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Formation and diagnostics of sprays in combustion

Version 3 2024-03-12, 19:39
Version 2 2024-02-12, 10:19
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posted on 2024-03-12, 19:39 authored by Terrence Meyer, Michael Brear, Seong-Ho JinSeong-Ho Jin, James Gord

Fuel-air mixture preparation is a key factor determining combustion performance and emissions in a variety of practical applications, such as internal combustion engines,gas-turbine engines, rocket propulsion devices, and power generation systems. The problem of characterizing the two-phase combustion process, however, is quite difficultin part because of the complex optical interactions involved, as well as the optically dense nature of many sprays. There are a wide number of techniques currentlyemployed for the characterization of spray combustion processes, with the selection of appropriate measurement technology dependent upon the nature of the spray for eachcombustion application. This chapter reviews a variety of conventional techniques, in particular Mie scattering, phase-Doppler interferometry, and planar laser-inducedfluorescence. More advanced techniques, including holography, three-dimensional tomography, X-ray radiography, and time-gated ballistic imaging are also discussed. Often the combination or comparison of multiple techniques yields information that would otherwise be inaccessible with individual methods. Advantages anddisadvantages of each technique, sources of error, measurement needs, and outlook for future development are discussed in the context of the challenges facing combustionscientists and engineers.

History

School affiliated with

  • School of Engineering (Research Outputs)

Publication Title

Handbook of combustion

Publisher

Wiley

ISBN

9783527324491

Date Submitted

2011-08-20

Date Accepted

2011-08-20

Date of First Publication

2011-08-20

Date of Final Publication

2011-08-20

ePrints ID

4622

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