Estimation of the degree of internal recirculation in Internal Combustion Engines

Authors

DOI:

https://doi.org/10.17533/udea.redin.20230213

Keywords:

cylinder’s filling, fuel’s molecular mass, volumetric fractions, gaseous fuels, hydrogen

Abstract

The concepts of residual gas and admission (or volumetric efficiency) coefficients are used exclusively by specialists in the field of piston Internal Combustion Engines.  However, it is preferable to apply the concepts of volume fractions of components of the working mixture consisting of air, fuel, residual, and recirculating gases, for the evaluation of filling.  This simplifies and makes it more easy-to-grasp the influence of individual factors on the results of gas exchange processes. The proposed approach makes it possible to take into account the impact on the engine indicators of the molecular weight of the fuel used and the degree of external recirculation, as well as to reduce the number of independent variables. At the same time, the displacement coefficient A proposed by the author characterizes a decrease in filling when an engine with external mixing is switched to a gaseous fuel with a lower molecular weight. A change in the valve timing made it possible to produce an effect on the composition of the working mixture and, thereby, the environmental characteristics of the engine. In the case of external recirculation, it becomes necessary to estimate the summary fraction of neutral combustion products in the working mixture, on which all engine operation depended. This "overall degree of recirculation" can also be determined using the proposed approach.

|Abstract
= 934 veces | ´PDF
= 191 veces| | HTML
= 0 veces|

Downloads

Download data is not yet available.

Author Biography

Leonid Matiukhin, Moscow Automobile and Road Construction University

PhD. Department of "Heat Engineering and Internal Combustion Engines" of the Energy and Environmental Faculty of the Moscow

References

] M. G. Shatrov1, L. M. Matyukhin, and V. V. Sinyavski, “An alternativeapproach to the assessment of internal combustion engine fillingand its technical and economic parameters,”International Journalof Emerging Trends in Engineering Research, vol. 8, no. 16, Jun.2020. [Online]. Available:http://www.warse.org/IJETER/static/pdf/file/ijeter94862020.pdf

R. van Basshuysen and F. Schäfer, Eds.,HandbuchVerbrennungsmotor, ser. ATZ/MTZ-Fachbuch.Washington,DC: Springer Fachmedien Wiesbaden, 1964, pp. 32–33.

V. N. Lukanin,Internal Combustion Engines. Moscow: Mir, 2005.

M. G. Shatrov,Automobile Engines. Moscow, RU: Akademia, 2010.

V. N. Lukanin,Motores de combustión interna. Moscú: Mir, 1985

L. M. Matiukhin, “El método alternative de la evaluación de calidad de los resultados del intercámbio de gases en los motores de combustión interna”, Venezuela, Revista Ingenieria UC 25, N◦ 1, pp. 31—43, 2018.

B. A. Sharoglazov, M.F. Farafontov, V.V. Klementiev, “Internal combustion engines: Theory, modeling and process calculation”, Russia, South Ural State University, 2005.

Yu. L. Kovylov, D.A. Uglanov “The influence of various factors on the filling ratio of a piston engine”, Russia, Bulletin of the Samara State Aerospace University n.a. S.P.Korolev, pp.114-117, 2007.

B. A. Sharoglazov, V.A. Povalyaev “Estimated quality assessment of fresh charge filling of piston engine cylinders at the design stage”, Russia, Bulletin of the National Research South Ural State University,¬ Vol. 23, pp. 20-24, 2008.

A. Jante, Leitfaden der technischen Thermodynamik“, Germany, Leizig, B.G,. Teubner Verlagsgeselschaft, 2. Auflage, 1956

Termotecnia”, dirigido por A.P.Baskakov – Rusia, Moscú; editorial MIR, 1882;

Christian Walter. „Technische Wärmelehre“‚ Band 1, VEB Deutscher Verlag für Grundstoffindustrie, Germany, Leipzig, 1966.

L. M. Matiukhin, “Analysis of filling and thermal calculation of ICE based on the composition of the working mix”, Germany, Saarbrücken: LAP LAMBERT Academic Publishing GmbH & Co. KG, 2011.

P. Kovalenko, S.N. Devyanin, E.A. Ulyukina, A.V. Todoriv, “Prospects for the operation of agricultural machinery on compressed natural gas”, avtozapravochniy complex + al’ternativnjoe toplivo , Vol. 16. № 7, pp. 313-315, 2017.

V. V.Sinyavski, I. V. Alekseev, I. Ye. Ivanov, S. N.Bogdanov, Yu. V. Trofimenko, «Physical Simulation of High- and Medium-Speed Engines Powered by Natural Gas». Pollution Research, Vol. 36 (3), pp. 684-690, 2017.

G. G. Ter-Mkrtichyan, A.M. Saikin, K.E. Karpukhin, A.S.Terenchenko, Yu.G. Ter-Mkrtichyan «Diesel-to-natural gas engine conversion with lower compression ratio», Pollution Research. Enviro Media ISSN: 0257-8050, vol. 36. no 3. pp. 678-683, 2017.

V. V. Sinyavski, M.G. Shatrov, V.V. Kremnev, G. Pronchenko. “Forecasting of a boosted locomotive gas diesel engine parameters with one- and two-stage charging systems”, Serbia, Niç, Reports in Mechanical Engineering, Vol.1, No.1, pp. 192-19, 2020.

M. G. Shatrov, V.V. Sinyavski, A. Y. Dunin, I. G. Shishlov, A. V. Vakulenko, “Method of conversion of high- and middle-speed diesel engines into gas diesel engines”, Srbia, Niç, Facta Universitatis, Series: Mechanical Engineering, Vol. 15, No 3, 2017, pp. 383- 39

V. I. Erokhov, A.L. Karunin, "Gas-diesel vehicles (construction, calculation, operation)", Russia, Moscow, Graf-Press, 2015

K. Schmillen, “Nuzung von Biogas in Gaszundungstrahlmotoren, Germany, MTZ (Motortechnische Zeitschrift), №№ 7-9, pp. 351-357, 1989.

V.A. Markov, S.N. Devyanin, L.I. Bykovskaya, I.G. Markova, I.N. Afteni, «Biogas is a promising for engines” , Russia, Moscow, Gruzovik, № 5. pp. 29-39, 2018.

V. L. Chumakov, S.N. Devyanin, F.N. Bizhaev, A.V.Kapustin, “Experimental studies to improve the toxic characteristics of gas diesel“, Russia, Moscow, in the collection: “Readings of academician V.N. Boltinsky, Collection of articles of the seminar, pp. 104-112, 2021.

V. A. Markov, S. Bowen, S.N. Devyanin, “Emission performance of a diesel engine running on petroleum diesel fuel with different vegetable oil additives”, Russia, Vladivostok, In the collection: 2020 International Multi-Conference on Industrial Engineering and Modern Technologies, FarEastCon. 9271091 P, 2020.A. Jante, „Leitfaden der technischen Thermodynamik“, Germany, B.G,. Teubner Verlagsgeselschaft, Leizig, 2. Auflage, 1956,

V. L. Chumakov, S.N. Devyanin, “Oxide emissions reduction from combustion control in a diesel engine”, Russia, Moscow, Russian State Agrarian University - Moscow Timiryazev Agricultural Academy, Vol. 15, № 1, pp. 48-56, 2021.L.M. Matiukhin, “Dependence of indicated parameters of internal combustion engines on the type of fuel used. Assessment of filling and indicated parameters of gas IC engines”, Russia, Moscow, International Scientific and Technical Journal Avtogazozapravochnyy Kompleks + Al'ternativnoye toplivo, Vol. 1(61), pp. 15-18, 2012.

V. L. Chumakov, S.N. Devyanin, F.N. Bizhaev, A.V.Kapustin “Optimization of gas diesel regulation as a method of improving its environmental characteristics”, Russia, Moscow, Agroinzheneriya, № 4 (104), pp. 28-32., 2021/ 14

S.N. Devyanin, V.A. Markov, A.A.Savastenko, “Use of biogas as a motor fuel”, Russia, Moscow, In the collection: Readings of academician V.N. Boltinsky (115 years since birth). Collection of articles of the seminar. Edited by M.N. Erokhin, Megapolis, pp. 69-87, 2019.

“Motores de automóvil”, edited by M. Jovaj, Rusia, Moscú; editorial MIR 1982; 656 P.

L. M. Matiukhin, G.G. Ter-Mkrtich'yan “Thermodynamic fundamentals for calculating the duty cycle of engines with a shortened intake or shortened compression based on an analysis of the composition of the working mixture”, Russia, Moscow, Bulletins of NAMI, Vol. 263, pp.35-44, 2015.

L.M. Matiukhin, “Evaluation of the results of gas exchange in the 4- and 2-stroke piston ICE based on the analysis of the ratios of individual components in the working mixture”, Russia, Moscow, Bulletin of MADI, Vol.6, pp. 36-41, 2006

Downloads

Published

2023-02-20

How to Cite

Matiukhin, L. (2023). Estimation of the degree of internal recirculation in Internal Combustion Engines. Revista Facultad De Ingeniería Universidad De Antioquia, (110), 48–55. https://doi.org/10.17533/udea.redin.20230213