Gaseous Detonation Physics and Its Universal Framework Theory

Chap. 1 Introduction <p>1.1 Origin and cognition of gaseous detonation</p>

<p>1.2 Explosion, deflagration and detonation waves</p>

<p>1.3 Methodology of gaseous detonation research</p>

1.4 Critical physical phenomena of gaseous detonation<p></p>

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<p>Chap. 2 Mathematical equations and computational methods</p>

<p>2.1 Fundamental theories of gaseous detonation</p>

2.2 Mathematical and physical models<p></p>

<p>2.3 Governing equations and computational methods</p>

<p>2.4 Multi-dimensional simulation of detonation and its analysis</p>

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Chap. 3 Classical theories of gaseous detonations and dynamic parameters<p></p>

<p>3.1 Chapman–Jouguet theory</p>

<p>3.2 Zel'dovich–von Neumann–Döring model</p>

<p>3.3 Weak initiation through deflagration to detonation transition</p>

<p>3.4 Direct initiation through strong ignition source</p>

<p>3.5 SWACER theory of weak and strong initiations</p>

<p>3.6 Dynamic parameters and its discussion</p>

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<p>Chap. 4 Cellular detonation features and experimental observations</p>

<p>4.1 Multi-wave detonation fronts and cellular features</p>

<p>4.2 Structural evolution of propagating cellular detonation</p>

4.3 Reflection and diffraction of cellular detonation<p></p>

<p>4.4 Bifurcation models of cylindrical cellular detonation</p>

<p>4.5 Propagation of irregular detonations</p>

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Chap. 5 Universal framework theory for initiation and propagation of regular gaseous detonation <p></p>

<p>5.1 Introduction</p>

<p>5.2 Physical mechanism of hot spot initiation</p>

<p>5.3 Combustion reaction zone and its evolution</p>

<p>5.4 Critical initiation state and characteristic parameters</p>

<p>5.5 Critical propagation state and statistical features of detonation cells </p>

<p>5.6 Averaged cell length and half-cell rule</p>

5.7 Ignition delayed time and its correlation with cell length<p></p>

<p>5.8 Application of universal framework theory</p>

<p>5.9 Remarks on universal framework theory</p>

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Chap. 6 Structures and stationary rules of oblique detonations<p></p>

<p>6.1 Conservation laws and polar analysis of oblique detonations</p>

<p>6.2 Initiation structure of wedge-induced oblique detonation waves</p>

<p>6.3 Multi-wave structures and surface instability</p>

<p>6.4 Oblique detonation waves in realistic inflow conditions</p>

<p>6.5 Effects of rear expansion wave derived from finite-length wedges</p>

<p>6.6 Effects of blunt body on the initiation</p>

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<p>Chap. 7 Engineering applications of gaseous detonation phenomena</p>

<p>7.1 Thermal analysis of detonation-based combustion process</p>

<p>7.2 Propulsion technologies based on detonation waves</p>

7.3 Gaseous detonation driven high-enthalpy shock tunnels<p></p>