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Wet combustion and water vapor pump-cycle efficiency /
In the past, water was used as an anti-knock agent or as an ""additive"" component to improve combustion quality and to boost engine power. Today, in a context of severe environmental requirements and energy saving responsibilities, the proper use of water continues to offer many...
| Clasificación: | Libro Electrónico |
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| Autor principal: | |
| Formato: | Electrónico eBook |
| Idioma: | Inglés |
| Publicado: |
Newcastle upon Tyne, UK :
Cambridge Scholars Publishing,
2019.
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| Temas: | |
| Acceso en línea: | Texto completo |
Tabla de Contenidos:
- Intro; Table of Contents; The Author; Acknowledgements; Remerciements; Abstract; Résumé; Introduction; Correlation between fossil energy consumption and economic development; The stability of fossil fuels' place in the world; Combustion, pollution and health; Global pollution or the peril of planet temperature elevation; In the context of growing energy demand, what about other energy sources ...?; Chapter One; 1.1 Definition of Wet Combustion; 1.2 General advantages of Wet Combustion; 1.3 Wet combustion with the Water Vapor Pump-cycle; 1.4 Water Vapor Pump-cycle efficiency
- 1.5 Water vapor pump-cycle applications1.6 About additional water introduction technologies; 1.7 Limits and general precautions for additive water; 1.8 More details about the additional impact of water on combustion; 1.9 About water and material characteristics; Chapter Two; 2.1 A reference to the first thermodynamics principle; 2.2 The dimensionless enthalpy of combustion products; 2.3 The wet bulb temperature; 2.4 The inlet enthalpies; 2.5 Enthalpies derivatives expressions; 2.6 A combustion hygrometric image; 2.7 CHD and metrology; 2.8 The composition of combustion products
- 2.9 More about the water dew point temperature calculationChapter Three; 3.1 Traditional water heater efficiency; 3.2 Condensing boilers and the WVP cycle; 3.3 Efficiency anticipation of a HAT (Humidified Air Turbine cycle); 3.4 Efficiency anticipation of a STIG (Steam in Gas turbine cycle) equipped with a water vapor pump exchanger on a cogeneration (or heat and power recovery) site; 3.5 Direct contact heaters; 3.6 The water vapor pump exchanger efficiency; 3.7 Graphic study of a water plume formation; 3.8 Monophasic and biphasic exchanges analogy; 3.9 Examples of biphase exchanger sizing
- ConclusionAnnexes; A.1 Bibliography; A.2 Numerical tables; A.3 Reminders relating to the determination of the convection exchange coefficients and load losses in flows ... ; A.4 Example of porous membrane sizing; A.5 Example of post-combustion boiler efficiency analysis with the CHD method; A.6 Nomenclature; A.7 Diagrams, CHD drawings