Towards high power density aqueous redox flow batteries

被引:29
作者
Gao, Mengqi [1 ,2 ]
Wang, Zhiyu [1 ,2 ]
Lek, Dao Gen [1 ,2 ]
Wang, Qing [1 ,2 ]
机构
[1] Natl Univ Singapore, Coll Design & Engn, Dept Mat Sci & Engn, Singapore 117574, Singapore
[2] ASTAR, Inst Mat Res & Engn IMRE, Singapore 138632, Singapore
来源
NANO RESEARCH ENERGY | 2023年 / 2卷 / 01期
基金
新加坡国家研究基金会;
关键词
redox flow batteries; power density; aqueous electrolytes; redox kinetics; polarizations; ANION-EXCHANGE MEMBRANES; ENERGY-STORAGE; NEXT-GENERATION; PERFORMANCE; CARBON; ELECTRODE; PROGRESS; COST; ENHANCEMENT; PREDICTION;
D O I
10.26599/NRE.2023.9120045
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
With the increasing penetration of renewable energy sources in the past decades, stationary energy storage technologies are critically desired for storing electricity generated by non-dispatchable energy sources to mitigate its impact on power grids. Redox flow batteries (RFBs) stand out among these technologies due to their salient features for large-scale energy storage. The primary obstacle to the successful industrialization and broad deployment of RFBs is now their high capital costs. A feasible route to cost reduction is to develop high-power RFBs, since the increase in power performance has a pronounced impact on the cost of RFB systems. In this review, an in-depth inspection of the power performance of RFBs is presented. Perspectives for the future development of high-power RFBs along with implementable strategies addressing both the intrinsic and extrinsic limiting factors are summarized, which are expected to provide useful references steering the further improvement in the power density of RFBs.
引用
收藏
页数:17
相关论文
共 116 条
[1]   Dramatic performance gains in vanadium redox flow batteries through modified cell architecture [J].
Aaron, D. S. ;
Liu, Q. ;
Tang, Z. ;
Grim, G. M. ;
Papandrew, A. B. ;
Turhan, A. ;
Zawodzinski, T. A. ;
Mench, M. M. .
JOURNAL OF POWER SOURCES, 2012, 206 :450-453
[2]   Polarization curve analysis of all-vanadium redox flow batteries [J].
Aaron, Doug ;
Tang, Zhijiang ;
Papandrew, Alexander B. ;
Zawodzinski, Thomas A. .
JOURNAL OF APPLIED ELECTROCHEMISTRY, 2011, 41 (10) :1175-1182
[3]   Metal and Metal Oxide Electrocatalysts for Redox Flow Batteries [J].
Amini, Kiana ;
Gostick, Jeff ;
Pritzker, Mark D. .
ADVANCED FUNCTIONAL MATERIALS, 2020, 30 (23)
[4]   PowerCool: Simulation of Cooling and Powering of 3D MPSoCs with Integrated Flow Cell Arrays [J].
Andreev, Artem Aleksandrovich ;
Sridhar, Arvind ;
Sabry, Mohamed M. ;
Zapater, Marina ;
Ruch, Patrick ;
Michel, Bruno ;
Atienza, David .
IEEE TRANSACTIONS ON COMPUTERS, 2018, 67 (01) :73-85
[5]   Energy storage technologies and real life applications - A state of the art review [J].
Aneke, Mathew ;
Wang, Meihong .
APPLIED ENERGY, 2016, 179 :350-377
[6]   Redox flow batteries for energy storage: their promise, achievements and challenges [J].
Arenas, Luis F. ;
de Leon, Carlos Ponce ;
Walsh, Frank C. .
CURRENT OPINION IN ELECTROCHEMISTRY, 2019, 16 :117-126
[7]   Redox flow batteries: a new frontier on energy storage [J].
Arevalo-Cid, P. ;
Dias, P. ;
Mendes, A. ;
Azevedo, J. .
SUSTAINABLE ENERGY & FUELS, 2021, 5 (21) :5366-5419
[8]   Electrolytic vascular systems for energy-dense robots [J].
Aubin, Cameron A. ;
Choudhury, Snehashis ;
Jerch, Rhiannon ;
Archer, Lynden A. ;
Pikul, James H. ;
Shepherd, Robert F. .
NATURE, 2019, 571 (7763) :51-+
[9]   Carbon felt electrodes for redox flow battery: Impact of compression on transport properties [J].
Banerjee, Rupak ;
Bevilacqua, Nico ;
Mohseninia, Arezou ;
Wiedemann, Benjamin ;
Wilhelm, Florian ;
Scholta, Joachim ;
Zeis, Roswitha .
JOURNAL OF ENERGY STORAGE, 2019, 26
[10]  
Bard A.J., 2022, Electrochemical Methodos: Fundamentals and Applications