Transient heat and mass transfer of liquid droplet ignition at the spreading over the heated substrate

Abstract

The processes of heat and mass transfer accompanied by phase changes and chemical reactions are numerically modeled for the ignition of a liquid droplet formed from a condensed substance hitting the surface of a high-temperature metallic plate (substrate). The time delay of a droplet ignition is determined as well as the influence scope of a substrate, droplet, and oxidizer temperature, together with sizes and speed of droplet spreading on the ignition response. Conditions are revealed when spreading and deformation of a liquid droplet dominate during the ignition process.

Original language	English
Article number	269321
Journal	Advances in Mechanical Engineering
Volume	2014
DOIs	https://doi.org/10.1155/2014/269321
Publication status	Published - 2014

ASJC Scopus subject areas

Mechanical Engineering

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10.1155/2014/269321

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Glushkov, D. O., & Strizhak, P. A. (2014). Transient heat and mass transfer of liquid droplet ignition at the spreading over the heated substrate. Advances in Mechanical Engineering, 2014, [269321]. https://doi.org/10.1155/2014/269321

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abstract = "The processes of heat and mass transfer accompanied by phase changes and chemical reactions are numerically modeled for the ignition of a liquid droplet formed from a condensed substance hitting the surface of a high-temperature metallic plate (substrate). The time delay of a droplet ignition is determined as well as the influence scope of a substrate, droplet, and oxidizer temperature, together with sizes and speed of droplet spreading on the ignition response. Conditions are revealed when spreading and deformation of a liquid droplet dominate during the ignition process.",

author = "Glushkov, {Dmitrii O.} and Strizhak, {Pavel A.}",

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AB - The processes of heat and mass transfer accompanied by phase changes and chemical reactions are numerically modeled for the ignition of a liquid droplet formed from a condensed substance hitting the surface of a high-temperature metallic plate (substrate). The time delay of a droplet ignition is determined as well as the influence scope of a substrate, droplet, and oxidizer temperature, together with sizes and speed of droplet spreading on the ignition response. Conditions are revealed when spreading and deformation of a liquid droplet dominate during the ignition process.

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