Turbocharged Diesel Engine Power Production Enhancement: Proposing a Novel Thermal-Driven Supercharging System based on Kalina Cycle | ||
| Renewable Energy Research and Applications | ||
| مقاله 10، دوره 1، شماره 2، مهر 2020، صفحه 223-234 اصل مقاله (833.59 K) | ||
| نوع مقاله: Original Article | ||
| شناسه دیجیتال (DOI): 10.22044/rera.2020.9521.1028 | ||
| نویسندگان | ||
| F. Salek1؛ Alireza Eskandary Nasrabad2؛ M. M. Naserian* 1 | ||
| 1Department of Mechanical Engineering, Faculty of Montazeri, Khorasan Razavi Branch, Technical and Vocational University (TVU), Mashhad, Iran. | ||
| 2Department of Mechanical Engineering, Faculty of Montazeri, Khorasan Razavi Branch, Technical and Vocational University (TVU) | ||
| چکیده | ||
| In this paper, a novel thermal driven supercharging system for downsizing of a turbocharged diesel engine is proposed. Furthermore, Kalina cycle has been used as waste heat recovery system to run the mounted supercharging system. The waste heat of air in engine exhaust and intake pipes is converted to cooling and mechanical power by Kalina cycle. The mechanical power produced by Kalina cycle is transferred to an air compressor to charge extra air to the engine for generating more power. This feature can be used for downsizing the turbo-charged heavy duty diesel engine. In addition, the heat rejected from engine intercooler is transferred to Kalina cycle vapor generator component, and part of engine exhaust waste heat is also used for superheating Kalina working fluid before entering engine. Then, first and second law analysis are performed to assess the operation of the engine in different conditions. Moreover, an economic model is provided for the Kalina cycle which is added to engine as supplementary component. Finally, simple payback and Net present value methods are used for economic evaluation of the added supplementary system. According to the results, mounting the novel waste heat driven air charging system has resulted in increment of air mass flow rate which leads to extra power generation (between 9 kW and 25 kW). The payback period and profitability index of the project are approximately 3.81 year and 1.26, consecutively. | ||
| کلیدواژهها | ||
| Waste heat recovery؛ Diesel engine؛ Kalina cycle؛ Power production؛ Cooling power | ||
| مراجع | ||
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[1] Hoang AT. Waste heat recovery from diesel engines based on Organic Rankine Cycle. Applied energy. 2018;231:138-66. [2] Shu G, Li X, Tian H, Liang X, Wei H, Wang X. Alkanes as working fluids for high-temperature exhaust heat recovery of diesel engine using organic Rankine cycle. Applied Energy. 2014;119:204-17. [3] Xu B, Rathod D, Yebi A, Filipi Z, Onori S, Hoffman M. A comprehensive review of organic rankine cycle waste heat recovery systems in heavy-duty diesel engine applications. Renewable and Sustainable Energy Reviews. 2019;107:145-70. [4] Galindo J, Guardiola C, Dolz V, Kleut P. Further analysis of a compression-expansion machine for a Brayton Waste Heat Recovery cycle on an IC engine. Applied Thermal Engineering. 2018;128:345-56. [5] Liang Y, Bian X, Qian W, Pan M, Ban Z, Yu Z. Theoretical analysis of a regenerative supercritical carbon dioxide Brayton cycle/organic Rankine cycle dual loop for waste heat recovery of a diesel/natural gas dual-fuel engine. Energy Conversion and Management. 2019;197:111845. [6] Liang Y, Shu G, Tian H, Sun Z. Investigation of a cascade waste heat recovery system based on coupling of steam Rankine cycle and NH3-H2O absorption refrigeration cycle. Energy conversion and management. 2018;166:697-703. [7] Zoghi M, Habibi H, Chitsaz A, Javaherdeh K, Ayazpour M. Exergoeconomic analysis of a novel trigeneration system based on organic quadrilateral cycle integrated with cascade absorption-compression system for waste heat recovery. Energy Conversion and Management. 2019;198:111818. [8] Ahmadi MH, Alhuyi Nazari M, Sadeghzadeh M, Pourfayaz F, Ghazvini M, Ming T, et al. Thermodynamic and economic analysis of performance evaluation of all the thermal power plants: A review. Energy science & engineering. 2019;7(1):30-65. [9] Mohammadi A, Ashouri M, Ahmadi MH, Bidi M, Sadeghzadeh M, Ming T. Thermoeconomic analysis and multiobjective optimization of a combined gas turbine, steam, and organic Rankine cycle. Energy Science & Engineering. 2018;6(5):506-22. [10] Shams Ghoreishi SM, Akbari Vakilabadi M, Bidi M, Khoeini Poorfar A, Sadeghzadeh M, Ahmadi MH, et al. Analysis, economical and technical enhancement of an organic Rankine cycle recovering waste heat from an exhaust gas stream. Energy Science & Engineering. 2019;7(1):230-54. [11] Zi D, Zhang L, Chen B, Zhang Q. Study of the electric-booster and turbo-generator system and its influence on a 1.5 L gasoline engine. Applied Thermal Engineering. 2019;162:114236. [12] Joshi S, Koehler E, Dahodwala M, Franke M, Naber JD, editors. Controls Development and Vehicle Drive Cycle Analysis of Integrated Turbocompounding, Electrification and Supercharging System (ITES). ASME 2018 Internal Combustion Engine Division Fall Technical Conference; 2019: American Society of Mechanical Engineers Digital Collection. [13] Choi B, Jung D, Lee J. Mechanical and Electromagnetic Analysis of High Speed Motor/Generator for Electric Turbo Compounding System. The Open Electrical & Electronic Engineering Journal. 2018;12(1). [14] Naseri A, Fazlikhani M, Sadeghzadeh M, Naeimi A, Bidi M, Tabatabaei SH. Thermodynamic and Exergy Analyses of a Novel Solar-Powered CO2 Transcritical Power Cycle with Recovery of Cryogenic LNG Using Stirling Engines. Renewable Energy Research and Application. 2020;1(2):175-85. [15] Jiménez-Arreola M, Dal Magro F, Romagnoli A, Chiong MS, Rajoo S, Martinez-Botas RF, editors. Analytical Investigation of a Thermal-Supercharged Internal Combustion Engine Compounded With Organic Rankine Cycle for Waste Heat Recovery. ASME Turbo Expo 2017: Turbomachinery Technical Conference and Exposition; 2017: American Society of Mechanical Engineers Digital Collection. [16] Mahmoudzadeh Andwari A, Pesiridis A, Esfahanian V, Salavati-Zadeh A, Karvountzis-Kontakiotis A, Muralidharan V. A comparative study of the effect of turbocompounding and ORC waste heat recovery systems on the performance of a turbocharged heavy-duty diesel engine. Energies. 2017;10(8):1087. [17] Ghorbani B, Mehrpooya M, Sadeghzadeh M. Developing a tri-generation system of power, heating, and freshwater (for an industrial town) by using solar flat plate collectors, multi-stage desalination unit, and Kalina power generation cycle. Energy Conversion and Management. 2018;165:113-26. [18] Hariram V, Shangar RV. Influence of compression ratio on combustion and performance characteristics of direct injection compression ignition engine. Alexandria Engineering Journal. 2015;54(4):807-14. [19] Agarwal AK, Srivastava DK, Dhar A, Maurya RK, Shukla PC, Singh AP. Effect of fuel injection timing and pressure on combustion, emissions and performance characteristics of a single cylinder diesel engine. Fuel. 2013;111:374-83. [20] Egan B, Dechant S, Damm C. AC 2007-1342: Building as a power plant modeling and selection of a combined heat and power system for an advanced commercial building. age. 2007;12:1. [21] Sonntag RE, Borgnakke C, Van Wylen GJ, Van Wyk S. Fundamentals of thermodynamics: Wiley New York; 1998. [22] Wang J, Yan Z, Zhou E, Dai Y. Parametric analysis and optimization of a Kalina cycle driven by solar energy. Applied Thermal Engineering. 2013;50(1):408-15. [23] Salek F, Moghaddam AN, Naserian MM. Thermodynamic analysis of diesel engine coupled with ORC and absorption refrigeration cycle. Energy Conversion and Management. 2017;140:240-6. [24] Dhamecha MTSA, Tiwari P. Thermodynamic Analysis of Organic Ranking Cycle using EES Solver. 2019. [25] Pulkrabek WW. Engineering fundamentals of the internal combustion engine. American Society of Mechanical Engineers Digital Collection; 2004. [26] Lion S, Taccani R, Vlaskos I, Scrocco P, Vouvakos X, Kaiktsis L. Thermodynamic analysis of waste heat recovery using Organic Rankine Cycle (ORC) for a two-stroke low speed marine Diesel engine in IMO Tier II and Tier III operation. Energy. 2019. [27] Xu F, Goswami DY, Bhagwat SS. A combined power/cooling cycle. Energy. 2000;25(3):233-46. [28] Zare V, Mahmoudi SS, Yari M, Amidpour M. Thermoeconomic analysis and optimization of an ammonia–water power/cooling cogeneration cycle. Energy. 2012;47(1):271-83. [29] Adewusi S, Zubair SM. Second law based thermodynamic analysis of ammonia–water absorption systems. Energy conversion and management. 2004;45(15-16):2355-69. [30] Abusoglu A, Kanoglu M. Exergetic and thermoeconomic analyses of diesel engine powered cogeneration: Part 1–Formulations. Applied Thermal Engineering. 2009;29(2-3):234-41. [31] Ghaebi H, Parikhani T, Rostamzadeh H, Farhang B. Proposal and assessment of a novel geothermal combined cooling and power cycle based on Kalina and ejector refrigeration cycles. Applied Thermal Engineering. 2018;130:767-81. [32] Rakopoulos C, Giakoumis E. Simulation and exergy analysis of transient diesel-engine operation. Energy. 1997;22(9):875-85. [33] Abusoglu A, Kanoglu M. First and second law analysis of diesel engine powered cogeneration systems. Energy Conversion and Management. 2008;49(8):2026-31. [34] Long R, Kuang Z, Li B, Liu Z, Liu W. Exergy analysis and performance optimization of Kalina cycle system 11 (KCS-11) for low grade waste heat recovery. Energy Procedia. 2019;158:1354-9. [35] Fuel Cost. Available from: https://www.globalpetrolprices.com. [36] Ashouri M, Vandani AMK, Mehrpooya M, Ahmadi MH, Abdollahpour A. Techno-economic assessment of a Kalina cycle driven by a parabolic Trough solar collector. Energy conversion and management. 2015;105:1328-39. [37] Compressor price. Available from: www.melett.com. [38] Beggs C. Energy: management, supply and conservation: Routledge; 2010. [39] Inflation rate. Available from: www.cbi.ir. | ||
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