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Microscale combustion and power generation /

Recent advances in microfabrication technologies have enabled the development of entirely new classes of small-scale devices with applications in fields ranging from biomedicine (portable defibrillators, drug delivery systems, etc.), to wireless communication and computing (cell phones, laptop compu...

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Detalles Bibliográficos
Clasificación:	Libro Electrónico
Autores principales:	Ju, Yiguang (Autor), Cadou, Christopher P., 1965- (Autor), Maruta, Kaoru (Autor)
Formato:	Electrónico eBook
Idioma:	Inglés
Publicado:	New York, [New York] (222 East 46th Street, New York, NY 10017) : Momentum Press, 2015.
Colección:	Engineering collection.
Temas:	Internal combustion engines > Combustion. Combustion > Industrial applications. Microfabrication. Moteurs à combustion interne > Combustion. Combustion > Applications industrielles. TECHNOLOGY & ENGINEERING / Mechanical Internal combustion engines > Combustion Microfabrication microscale combustion flameless combustion combustion limits combustion instability excess enthalpy combustion small-scale liquid film combustors micro-tubes and porous combustors Swiss-roll combustors catalytic reactors micro-heat engines micro-reactors micro-power generators micro-thrusters model aircraft engines 2-stroke engines piston engines heterogeneous combustion catalytic combustion conjugate heat transfer scale-effects on combustion thermoelectric power generation micro gas turbine engine micro-rotary engine micro-rockets microfabrication MEMS
Acceso en línea:	Texto completo

Tabla de Contenidos:

1. Meso- and microscale combustion and flammability limits
1.1 Premixed flames in meso- and microscale combustion
1.2 Flammability limit and quenching diameter
1.3 Heat recirculation
1.4 Flame and wall structure coupling in microscale combustion
1.5 Weak flame regimes with temperature gradients
1.6 Coupling of thermal and kinetic quenching in microscale combustion
1.7 Non-equilibrium combustion
References
2. Boundary-accelerated flames in microchannels
2.1 Physical and numerical models
2.2 The boundary-layer accelerated flame
2.3 Effects of varying channel dimensions
2.4 Outflow acceleration and propulsion characteristics
2.5 Effects of wall temperature
2.6 Laminar-flame transition to detonation in long channels
2.7 Discussion
References
3. Flame instability in microscale combustion
3.1 Repetitive extinction and re-ignition instability
3.2 Spinning instability
3.3 Spiral flames and pattern formations
References
4. Microscale combustion modeling
4.1 Introduction
4.2 Microreactor thermal management
4.3 Heterogeneous and homogeneous chemistry modeling
4.4 Models used in microreactor research
4.5 Zero-dimensional models
4.6 One-dimensional channel-flow models
4.7 Multidimensional microreactor models
4.8 Applications of multidimensional models
4.9 Turbulent microreactor combustion
4.10 Non-continuum flows in microreactors
4.11 Conclusion and future work
References
5. Non-premixed micro combustion
5.1 Microjet diffusion flames
5.2 Basic microflame structure
5.3 Methodology
5.4 Characteristics of microjet methane diffusion flames
5.5 Flame structure and stabilization mechanism
5.6 Conclusion and future work
References
6. Diffusion flame instability and cell formation in meso- and microscale combustion
6.1 Cell flame formation in a microscale diffusion flame reactor
6.2 Flame streets and unsteady flame propagation in mesoscale diffusion flames
6.3 Conclusion and future work
References
7. Micro-combustion in non-catalytic narrow ducts
7.1 Overview of the state of the art
7.2 Structure of the tubular micro-reactive flow
7.3 Thermoacoustics
7.4 Outer wall temperature
7.5 Conclusion and future work
References
8. Fundamentals of microscale catalytic combustion
8.1 Introduction
8.2 Methodology
8.3 Characteristics of microscale catalytic combustion
8.4 Enhancement of microscale combustion by catalyst segmentation
8.5 Conclusion and future work
References
9. Miniature liquid fuel combustion
9.1 Overview
9.2 Brief review of mesoscale liquid fuel combustors
9.3 Liquid film combustor fundamentals
9.4 Combustor design evaluation
9.5 Liquid film combustion-driven TPV power system
9.6 Conclusion and future work
References
10. Heat-recirculating combustors
10.1 Introduction
10.2 Simplified analysis
10.3 Scaling
10.4 Practical perspectives
10.5 Conclusion and future work
References
11. Catalytic reactors: power generation and fuel processing
11.1 Introduction to catalytic combustion
11.2 Catalytic microreactors
11.3 Basic theory of catalytic combustion
11.4 Operation of microreactors for power generation
References
12. Microreactor with a temperature gradient
12.1 Weak flame in a temperature gradient
12.2 Multistage oxidation study using weak flame in a temperature gradient
References
13. Chemical micropropulsion
13.1 Micropropulsion and scaling
13.2 Materials, fabrication, and system integration
13.3 Solid propellant thrusters
13.4 Liquid propellant thrusters
13.5 Gaseous propellant thrusters
13.6 Conclusion and future work
References
14. Micro-rotary engine power system
14.1 Introduction
14.2 Meso-scale "mini-rotary" engine
14.3 MEMS-scale "micro-rotary" engine
14.4 Conclusion and future work
References
15. Small-scale reciprocating engines
15.1 Survey of miniature research engines
15.2 Miniature commercial engines
15.3 Quantifying engine performance
15.4 Performance measurements
15.5 Fuels
15.6 Sample performance data from three miniature engines
15.7 Scaling of engine performance
15.8 Small two-stroke piston engine combustion
15.9 Conclusion and future work
References
16. Combustors for microgas turbine engines
16.1 Introduction
16.2 Microgas turbine engines
16.3 Basic combustion concepts
16.4 Challenges of microgas turbine combustors
16.5 Homogeneous gas-phase microcombustors
16.6 Heterogeneous (catalytic) microcombustors
16.7 Conclusion and future work
References
Index.

Microscale combustion and power generation /

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