
Noren, Olle ;
Hansson, Per-Anders .
BIORESOURCE TECHNOLOGY, 2008, 99 (17) :8034-8041
[2]   Optimization of the Automotive Ammonia Fuel Cycle Using P-Graphs [J].
Angeles, Donna A. ;
Are, Kristian Ray Angelo G. ;
Aviso, Kathleen B. ;
Tan, Raymond R. ;
Razon, Luis F. .
ACS SUSTAINABLE CHEMISTRY & ENGINEERING, 2017, 5 (09) :8277-8283
[3]   Designing eco-industrial water exchange networks using fuzzy mathematical programming [J].
Aviso, Kathleen B. ;
Tan, Raymond R. ;
Culaba, Alvin B. .
CLEAN TECHNOLOGIES AND ENVIRONMENTAL POLICY, 2010, 12 (04) :353-363
[4]   LIFE-CYCLE ASSESSMENT AND LINEAR-PROGRAMMING - ENVIRONMENTAL OPTIMIZATION OF PRODUCT SYSTEM [J].
AZAPAGIC, A ;
CLIFT, R .
COMPUTERS & CHEMICAL ENGINEERING, 1995, 19 :S229-S234
[5]  
Azapagic A., 1999, LIFE CYCLE ASSESSMEN
[6]   Plackett-Burman techniques for sensitivity analysis of many-parametered models [J].
Beres, DL ;
Hawkins, DM .
ECOLOGICAL MODELLING, 2001, 141 (1-3) :171-183
[7]   Environmental impact categories of hydrogen and ammonia driven transoceanic maritime vehicles: A comparative evaluation [J].
Bicer, Yusuf ;
Dincer, Ibrahim .
INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2018, 43 (09) :4583-4596
[8]   Life cycle assessment of ammonia utilization in city transportation and power generation [J].
Bicer, Yusuf ;
Dincer, Ibrahim .
JOURNAL OF CLEANER PRODUCTION, 2018, 170 :1594-1601
[9]   Comparative life cycle assessment of various ammonia production methods [J].
Bicer, Yusuf ;
Dincer, Ibrahim ;
Zamfirescu, Calin ;
Vezina, Greg ;
Raso, Frank .
JOURNAL OF CLEANER PRODUCTION, 2016, 135 :1379-1395
[10]   A Review of Footprint analysis tools for monitoring impacts on sustainability [J].
Cucek, Lidija ;
Klemes, Jiri Jaromir ;
Kravanja, Zdravko .
JOURNAL OF CLEANER PRODUCTION, 2012, 34 :9-20