Solid oxide fuel cell application in district cooling

被引:21
|
作者
Al-Qattan, Ayman [1 ]
ElSherbini, Abdelrahman [2 ]
Al-Ajmi, Kholoud [1 ]
机构
[1] Kuwait Inst Sci Res, Energy & Bldg Res Ctr, Innovat Renewable Program, Safat 13109, Kuwait
[2] United Technol Res Ctr, E Hartford, CT 06108 USA
关键词
Cogeneration; Solid oxide fuel cell; District cooling; Thermal storage; Air-conditioning; Coefficient of performance; TURBINE COMBINED-CYCLE; GAS-TURBINE; COGENERATION SYSTEMS; ABSORPTION CHILLER; PERFORMANCE; HEAT; BUILDINGS; WATER; SOFC;
D O I
10.1016/j.jpowsour.2014.01.099
中图分类号
O64 [物理化学(理论化学)、化学物理学];
学科分类号
070304 ; 081704 ;
摘要
This paper presents analysis of the performance of a combined cooling and power (CCP) system for district cooling. The cogeneration system is designed to provide cooling for a low-rise residential district of 27,300 RT (96 MWc). A solid oxide fuel cell (SOFC) generates electric power to operate chillers, and the exhaust fuel and heat from the SOFC run gas turbines and absorption chillers. Thermal energy storage is utilized to reduce system capacity. Part-load operation strategies target maximizing energy efficiency. The operation of the system is compared through an hourly simulation to that of packaged air-conditioning units typically used to cool homes. The CCP system with the district cooling arrangement improves the cooling-to-fuel efficiency by 346%. The peak power requirement is reduced by 57% (24 MW) and the total fuel energy is reduced by 54% (750 TJ y(-1)). The system cuts annual carbon dioxide emissions to less than half and reduces other harmful emissions. A cost analysis of the system components and operation resulted in a 53% reduction in the cost per ton-hour of cooling over traditional systems. (C) 2014 Elsevier B.V. All rights reserved.
引用
收藏
页码:21 / 26
页数:6
相关论文
共 50 条
  • [21] The application of metaheuristics in optimal parameter identification of solid oxide fuel cell
    Luo, Renfei
    Shafiee, Mohammadreza
    ENERGY REPORTS, 2021, 7 : 2563 - 2573
  • [22] Oxide components for the solid oxide fuel cell
    Goodenough, JB
    MIXED IONIC ELECTRONIC CONDUCTING PEROVSKITES FOR ADVANCED ENERGY SYSTEMS, 2004, 173 : 1 - 13
  • [23] Fracture toughness of glass sealants for solid oxide fuel cell application
    Abdoli, Hamid
    Alizadeh, Parvin
    Boccaccini, Dino
    Agersted, Karsten
    MATERIALS LETTERS, 2014, 115 : 75 - 78
  • [24] Optimization of proton conductors for application in solid oxide fuel cell technology
    Swierczek, Konrad
    Skubida, Wojciech
    ENERGY AND FUELS 2016, 2017, 14
  • [25] Novel fast oxide ion conductor and application for the electrolyte of solid oxide fuel cell
    Ishihara, T
    Shibayama, T
    Ishikawa, S
    Hosoi, K
    Nishiguchi, H
    Takita, Y
    JOURNAL OF THE EUROPEAN CERAMIC SOCIETY, 2004, 24 (06) : 1329 - 1335
  • [26] APPLICATION OF LANTHANUM GALLATE BASED OXIDE ELECTROLYTE IN SOLID OXIDE FUEL CELL STACK
    Yamada, T.
    Chitose, N.
    Eto, H.
    Yamada, M.
    Hosoi, K.
    Komada, N.
    Inagaki, T.
    Nishiwaki, F.
    Hashino, K.
    Yoshida, H.
    Kawano, M.
    Yamasaki, S.
    Ishihara, T.
    ADVANCES IN SOLID OXIDE FUEL CELLS III, 2008, 28 (04): : 79 - +
  • [27] Integration of a Solid Oxide Fuel Cell with an Organic Rankine Cycle and Absorption Chiller for Dynamic Generation of Power and Cooling for a Residential Application
    Asghari, M.
    Brouwer, J.
    FUEL CELLS, 2019, 19 (04) : 361 - 373
  • [28] Solid Oxide Fuel Cell Modeling
    Gebregergis, Abraham
    Pillay, Pragasen
    Bhattacharyya, Debangsu
    Rengaswemy, Raghunathan
    IEEE TRANSACTIONS ON INDUSTRIAL ELECTRONICS, 2009, 56 (01) : 139 - 148
  • [29] Development of the solid oxide fuel cell
    Jurado, F
    Saenz, JR
    Fernández, L
    ENERGY SOURCES, 2004, 26 (02): : 177 - 188
  • [30] Micro solid oxide fuel cell
    Sarkar, P
    Rho, H
    SOLID OXIDE FUEL CELLS VIII (SOFC VIII), 2003, 2003 (07): : 135 - 138