Reactor technology options for distributed hydrogen generation via ammonia decomposition: A review

被引:220
作者
Chiuta, Steven [1 ,2 ]
Everson, Raymond C. [1 ,2 ]
Neomagus, Hein W. J. P. [1 ,2 ]
van der Gryp, Percy [3 ]
Bessarabov, Dmitri G. [1 ]
机构
[1] North West Univ, Fac Engn, HySA Infrastruct Ctr Competence, ZA-2520 Potchefstroom, South Africa
[2] North West Univ, Fac Engn, Sch Chem & Minerals Engn, ZA-2531 Mmabatho, South Africa
[3] Univ Stellenbosch, Dept Proc Engn, ZA-7602 Matieland, South Africa
关键词
Reactor infrastructure; Ammonia decomposition; Distributed hydrogen generation; PEM fuel cell; COX-FREE HYDROGEN; BIMODAL CATALYTIC MEMBRANE; PORTABLE POWER-GENERATION; LOW-TEMPERATURE; COMBUSTOR/REFORMER MICRODEVICES; MINIATURIZED PRODUCTION; H-2; PRODUCTION; RANEY-NICKEL; FUEL-CELLS; OXIDATION;
D O I
10.1016/j.ijhydene.2013.09.067
中图分类号
O64 [物理化学(理论化学)、化学物理学];
学科分类号
070305 [高分子化学与物理];
摘要
Hydrogen (H-2) fuel obtained via thermo-catalytic ammonia (NH3) decomposition is rapidly attracting considerable interest for portable and distributed power generation systems. Consequently, a variety of reactor technologies are being developed in view of the current lack of infrastructure to generate H-2 for proton exchange membrane (PEM) fuel cells. This paper provides an extensive review of the state-of-the-art reactor technology (also referred to as reactor infrastructure) for pure NH3 decomposition. The review strategy is to survey the open literature and present reactor technology developments in a chronological order. The primary objective of this paper is to provide a condensed viewpoint and basis for future advances in reactor technology for generating H-2 via NH3 decomposition. Also, this review highlights the prominent issues and prevailing challenges that are yet to be overcome for possible market entry and subsequent commercialization of various reactor technologies. To our knowledge, this work presents for the first time a review of reactor infrastructure for distributed H-2 generation via NH3 decomposition. Despite commendable research and development progress, substantial effort is still required if commercialization of NH3 decomposition reactor infrastructure is to be realized. Copyright (C) 2013, Hydrogen Energy Publications, LLC. Published by Elsevier Ltd. All rights reserved.
引用
收藏
页码:14968 / 14991
页数:24
相关论文
共 117 条
[1]
Overview of systems considerations for on-board chemical hydrogen storage [J].
Aardahl, C. L. ;
Rassat, S. D. .
INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2009, 34 (16) :6676-6683
[3]
Investigation of low temperature decomposition of ammonia using spatially patterned catalytic membrane reactors [J].
Abashar, MEE ;
Al-Sughair, YS ;
Al-Mutaz, IS .
APPLIED CATALYSIS A-GENERAL, 2002, 236 (1-2) :35-53
[4]
Performance of CO preferential oxidation reactor with noble-metal catalyst coated on ceramic monolith for on-board fuel processing applications [J].
Ahluwalia, RK ;
Zhang, QZ ;
Chmielewski, DJ ;
Lauzze, KC ;
Inbody, MA .
CATALYSIS TODAY, 2005, 99 (3-4) :271-283
[5]
A microreactor modeling, analysis and optimization for methane autothermal reforming in fuel cell applications [J].
Akbari, M. H. ;
Ardakani, A. H. Sharafian ;
Tadbir, M. Andisheh .
CHEMICAL ENGINEERING JOURNAL, 2011, 166 (03) :1116-1125
[6]
Analysis of ammonia decomposition reactor to generate hydrogen for fuel cell applications [J].
Alagharu, Vyjayanthi ;
Palanki, Srinivas ;
West, Kevin N. .
JOURNAL OF POWER SOURCES, 2010, 195 (03) :829-833
[7]
Allen L, 2000, P 4 INT C MICR TECHN
[8]
A microfabricated suspended-tube chemical reactor for thermally efficient fuel processing [J].
Arana, LR ;
Schaevitz, SB ;
Franz, AJ ;
Schmidt, MA ;
Jensen, KF .
JOURNAL OF MICROELECTROMECHANICAL SYSTEMS, 2003, 12 (05) :600-612
[9]
Overcoming equilibrium limitations in chemical processes [J].
Armor, JN .
APPLIED CATALYSIS A-GENERAL, 2001, 222 (1-2) :91-99
[10]
Applications of catalytic inorganic membrane reactors to refinery products [J].
Armor, JN .
JOURNAL OF MEMBRANE SCIENCE, 1998, 147 (02) :217-233