TAILIEUCHUNG - Lecture Thermodynamics: An engineering approach (8/e): Chapter 15 - Yunus A. Çengel, Michael A. Boles

Chapter 15 - Chemical reactions. The objectives of Chapter 15 are to: Give an overview of fuels and combustion; apply the conservation of mass to reacting systems to determine balanced reaction equations; define the parameters used in combustion analysis, such as air–fuel ratio, percent theoretical air, and dew-point temperature;. | Chapter 15 Chemical Reactions Study Guide in PowerPoint to accompany Thermodynamics: An Engineering Approach, 8th edition by Yunus A. Çengel and Michael A. Boles The combustion process is a chemical reaction whereby fuel is oxidized and energy is released. Fuels are usually composed of some compound or mixture containing carbon, C, and hydrogen, H2. Examples of hydrocarbon fuels are CH4 Methane C8H18 Octane Coal Mixture of C, H2, S, O2, N2 and non-combustibles Initially, we shall consider only those reactions that go to completion. The components prior to the reaction are called reactants and the components after the reaction are called products. For complete or stoichiometric combustion, all carbon is burned to carbon dioxide (CO2) and all hydrogen is converted into water (H2O). These two complete combustion reactions are as follows: Example 15-1 A complete combustion of octane in oxygen is represented by the balanced combustion equation. The balanced .

• Vật lý
• Lecture Thermodynamics
• Engineering approach
• Nhiệt động lực học
• Chemical reactions
• Percent theoretical
• Percent excess air
• Hóa học đại cương
• General Chemistry I
• Lecture General Chemistry I
• Chemical thermodynamics
• Zeroth Law of Thermodynamics
• First Law of thermodynamics
• Second Law of thermodynamics
• The second law of thermodynamics
• Thermodynamic cycle
• Thermal efficiency
• Companion site to accompany thermodynamics
• Energy transfer
• Thermal energy reservoirs
• Lecture Physical chemistry
• Physical chemistry
• Bài giảng Hóa lý
• Spontaneous processes
• Non spontaneous reaction
• Compressible flow
• Stagnation properties
• Conservation of energy
• Temperature and Heat
• Năng lượng nhiệt
• Nhiệt động học
• Vật lý học
• Phase equilibrium
• Specific gibbs function
• Simultaneous reactions
• Steady flow process
• State postulate
• Mechanical energy
• General energy analysis
• Energy transport
• Pure substances
• Properties of pure substances
• Energy analysis
• Closed systems
• Constant pressure process
• Control volumes
• Conservation of energy
• Conservation principles
• Clausius inequality
• Reversible process
• Heat transfer on entropy
• Variable specific heat method
• Closed system
• Second law
• Exergy forms
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• Gas power cycles
• Carnot cycle
• Air standard assumptions
• Combined power cycles
• Rankine cycle
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• Potential energy diagrams