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Thermoacoustic Combustion Instability Control - by Dan Zhao (Paperback)
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Highlights
- Thermoacoustic Combustion Instability Control: Engineering Applications and Computer Codes provides a unique opportunity for researchers, students and engineers to access recent developments from technical, theoretical and engineering perspectives.
- Author(s): Dan Zhao
- 1144 Pages
- Science, Energy
Description
About the Book
"A compendium of theoretical and computational modeling, thermoacoustic combusion instability phenomena assoicated with recent advances in multidimensional and multiscale computing methods, and the current developments in advanced signal-processing techniques. These include real-time observer, proper orthogonal decomposition, lattice Boltzmann method, and the associated numerical and analytical approaches. The fundamental physics of combustion instability occurs in both ramjet, oxyfuel, and swirling combustors and micro-scale combustors with low emission, and practical methods for alleviating common problems are presented with analytical and numerical approaches to arm readers with tools. Packed with examples to practice and training on computer coding for combustion technology. Key features: focuses on the applications of theoretical and numerical approaches with computer codes relevants to low emission combustion instability sciences and technology, includes recent modeling and analytical developments motivated by empirical experimental observations, contains an introductory section ensuring any readers new to this topic are equipped with required technical terms.Book Synopsis
Thermoacoustic Combustion Instability Control: Engineering Applications and Computer Codes provides a unique opportunity for researchers, students and engineers to access recent developments from technical, theoretical and engineering perspectives. The book is a compendium of the most recent advances in theoretical and computational modeling and the thermoacoustic instability phenomena associated with multi-dimensional computing methods and recent developments in signal-processing techniques. These include, but are not restricted to a real-time observer, proper orthogonal decomposition (POD), dynamic mode decomposition, Galerkin expansion, empirical mode decomposition, the Lattice Boltzmann method, and associated numerical and analytical approaches.
The fundamental physics of thermoacoustic instability occurs in both macro- and micro-scale combustors. Practical methods for alleviating common problems are presented in the book with an analytical approach to arm readers with the tools they need to apply in their own industrial or research setting. Readers will benefit from practicing the worked examples and the training provided on computer coding for combustion technology to achieve useful results and simulations that advance their knowledge and research.