Abstract
This chapter provides an introduction to the prime movers and power equipment used in combined cooling, heating, and power (CCHP) systems, including steam turbines, gas turbines, internal combustion engines, Stirling engines, and fuel cells. The power subsystems are the driving source of the power supply system; they are used to generate electricity or provide mechanical power directly. The chapter includes a discussion of the types and important performance parameters of steam engines and gas turbines; the characteristics and basic types of gas-steam combined-cycle systems; the working principles of internal combustion engines; the basic profiles of diesel, gasoline, and gas internal combustion engines; the working principles, characteristics, and main applications of Stirling engines; the working principles, type, development, and research status of fuel cells; and applications in CCHP systems. Through the information in this chapter, we hope to provide readers with a full understanding of the power equipment used in CCHP systems.
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References
Yan Junjie, Huang Jintao, He Maogang (2006) Cold hot electricity co-generation technology. Chemical Industry Press
Wang Ruzhu, Ding guoliang, et al (2002) The latest technology of refrigeration and air conditioning. Science Press
Li Chongxiang, He maogang, Huang Jintao, et al (2004) The energy-saving principle and technology. Xi 'an Jiaotong University Press
Qiu Xinli, Liang Leming, Li Lineng (1997) Engineering thermodynamics. China Building Industry Press
Zhang Dingwang (2002) Steam turbine unit and adjustment. Shanghai Jiaotong University Press
Yi Baolian (2000) The fuel cell—efficient and environmentally friendly way of generating. Chemical Industry Press
Zou Longqing, Liu Hongshuo, Deng Shizhou (1985) Stirling engine. Hunan University Press
Zhang Haozhi (2000) The micro turbine literature review. Tsinghua University Press
Jin Hongguang, Lin Rumou (2008) Cascade utilization of energy and gas turbine total energy system. Science Press
“Small and medium-sized cogeneration project design manual” editorial committee (2006) Small and medium-sized cogeneration project design manual. China Electric Power Press
Wang Ruwu (2008) Power plant energy conservation and emissions reduction technologies. Chemical Industry Press
Chen Xuejun, listen to Chen wide (1981) Boiler principle. Machinery Industry Press
Lin Zonghu, Zhang Yongzhao (1989) Boiler manual. Machinery Industry Press
Jin Zhiping (2006) Power plant steam turbine principle and system. China Electric Power Press
Li Xinding (2006) Power plant boiler principle. China Electric Power Press
Jiao Shujian (2000) Gas – steam combined cycle. Machinery Industry Press
Shanghai steam turbine co., LTD (1999) The total teacher office. Gas turbine mt corpus abroad, Shanghai
You Han (2000) The application of high speed micro turbine generators and engineering design. Tsinghua University Press
Yan Weiping (2002) Clean coal combustion technology. China Electric Power Press, p 2
Jiao Shujian (1996) Integrated gasification gas - steam combined cycle (IGCC). China Electric Power Press
Zhang Mingyao (1998) Pressurized fluidized bed combined cycle power generation technology. Southeast University Press
Liu yongcchang (2005) Principle of internal combustion engine. Huazhong University of Science and Technology Press
Gao Xiuhua, Guo Jianhua (2006) Internal combustion engines. Chemical Industry Press
Qian Guozhu, Zhou Zengxin, Yan Shan Qing (1987) Steam machine principle and design. National Defense Industry Press
Mao Zongqiang, et al (2005) The fuel cell. Chemical Industry Press, p 4
Wang Linshan, Li ying (2005) Fuel cells. Metallurgical Industry Press, p 8
Li Xiaotang, Hou lingyun, Yang min (2006) Modern gas turbine technology. The Aviation Industry Press
Jin Hongguang, Lin Rumou (2008) Cascade utilization of energy and gas turbine total energy system. Science Press
Sun Jianguo, Feng Zhibing (2006) Cold hot electric installations, system development and prospect. Gas turbine technology 19(2):11–17
Li Sheng, Wu Jingyi, Wang Ruzhu (2008) Cold and hot research focus in the electrical installations, systems overview. Refrigeration and air-conditioning 8(6):1–9
Wu DW, Wang RZ (2006) Combined cooling, heating and power: a review. Prog Energy Combust Sci 32(5–6):459–495
New York State Energy Research and Development Authority (2002) Combined heat and power market potential for New York State final report
COGEN Europe (The European Association for the Promotion of Cogeneration) (2001) The European educational tool on cogeneration, 2nd ed. www.cogen.org
WADE (World Alliance of Decentralized Energy) (2002) Guide to decentralized energy technologies. www.localpower.org
COGEN (2002) Europe (www.cogen.org). Decentralized generation technologies—potentials, success factors and impacts in the liberalized EU energy markets. Final report
Alanne K, Saari A (2004) Sustainable small-scale CHP technologies for buildings: the basis for multi-perspective decision-making. Renew Sust Energ Rev 8(5):401–431
Najjar YSH (1996) Enhancement of performance of gas turbine engines by inlet air cooling and cogeneration system. Appl Therm Eng 16(2):163–173
Zhao Changxing (2007) Steam turbine technical manual. China Electric Power Press
Alhazmy MM, Jassim RK, Zaki GM (2006) Performance enhancement of gas turbines by inlet air-cooling in hot and humid climates. Int J Energy Res 30(10):777–797
Al-Madani H (2009) Effects of thermodynamic and mechanical irreversibilities on gas turbine performance enhancement by intake air cooling. International Journal of Exergy 6(2):166–180
Xu Jiaoyun (2003) Economic efficiency of gas turbine inlet evaporative cooling device. Gas turbine technology 16(1):29–32
Lv Tai, Sun Rui, Zhang Xuerong (2006) 350 mw class gas – steam combined cycle unit design. China electric power 39(3):14–17
Gong Qi, Lu Jun (2005) About the exploration of the development of small gas turbine cogeneration. Energy saving. Technology 23(2):146–149
Han Xiaoping (2002) Small gas turbine cogeneration – the best choice of the west-east gas market. Energy saving and environmental protection 2:8–12
Shen Digang (2000) Gas turbine development route and direction abroad. Aircraft engine 1:43–48
Weng Yiwu, Su Ming, Weng Shilie (2003) Characteristics and application prospects of advanced micro gas turbine. Thermal power engineering 18(2):111–116
Zhao Shihang A (2001) new concept of the development of the micro gas turbine. Gas turbine technology 14(2):8–13
Diao Zhenggang (2000) The micro gas turbine toward commercialization. Gas turbine technology 13(4):13–16
Xiao Li, Zeng Chengbi, Li Jicai (2008) With the core of the micro gas turbine distributed energy supply system solutions. Sichuan electric power technology 31(2):78–81
Yang Ce, Liu Hongwei, Li Xiao, et al (2003) The micro gas turbine technology. Thermal power engineering 18(1):1–4
Wei Bing, Wang Zhiwei, Li Li, et al (2006) The micro gas turbine cold hot electrical installations, systems and its development status in abroad. Power demand side management 8(6):62–64
Du Jianyi, Wang Yun, Xu Jianzhong (2004) Development and application of distributed energy system and micro-gas turbine. J Eng Thermophys 25(5):786–788
Liu Aiguo, ZHANG Shijie, XIAO Yunhan (2009) Comparison of application of micro-combustion engine and small combustion engine in distributed distribution system in South China. Gas Turbine Technology 22(3):1–9
Gillette SF (2004) Market development of microturbine combined heat and power applications. Cogeneration and Distributed Generation Journal 19(2):46–59
Gamon S, Yokoyama R, Ito K (2005) Parametric study on economic feasibility of microturbine cogeneration systems by an optimization approach. J Eng Gas Turbines Power 127(2):389–396
Campanari S, Macchi E (2004) Technical and tariff scenarios effect on microturbine trigenerative applications. J Eng Gas Turbines Power 126(3):581–589
Li HW, Nalim R, Haldi PA (2006) Thermal-economic optimization of a distributed multi-generation energy system – a case study of Beijing. Appl Therm Eng 26(7):709–719
Khaliq A, Choudhary K (2007) Combined first and second-law analysis of gas turbine cogeneration system with inlet air cooling and evaporative aftercooling of the compressor discharge. J Eng Gas Turbines Power 129(4):1004–1011
Yilmaz T, Bayraktar S, Tasci F (2008) Efficiency optimization of gas turbine based cogeneration cycle. J Energy Inst 81(2):110–113
Kurt H, Recebli Z, Gedik E (2009) Performance analysis of open cycle gas turbines. Int J Energy Res 33(3):285–294
Chen L, Zhang W, Sun F (2009) Parametric analysis of a gas turbine cycle coupled to a Brayton refrigeration cycle. Proceedings of the Institution of Mechanical Engineers, Part A: Journal of Power and Energy 223(5):497–503
Liu AG, Weng Y (2010) Performance analysis of a pressurized molten carbonate fuel cell/micro-gas turbine hybrid system. J Power Sources 195(1):204–213
Xiaoli H, Guoqiang Z (2005) Summary of the construction of cold and heat and power system. Gas and heat 25(5):67–73
Zhu Xinding (2000) China internal engine engineer handbook. Shanghai Science and Technology Press
Zhang Wankun. Configuration of BCHP and its optimal operation analysis. Master's Thesis from Shanghai Jiaotong University
Wang Cuncheng (1993) Industrial power system and energy conservation principles handbook. Department of Thermal Engineering, Tsinghua University
Tu Shan, Mao Jingru, Sun Bi (2000) China's gas-steam cycle power generation technology prospects. Thermal Power. Engineering 15(4):336–338
Jiao Shujian (1997) When will the gas turbine industry in China start. Gas Turbine Technology 10(1):1–8
Yang Song, Li Shikui (2005) Overview of gas-steam combined cycle waste heat boiler. Power Station Systems Engineering 21(4):43–44
Fan Lulu, Zeng Hong (2001) Discussion on several technical and economic problems of “Gas-Steam Combined Cycle”. Shanghai Steam Turbine 2:19–26
Wang Zhenhua (2003) Analysis of world gas turbine electricity market order from June 2001 to May 2002. Gas Turbine Technology 16(1):71–72
Jiao Shijian (2001) Discussion on the development of gas turbine in China in the first half of the 21st century. Gas Turbine Technology 14(1):10–13
Jiao Shijian (2009) Review and prospect of IGCC technology development. Power Construction 30(1):1–7
Commentary on the current development and trend of IGCC in the world (2004) Gas Turbine Technology 17(3):1–5
Harry J (2007) CO2 cloud looms large over IGCC and gasification plant development. Gas Turbine World 37(6):16–24
Jiao Shijian (2008) Reconsideration on the development of IGCC technology in China. Huadian Technology 30(4):1–9
Bai Huifeng, Xu Yue (2009) The development and key technologies of IGCC and polygeneration system. Gas Turbine Technology 22(4):1–3
Lin Rumou, Wang Yingshi dangerous division (1997) The development prospect of IGCC technology in China – a review based on the report of Chinese and American experts. Gas Turbine Technology 10(3):1–7
Cai Ningsheng, Zhang Mingyao (2002) Progress and innovation of PFBC-CC power generation technology. Journal of Southeast University (Natural Science Edition) 32(3):437–442
Cai Ningsheng (2001) Consideration of PFBC-CC technology in China. Gas Turbine Technology 14(1):29–36
Chen Xiaoping, Zhao Chang Sui, Duan Yufeng, et al (2002) Design and test results of pressurized fluidized bed boiler for 15MWePFBC-CC pilot plant CHEN Xiao-ping, ZHAO Chang-sui, DUAN Yu-feng, et al. Power Engineering 22(6):2072–2077
Miao Xuelong, Huang Zhen (2006) Summary of combustion technology of internal combustion engine. Modern Vehicle Power 2:6–11
Zhu Bangrong (2008) Stirling's optimization design and simulation study. North China Electric Power University (Beijing) Master's Thesis
Zhu Chenyuan, Xue Fei, Wang Hai Gui (2006) Research and Application of Hot Air Machine in Landfill Gas Combustion Power Generation ZHU Chen-yuan, XUE Fei, WANG Hai-gui. Study on Energy Generation in Landfill Gas Combustion Power Generation 27(5):216–219
Yao Rui, Wu Keqi (2001) Application of stirling engine in space solar power generation. Journal of Solar Energy 22(1):111–114
Mills D (2004) Advances in Solar Thermal Electricity technology. Sol Energy 76(1–3):19–31
Kongtragool B, Wongwises S (2003) A review of solar-powered stirling engines and low temperature differential stirling engines. Renew Sust Energ Rev 7(2):131–154
Zhu Chenyuan, PAN Wei-ming (2009) Progress of solar thermal power generation technology for hot air heaters. Shanghai Energy Conservation 8:23–29
Deng He (2002) Status and future of hot air power generation devices. Journal of Shanghai University of Electric Power 18(3):75–77
Yi Baolian (1998) Fuel cell status and future. Power technology 22(5):216–221
Zhang Chun, Mao Zongqiang (1996) Development, Status and Prospect of Phosphoric Acid Fuel Cell (PAFC) power plant technology. Power Technology 20(5):216–221
Feng Yucheng, Yang Ying (1999) Fuel cell is the main force of the 21st century power industry. China Energy 11:21–24
Lu Dehong (2003) Fuel cell and its application in the hot and cold power supply system. HVAC 33(1):91–93
Xu Shisen, Zhu Baotian (2001) Discussed the technical route of China’s power system development of fuel cell power generation. China Electric Power 34(7):9–12
Emmerich SJ, McGrattan KB (1998) Application of a large eddy simulation model to study room airflow. ASHRAE Trans 104(1):1128–1140
Chen Binjian, Fang Zhaoxiang (2004) Development status of fuel cell technology. Energy Conservation and Environmental Protection 8:36–40
Gigliucci G, Petruzzi L, Cerellic E et al (2004) Demonstration of a residential CHP system based on PEM fuel cells. J Power Sources 131(1):62–68
Yu Zeting, Han Yitian (2004) Application of fuel cell in the family. Energy saving and environmental protection 9:14–16
International Electric Power Editing Department (2001) Fuel cell power generation system and its demonstration project. International Electric Power 4:23–26
Lan Li, Yin Yingde, Gu Dengfeng (2005) Fuel cell and cogeneration system. Refrigeration and air conditioning 3:58–63
V. Hartkopf, Pan Yijun, Wu Gang, et al (2003) Application of solid oxide fuel cells in building CCHP. HVAC 33(1):47–53
Jiang billion, Xue Zhifeng, Zeng Jianlong, et al (2004) Tsinghua University ultra-low energy consumption demonstration building. HVAC 34(6):64–66
Zhao Xi-ling, Zhang Xing-mei, Duan Chang-gui, et al (2007) Research and application of fuel cell distributed hot and cold power supply technology. HVAC 37(9):74–78
Silveira J, Leal EM, Ragonha LF (2001) Analysis of a molten carbonate fuel cell: cogeneration to produce electricity and cold water. Energy 26(10):891–904
Weber C, Marechal F, Favrat D et al (2006) Optimization of an SOFC based decentralized polygeneration system for providing energy services in an office building in Tokyo. Appl Therm Eng 26(13):1409–1419
Jing S, Hongliang H, Hongyou C (2004) Research status of fuel cell in China. Power Technology 28(2):125–128
Allan CC, Stenhen EV (2001) Siemens fuel cell system demonstration project. China Electric Power 34(9):61–62
Daozhi B (2000) The development of fuel cell in China. Power supply technology 24(2):103–107
Yu Tao, Zhang Cuizhen (2006) Review on inlet air cooling technology for gas turbine. Journal of Refrigeration 27(4):50-53
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Zhang, D., Kong, X. (2017). Prime Movers. In: Wang, R., Zhai, X. (eds) Handbook of Energy Systems in Green Buildings. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-662-49088-4_37-1
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DOI: https://doi.org/10.1007/978-3-662-49088-4_37-1
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