Abstract
The heat storage (HS) system for pre-heating a bus petrol internal combustion engine to starting was mathematically modelled and experimentally investigated. The development of such devices is an extremely urgent problem especially for regions with a cold climate. We discuss how HS works on the effect of absorption and rejection of heat energy at a solid-liquid phase change of a HS substance. In the first part of the paper a numerical method to calculate the HS mass-dimensional parameters and their characteristics are described. In the experimental part of the paper results are given of experiments on the pre-heating device aiding to start a carburettor engine under operational conditions and analysis of data received. Practical confirmation of the theoretical development of HS devices for a bus engine for starting by pre-heating is given.
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Wentworth J.T. (1968) Piston ring variables affect exhaust hydrocarbon emissions. Paper 680109 Society of Automotive Engineers (SAE). Warrendale, PA
Boam, D.J. (1986) Energy audit on a two litre saloon car driving an ECE 15 from a cold start. Proc. Inst. Mech Engrs. Part D. J. Automobile Engng. 200, 66–67
Schatz O. (1992) Cold-start improvements with latent heat store. Automotive Engng J. February, 58–61
Bridgegate Ltd (Authorized dealership of BMW (GB) Ltd, Chesterfield) (1996) Internal technology document. 1–4
Darkwa K. and O’Callaghan P.W. (1997) Green transport technology (GTT): Analytical studies of a thermochemical store for minimising energy consumption and air pollution from automobile engines. Applied Thermal Engineering 17, 7, 603–614.
Nauman R., Emos H. (1986) Salt hydrates as a materials for latent heat storage. Deutsche Akademie der Wissenschaften. Sitzungsberichte, 3
Porisini F.S. (1988) Salt hydrates used for latent heat storage: corrosion of metals and reliability it thermal performance. Solar energy. 41, No. 2
Panasienko T.I., Kudra S.A., Iacenko L.V. (1983) Corrosion behaviour of same heat storage construction materials. Geliotehnika, 5 (in Russian)
Isachenko V.P., Osipova V.S., Sukomel S.S. (1975) Heat Transfer Energia, Moscow (In Russian)
Vasiliev L.L., Burak V.S., Kulakov A.G. Mishkinis D.A., Bohan P.V. (1999) Heat storage device for pre-heating internal combustion engines at start-up. Int. J. Therm. Sci. 38, 98–104
Iudaev B.N. (1988) Technical thermodynamics. Heat Transfer. Visshaia Shkola, Moscow (In Russian)
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© 1999 Springer-Verlag
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Vasiliev, L.L., Burak, V.S., Kulakov, A.G., Mishkinis, D.A., Bohan, P.V. (1999). Heat storage for a bus petrol internal-combustion engine. In: Hutter, K., Wang, Y., Beer, H. (eds) Advances in Cold-Region Thermal Engineering and Sciences. Lecture Notes in Physics, vol 533. Springer, Berlin, Heidelberg. https://doi.org/10.1007/BFb0104215
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DOI: https://doi.org/10.1007/BFb0104215
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