Determination of minimal density of focused radiation flux sufficient for ignition of typical liquid fuels at limited energy supply

Research output: Contribution to journalArticle

1 Citation (Scopus)

Abstract

The numerical investigations of liquid fuel ignition by local energy source - focused flow of light emission were conducted by using the developed physical and mathematical models. Features of high-speed processes of heat and mass transfer were established at ignition of three most typical types of liquid fuels (benzine, kerosene, diesel fuel) within the concerned system. The characteristic location of the zone of oxidation basic reaction in the immediate vicinity of the liquid fuel evaporation surface was determined. Minimal values of the energy density of focused radiant flux, when the main integral characteristic of studying process (ignition time delay t<inf>d</inf>) is less than 1s, were calculated. Correlations which are limited for implementation of ignition condition were established. They are the correlations of the fraction of focused radiation source energy supplied to liquid fuel and expended for its evaporation.

Original languageEnglish
Pages (from-to)265-283
Number of pages19
JournalAdvances and Applications in Fluid Mechanics
Volume17
Issue number2
DOIs
Publication statusPublished - 2015

Fingerprint

Liquid fuels
Ignition
Fluxes
Radiation
Evaporation
Light emission
Kerosene
Diesel fuels
Time delay
Mass transfer
Mathematical models
Heat transfer
Oxidation

Keywords

  • Focused flow of light
  • Heat and mass transfer
  • Ignition
  • Liquid fuel

ASJC Scopus subject areas

  • Mechanical Engineering

Cite this

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title = "Determination of minimal density of focused radiation flux sufficient for ignition of typical liquid fuels at limited energy supply",
abstract = "The numerical investigations of liquid fuel ignition by local energy source - focused flow of light emission were conducted by using the developed physical and mathematical models. Features of high-speed processes of heat and mass transfer were established at ignition of three most typical types of liquid fuels (benzine, kerosene, diesel fuel) within the concerned system. The characteristic location of the zone of oxidation basic reaction in the immediate vicinity of the liquid fuel evaporation surface was determined. Minimal values of the energy density of focused radiant flux, when the main integral characteristic of studying process (ignition time delay td) is less than 1s, were calculated. Correlations which are limited for implementation of ignition condition were established. They are the correlations of the fraction of focused radiation source energy supplied to liquid fuel and expended for its evaporation.",
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AU - Strizhak, Pavel A.

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AB - The numerical investigations of liquid fuel ignition by local energy source - focused flow of light emission were conducted by using the developed physical and mathematical models. Features of high-speed processes of heat and mass transfer were established at ignition of three most typical types of liquid fuels (benzine, kerosene, diesel fuel) within the concerned system. The characteristic location of the zone of oxidation basic reaction in the immediate vicinity of the liquid fuel evaporation surface was determined. Minimal values of the energy density of focused radiant flux, when the main integral characteristic of studying process (ignition time delay td) is less than 1s, were calculated. Correlations which are limited for implementation of ignition condition were established. They are the correlations of the fraction of focused radiation source energy supplied to liquid fuel and expended for its evaporation.

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