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Fluid Selection and Thermodynamic Analysis of an Electricity-Cooling Cogeneration System Based on Waste Heat Recovery from Marine Engine
Technical Paper
2017-01-0159
ISSN: 0148-7191, e-ISSN: 2688-3627
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English
Abstract
The environmental issues combined with the rising of crude oil price have attracted more interest in waste heat recovery of marine engine. Currently, the thermal efficiency of marine diesels only reaches 48~51%, and the rest energy is rejected to the environment. Meanwhile, energy is required when generating electricity and cooling that are necessary for vessels. Hence, the cogeneration system is treated as the promising technology to conform the strict environment regulation while offering a high energy utilization ratio. In this paper, an electricity and cooling cogeneration system combined of Organic Rankine Cycle (ORC) and Absorption Refrigeration Cycle (ARC) is proposed to recover waste heat from marine engine. ORC is applied to recover exhaust waste heat to provide electricity while ARC is used to utilize condensation heat of ORC to produce additional cooling. Four typical high-temperature working fluids (benzene, toluene, cyclohexane and cyclopentane) are selected as ORC working fluid while ammonia/water is applied as working pair for ARC. Simulations were performed at different evaporating pressure and condensation temperature of ORC. Results show that the highest primary energy ratio of WHR system can be obtained when the condensation temperature of ORC is 135°C. Among the four fluids considered, from view of efficiency of cogeneration system, the most promising candidate are benzene and toluene. The former is suitable for high evaporation pressure system with a highest exergy efficiency of 50.8%, and the latter is potential for low evaporation pressure system with a highest exergy efficiency of 48.3%.
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Liu, P., Shu, G., Tian, H., Wang, X. et al., "Fluid Selection and Thermodynamic Analysis of an Electricity-Cooling Cogeneration System Based on Waste Heat Recovery from Marine Engine," SAE Technical Paper 2017-01-0159, 2017, https://doi.org/10.4271/2017-01-0159.Data Sets - Support Documents
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References
- Buhaug Ø. , Corbett JJ. , Endresen Ø. , Eyring V. , Faber J , Hanayama S. Second IMO GHG study 2009 London, UK International Maritime Organization (IMO) 2009
- Cao T. , Lee H. , Hwang Y. Performance investigation of engine waste heat powered absorption cycle cooling system for shipboard applications Applied Thermal Engineering 90 820 830 2015
- Zhang C. , Shu G. , Tian H. , Wei H. , Liang X. Comparative study of alternative ORC-based combined power systems to exploit high temperature waste heat Energy Convers Manage 89 541 54 2015
- Soffiato M. , Frangopoulos C. , Manente G. Design optimization of ORC systems for waste heat recovery on board a LNG carrier Energy Conversion & Management 92 523 534 2015
- Yang M. , R. Yeh Analyzing the optimization of an organic Rankine cycle system for recovering waste heat from a large marine engine containing a cooling water system Energy Conversion & Management 88 999 1010 2014
- P. Sorokin Waste heat recovery in a cruise vessel in the Baltic Sea by using an organic Rankine cycle: a case study Journal of Engineering for Gas Turbines & Power 138 1 1 15 2015
- Rivera-Alvarez A. , Coleman M. , Ordonez J. Ship weight reduction and efficiency enhancement through combined power cycles Energy 93 521 533 2015
- Baldi F. , Gabrielii C. A feasibility analysis of waste heat recovery systems for marine applications Energy 80 654 665 2015
- Kalikatzarakis M. , Frangopoulos C. , Multi-criteria selection and thermo-economic optimization of Organic Rankine Cycle system for a marine application International Review of Mission 18 2 156 160 2015
- Zhang C. , Shu G. , Tian H. , Wei H. , Liang X. , Comparative study of alternative ORC-based combined power systems to exploit high temperature waste heat Energy Convers Manage 89 541 54 2015
- Yang F. , Dong X. Zhang H. Performance analysis of waste heat recovery with a dual loop organic rankine cycle (ORC) system for diesel engine under various operating conditions Energy Convers Manage 80 243 55 2014
- Liang Y. , Shu G. , Tian H. Analysis of an electricity–cooling cogeneration system based on RC–ARS combined cycle aboard ship Energy Conversion & Management 76 1 1053 1060 2013
- Liang , Y. Shu , G. , Tian , H. , Wei , H. Thermodynamic Analysis of an Electricity-Cooling WHR Cogeneration System Aboard Ships using Siloxanes as Working Fluids SAE Technical Paper 2014-01-1946 2014 10.4271/2014-01-1946
- Lu S. , Goswami D. Optimization of a novel combined power/refrigeration thermodynamic cycle ASME J Sol Energy Eng 125 212 7 2003
- Cao T. , Lee H. , Hwang Y. Modeling of waste heat powered energy system for container ships Energy 106 408 421 2016
- Fergani Z. , Touil D. , Morosuk T. Multi-criteria exergy based optimization of an Organic Rankine Cycle for waste heat recovery in the cement industry Energy Conversion & Management 112 5 81 90 2016
- Rumi S. , Richard S. Off-design dynamic model of a real Organic Rankine Cycle system fuelled by exhaust gases from industrial processes Energy 90 C10 537 551 2015
- Shu G. , Li X. , Tian H. Alkanes as working fluids for high-temperature exhaust heat recovery of diesel engine using organic Rankine cycle Applied Energy 119 15 204 217 2014
- Hung T. , Shai T , Wang S. A review of organic Rankine cycles (ORCs) for the recovery of low-grade waste heat Energy 22 7 661 667 1997
- Siddiqi M , Atakan B. Alkanes as fluids in Rankine cycles in comparison to water, benzene and toluene Energy 45 1 256 263 2012
- Yang Min Hsiung , and Yeh R. H. Analyzing the optimization of an organic Rankine cycle system for recovering waste heat from a large marine engine containing a cooling water system Energy Conversion & Management 88 999 1010 2014
- Yang Min Hsiung , and Yeh R. H. Thermodynamic and economic performances optimization of an organic Rankine cycle system utilizing exhaust gas of a large marine diesel engine Applied Energy 149 1 12 2015
- Mondejar , Maria E. , Quasi-steady state simulation of an organic Rankine cycle for waste heat recovery in a passenger vessel Applied Energy 2016
- Larsen , Ulrik , Multiple regression models for the prediction of the maximum obtainable thermal efficiency of organic Rankine cycles Energy 65.65 503 510 2014
- Song , Jian , Thermodynamic analysis and performance optimization of an ORC (Organic Rankine Cycle) system for multi-strand waste heat sources in petroleum refining industry Energy 71.21 673 680 2014
- Larsen , U. , Design and Modelling of Innovative Machinery Systems for Large Ships The Technical University of Denmark Lyngby, Denmark 2014
- Xu J. , Yu C. , Critical temperature criterion for selection of working fluids for subcritical pressure Organic Rankine Cycles Energy 74 719 33 2014
- Fuente Santiago Suárez De La , Roberge D. , and Greig A. R. Safety and CO 2, emissions: Implications of using organic fluids in a ship’s waste heat recovery system Marine Policy 2016
- Kong X. , Wang R. , Huang X. Energy efficiency and economic feasibility of CCHP driven by stirling engine Energy Convers Manage 45 1433 42 2004
- Ahmadi P. , Dincer I. , Rosen M. Exergo-environmental analysis of an integrated organic Rankine cycle for trigeneration Energy Convers Manage 64 447 53 2012
- Huangfu Y. , Wu J. , Wang R. , Kong X. , Wei B. Evaluation and analysis of novel micro-scale combined cooling, heating and power (MCCHP) system Energy Convers Manage 48 1703 9 2007
- Sun DW Comparison of the performances of NH3-H2O, NH3-LiNO3 and NH3-NaSCN absorption refrigeration systems: Sun, D.-W. Energy Convers. Mgmt, 1998, 39, (5/6), 357–368 Fuel & Energy Abstracts 39.3 215 1998
- Dai Y. Lithium bromide–water absorption chiller technology and practical manual Beijing Machine press 1999