Improving the quality of fuel combustion in cars through the photoactivation of reagent molecules

Authors

  • L. Chervinsky National University of Life and Environmental Sciences of Ukraine image/svg+xml
  • B. Kovalyshyn National University of Life and Environmental Sciences of Ukraine image/svg+xml

DOI:

https://doi.org/10.31548/energiya2019.06.066

Abstract

Abstract. Stocks and efficiency of use of energy resources determine the level of economic development in most countries. Terms exhaustion of conventional hydrocarbons measured several decades. Extending the duration of their use would conduct research to obtain new energy and energy technologies for energy production processes and needs.

Activation molecules reagents combustion reaction is, in our opinion, one of the most promising ways to improve fuel efficiency units, which will increase the use of non-renewable fossil terms of hydrocarbons, and demonstrates the relevance and timeliness of solving this problem.

The purpose of the study– the rationale mode power generating plants efficiency through the use of optical radiation to activate the molecules of the combustion of gaseous reactants hydrocarbon fuel in the air.

Energy efficiency fuel gas installations possible when activating molecules reagents combustion reaction by ultraviolet light emission. Grounded basic parameters of ultraviolet light emission for transfer reagent molecules in the excited state. The results of the experiment show search efficiency of photoactivation reagent molecules of the combustion of vacuum ultraviolet radiation to improve the efficiency of the combustion of natural gas in the air.

Increased ultraviolet radiation influence on the efficiency of combustion is observed in the absence of active ventilation, which indicates a significant contribution of ozone in the course of the process of burning hydrocarbon fuels.

Key words: molecules, reactant, efficiency, combustion, activation, energy, radiation, level of excitement

 

References

Alikberova, L. Y., Savinkina, E.V. and Davydova, M.N. (2004). Basis of the Structure of matter. Moscow, 468.

Chervinsky, L .S. (2005). Optical technologies in livestock. Kyiv: Naukova Dumka, 230.

Dambrauskas, S. G., Ivanov, V. V., Klopovskyy, K. S., Krylov, E. A., Rakhimov, T. V., Saenko, V. B. (2002). Investigation of the processes that determine the effectiveness of a wide source of VUV radiation initiated matrix microdischarges. Moscow: Preprint MSU.

Galicia, V. M., Nikitin, E. E., Smirnov, B. M. (1981). The theory of collisions of nuclear particles. Moscow: Nauka, 256.

Haysak, M., Hnatiuk, M., Fedornyak, Yu. (2011). Binding energy of the singlet and triplet states of negative mioniy ions. Uzhgorod, 240-245.

https://doi.org/10.24144/2415-8038.2011.30.240-245

Internet resources: http: // www.alkor.net/alkorru/FusedSilica1.html - Optical kvarts Glass.

Internet resources: https: // www.gov.uk/government/publications / - Total Energy

Kaganov, I. L. (1972). Ion devices. Moscow: Energy, 528.

Kaptsov, N. A. 1954. Electronics. Moscow: Hostehizdat, 470.

Korchemnyy, M., Fedoreyko, V., V. Shcherban. (2001). Energysaving in agroindustrial complex. Ternopil: Textbooks and manuals, 976.

Kovalyshyn, B. (2012). Theoretical and experimental ground of the fuel energy efficiency rising by activating of burning reaction molecules-reagents.- J. Econtechmod. Lublin-Lviv-Cracow, 1(1), 63-66.

Kovalyshyn, B. M. (2012). Justification energy efficiency fuel plants through activation molecules reaction reagents incineration.- Pratci TDAU.-Melitopol, 12 (2), 157-164.

Lopatinsky, I. E., Zachek, I. R., Ilchuk, G. A., Romanyshyn, B. M. (2005). Physics.Lviv: Poster, 386.

Oryr J. (1981). Fyzyka. Moscow: Mir, 336.

Patent №37572 Ukraine, INC F23C 99/00 / Method fuel efficiency installations on hydrocarbon fuels and device for its implementation / BM Kovalyshyn (Ukraine) / Zayav.28.07.2006; publ. 10.12.2008. Bull. №23, 2008.

Physical Chemistry (editor C.S. Krasnov). (2001). Moscow: High School, 512.

Prakhovnik, A.V., Rosen, V. P., Razumovsky, A. V. and et. (1999). Power Management: Aid train. Kyiv: Kyivska Not. f-ca, 184.

Stromberg, A. G. (2001). Physical Chemistry. Moscow: High school, 527.

Yariv, A. (1982). An Introduction to Theory and Applications of Quantum Mechanics. California Institute of Technology, 185.

Zeidel, A. P., Prokofiev, V. P., Rayskyy, S. M., Slyty, V. A., Shreyder E.Y. (1977). Tables of spectral lines. Moscow: Nauka.

Downloads

Published

2020-02-12

Issue

Section

Статті