Multi-Pollutant Control for Flue Gases: Principles and Application

Preface
Contents
1 Introduction
	1.1 Energy Utilization and Air Pollutant Emissions
	1.2 Environmental and Health Influences of Air Pollutants
	1.3 Global Actions for Clean Air
	1.4 Development of Air Pollutant Control Technologies
	References
2 Pollutant Control by Catalytic Methods
	2.1 Introduction
	2.2 Fundamentals of Selective Catalytic Reduction
		2.2.1 Overview
		2.2.2 Reaction Mechanism and Kinetics
	2.3 NOx Control Enhancement and Applications
		2.3.1 Catalyst Poisoning and Resistance
		2.3.2 Widening the Working Temperature Window
		2.3.3 SO2/SO3 Conversion Inhibition
		2.3.4 Applications
	2.4 Simultaneous Control of Multiple Pollutants
		2.4.1 Simultaneous Control of Mercury
		2.4.2 Simultaneous Control of Volatile Organic Compounds
		2.4.3 Applications
	References
3 Pollutant Control by Electric Methods
	3.1 Introduction
	3.2 Fundamentals of Particulate Matter (PM) Control
		3.2.1 Physicochemical Characterizations of PM
		3.2.2 Mechanisms of PM Control in Electric Field
	3.3 PM Control Enhancement and Applications
		3.3.1 Particle Growth
		3.3.2 Particle Conditioning
		3.3.3 Particle Precharging
		3.3.4 Electrode Optimization
	3.4 Simultaneous Control of Multiple Pollutants
		3.4.1 Simultaneous Control of SOx
		3.4.2 Simultaneous Control of NOx
		3.4.3 Simultaneous Control of Trace Elements
	References
4 Pollutant Control by Absorption Methods
	4.1 Introduction
	4.2 Fundamentals of Pollutant Control by Absorption
		4.2.1 Process Chemistry
		4.2.2 Mass Transfer and Kinetic Reaction Modeling
	4.3 SO2 Control Enhancement and Applications
		4.3.1 PH Adjustment
		4.3.2 Desulfurization Additives
		4.3.3 Scrubber Optimization
	4.4 Simultaneous Control of Multiple Pollutants
		4.4.1 Simultaneous Control of NOx
		4.4.2 Simultaneous Control of Hg
		4.4.3 Applications
	References
5 Multi-pollutant Removal System and Technology Evaluations
	5.1 Introduction
	5.2 Multi-pollutant Removal System
		5.2.1 Ultra-Low Emission (ULE) Technologies
		5.2.2 Technical Routes
	5.3 Engineering Practice of ULE System
		5.3.1 1000 MW Coal-Fired Power Unit
		5.3.2 600 MW Coal-Fired Power Unit
		5.3.3 300 MW Thermal Power Unit
		5.3.4 50 MW Coal and Sludge Co-combustion Unit
	5.4 Technology Evaluations
		5.4.1 Economic Evaluation
		5.4.2 Environmental Evaluation
	References