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Fuel Consumption Saving Potential of Stirling Machine on Series Parallel Hybrid Electric Vehicle: Case of the Toyota Prius
ISSN: 0148-7191, e-ISSN: 2688-3627
Published April 03, 2018 by SAE International in United States
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Investigations on alternative fuels and new hybrid powertrain architectures have recently undergone significant efforts in the automotive industry, in attempt to reduce carbon emissions from passenger cars. The use of these fuels presents a potential for re-emerging the deployment of external combustion non-conventional engines in automotive applications, such as the Stirling engines, especially under the current development context of powertrain electrification. This paper investigates the potential of fuel consumption savings of a series-parallel hybrid electric vehicle (SPHEV) using a Stirling machine as fuel converter. An exergo-technological explicit analysis is conducted to identify the Stirling system configuration presenting the best compromise between high efficiency and automotive implementation constraints. The Stirling engine with combustion chamber preheater is prioritized. A SPHEV model is developed based on the Prius power-split hybrid electric architecture. Energy consumption simulations are performed on the worldwide-harmonized light vehicles test cycle (WLTC) using dynamic programing as global optimal energy management strategy. Results show improved fuel consumption performance of the Stirling machine compared to the ICE. In addition, the Stirling offers other intrinsic advantages such as low noise and vibration operation and mainly multi-fuel use capability. Consequently, the studied Stirling presents a potential for implementation on SPHEVs.
CitationBou Nader, W., Mansour, C., Nemer, M., and Dumand, C., "Fuel Consumption Saving Potential of Stirling Machine on Series Parallel Hybrid Electric Vehicle: Case of the Toyota Prius," SAE Technical Paper 2018-01-0421, 2018, https://doi.org/10.4271/2018-01-0421.
Data Sets - Support Documents
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- Nightingale, N., "Automotive Stirling Engine: Mod II Design Report", National Aeronautics and Space Administration, Lewis Research Center, DOE/NASA/0032-28, October 1986.
- Rosenqvist, K., Lia, T., and Goldwater, B., “The Stirling Engine for the Automotive Application,” SAE Technical Paper 790329, 1979, doi:https://doi.org/10.4271/790329.
- Thiers, S., Aoun, B., and Peuportier, B., “Experimental Characterization, Modeling and Simulation of a Wood Pellet Micro-Combined Heat and Power Unit Used as a Heat Source for a Residential Building,” Energy and Buildings 42:896-903, 2010.
- Carlsen, H., Ammundsen, N., Trerup, J., “40 kW STIRLING ENGINE FOR SOLID FUEL”, Energy Conversion Engineering Conference, Proceedings of the 31st Intersociety, DOI: 10.1109/IECEC 1996.553904
- Dochat, G., “Free-Piston Stirling Component Test Power Converter Test Results and Potential Stirling Applications,” SAE Technical Paper 929339, 1992, doi:https://doi.org/10.4271/929339.
- Shaltens, R., Schreiber, J., and Wong, W., “Update on the Advanced Stirling Conversion System Project for 25 kW Dish Stirling Applications,” SAE Technical Paper 929184, 1992, doi:https://doi.org/10.4271/929184.
- Bratt, C., Holgersson, S., Nelving, H., and Percival, W., “The Stirling Engine - a Ready Candidate for Solar Thermal Power,” SAE Technical Paper 810456, 1981, doi:https://doi.org/10.4271/810456.
- Saxena, S. and Ahmed, M., “Automobile Exhaust Gas Heat Energy Recovery Using Stirling Engine: Thermodynamic Model,” SAE Technical Paper 2017-26-0029, 2017, doi:https://doi.org/10.4271/2017-26-0029.
- Agarwal, P., Mooney, R., and Toepel, R., “Stir-Lec I, a Stirling Electric Hybrid Car,” SAE Technical Paper 690074, 1969, doi:https://doi.org/10.4271/690074.
- Postma, N., Van Giessel, R., and Reinink, F., “The Stirling Engine for Passenger Car Application,” SAE Technical Paper 730648, 1973, doi:https://doi.org/10.4271/730648.
- van Giessel, R. and Reinink, F., "Design of the 4-215 D.A. Automotive Stirling Engine," SAE Technical Paper 770082, 1977, https://doi.org/10.4271/770082.
- Dowdy, M. and Nightingale, N., "Mod I Automotive Stirling Engine System Performance," SAE Technical Paper 820353, 1982, https://doi.org/10.4271/820353.
- Richey, A., "Mod I Automotive Stirling Engine Performance Development," SAE Technical Paper 840461, 1984, https://doi.org/10.4271/840461.
- Farrell, R., “Mod II Stirling Engine Overview,” SAE Technical Paper 880539, 1988, doi:https://doi.org/10.4271/880539.
- Richey, A., “Mod II Automotive Stirling Engine Design Description and Performance Projections,” SAE Technical Paper 860059, 1986, doi:https://doi.org/10.4271/860059.
- Grandin, A. and Ernst, W., “Alternative Fuel Capabilities of the Mod II Stirling Vehicle,” SAE Technical Paper 880543, 1988, doi:https://doi.org/10.4271/880543.
- Ernst, W., “Stirling Engines for Hybrid Electric Vehicle Applications,” SAE Technical Paper 929137, 1992, doi:https://doi.org/10.4271/929137.
- Ernst, W., Meacher, J., and Bascom, R., “Status and Emissions Results for Natural-Gas-Fired Stirling Engine,” SAE Technical Paper 920383, 1992, doi:https://doi.org/10.4271/920383.
- Lienesch, J. and Wade, W., “Stirling Engine Progress Report: Smoke, Odor, Noise and Exhaust Emissions,” SAE Technical Paper 680081, 1968, doi:https://doi.org/10.4271/680081.
- Davis, S., Henein, N., and Lundstrom, R., “Combustion and Emission Formation in the Stirling Engine with Exhaust Gas Recirculation,” SAE Technical Paper 710824, 1971, doi:https://doi.org/10.4271/710824.
- Walker, G., Weiss, M., Fauvel, R., Reader, G. et al., “Simulation Program for Multiple Expansion Stirling Machines,” SAE Technical Paper 929036, 1992, doi:https://doi.org/10.4271/929036.
- Bennethum, J., Laymac, T., Johansson, L., and Godett, T., “Commercial Stirling Engine Development and Applications,” SAE Technical Paper 911649, 1991, doi:https://doi.org/10.4271/911649.
- Thorsen, J.E., Bovin, J.K., and Carlsen, H., “3 kW Stirling Engine for Power and Heat Production,” Energy Conversion Engineering Conference, 1996.
- Smith, L., Nuel, B., Weaver, S., Berkower, S. et al., “25 kW Low-Temperature Stirling Engine for Heat Recovery, Solar and Biomass Applications,” (ISEC, Cool Energy, 2016).
- Dioguardi, F., “Use of Stirling Cryogenerators for on-Site Bio-LNG Production,” (August, Nordic Biogas Conference, 2013).
- Bou Nader, W., Mansour, C., Nemer, M., and Guezet, O., “« Exergo-Technological Explicit Methodology for Gas-Turbine System Optimization for Series Hybrid Electric Vehicles », Proceedings of the Institution of Mechanical Engineers,” (Part D, Journal of Automobile Engineering, 2017).
- Mansour, C.J., “Trip-Based Optimization Methodology for a Rule-Based Energy Management Strategy Using a Global Optimization Routine: The Case of the Prius Plug-in Hybrid Electric Vehicle,” Proceedings of the Institution of Mechanical Engineers, Part D: Journal of Automobile Engineering 230(11), 2016.
- Mansour, C. and Clodic, D., “Optimized Energy Management Control for the Toyota Hybrid System Using Dynamic Programming on a Predicted Route with Short Computation Time,” International Journal of Automotive Technology 13(2):309-324, 2012.
- Kirkley, D., "A Thermodynamic Analysis Of the Stirling Cycle and a Comparison with Experiment," SAE Technical Paper 650078, 1965, https://doi.org/10.4271/650078.
- MARTINI, W., ““Stirling Engine Design Manual”, DOE/NASA/3194-1,” NASA CR-168088, January 1983.
- West, C. D., “Theoretical basis for the Beale number”. Proceedings of the 16th Intersociety Energy Conversion Engineering Conference. Atlanta: American Society of Mechanical Engineers; 1981 [Paper 819787]
- Sonntag, R. and Borgnakke, R., “Fundamentals of Thermodynamics,” Sixth Edition 2003:411-423.
- Moran M and Shapiro H. “Fundamentals of engineering thermodynamics”. fifth Edition - 2006, p.303-308.
- Horlock, J.H., ““Advanced Gas Turbine Cycles”, ISBN 0-08-044273-0,” (Pergamon, 2003).
- Datta, A. and Som, S., “Energy and Exergy Balance in a Gas Turbine Combustor,” Journal of Power and Energy - Proceedings of the Institution of Mechanical Engineers 213:23-32, 1999.
- Jubleh, N., “Exergy Analysis and Second Law Efficiency of a Regenerative brayton Cycle with Isothermal Heat Addition,” Entropy ISSN 7:172-187, 2005, doi:10.3390/e7030172.
- Hirata, K. and Kawada, M., “« Development of a Multi-Cylinder Stirling Engine », National Maritime Research Institute,” (Japan, ISEC, 2005).
- Mansour, C. and Clodic, D., “Dynamic Modeling of the Electro-Mechanical Configuration of the Toyota Hybrid System Series/Parallel Power Train,” International Journal of Automotive Technology 13(1):143-166, 2012.