Abstract
This paper presents the most important technical tools that are needed for designing homogeneous photoreactors using computer simulation of a rigorous mathematical description of the reactor performance. Employing intrinsic reaction kinetic models and parameters derived from properly analyzed laboratory information, it is shown that is possible to scale up reactors with no additional information and without resorting to empirically adjusted correcting factors. The method is illustrated with two processes of degradation of organic pollutants as typical applications of the newly developed Advanced Oxidation Technologies. Two reactors, having pilot plant sizes, are modeled to show the proposed approach. Predictions from the models are compared with experimental data obtaining reasonable good results. They provide confidence on mathematical modeling as a design methodology for homogeneous photochemical reactors.
© 2016 by Walter de Gruyter Berlin/Boston
Articles in the same Issue
- Streamer Corona Discharge Induced by Laser Pulses During LIF Measurements in a DC Non-thermal Plasma Reactor for NO Oxidation
- Destruction of Volatile Organic Compounds in Air by a Superimposed Barrier Discharge Plasma Reactor and Activated Carbon Filter Hybrid System
- The Photodecomposition of Acetaldehyde in Gas Phase Using Immobilized TiO2 on Porous α-Al2O3 Tube
- Hydrogen Peroxide/Iron Oxide -Induced Catalytic Oxidation of Organic Compounds
- Vacuum-UV Oxidation (H2O-VUV) with a Xenon Excimer Flow-Trough Lamp at 172 nm: Use of Methanol as Actinometer for VUV Intensity Measurement and as Reference Compound for OH-Radical Competition Kinetics in Aqueous Systems
- Homogeneous Photoreactions for AOTs: Reactor Analysis and Design
- A Laboratory Reactor for Photocatalytic Studies in Slurry Operation
- Optical Characteristics of Capillary U-tube Ar-Hg High Frequency Glow Discharge Plasmas and its Application for Ammonia Compound Contaminated Water Treatments
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- Characteristics of Ring-to-Cylinder Type Electrode System on Pulsed Discharge in Water
- Nitrogen Oxides Removal by Using Plate Type Reactor Combined with Catalysts
- A Comparison of the Activity of Titanium Dioxide Photocatalysts for the Oxidation of Ethanol in Air
- TiO2 Photocatalytic Oxidation of Butyraldehyde, Ethylbenzene and PCE in the Air through Concentric Reactors
Articles in the same Issue
- Streamer Corona Discharge Induced by Laser Pulses During LIF Measurements in a DC Non-thermal Plasma Reactor for NO Oxidation
- Destruction of Volatile Organic Compounds in Air by a Superimposed Barrier Discharge Plasma Reactor and Activated Carbon Filter Hybrid System
- The Photodecomposition of Acetaldehyde in Gas Phase Using Immobilized TiO2 on Porous α-Al2O3 Tube
- Hydrogen Peroxide/Iron Oxide -Induced Catalytic Oxidation of Organic Compounds
- Vacuum-UV Oxidation (H2O-VUV) with a Xenon Excimer Flow-Trough Lamp at 172 nm: Use of Methanol as Actinometer for VUV Intensity Measurement and as Reference Compound for OH-Radical Competition Kinetics in Aqueous Systems
- Homogeneous Photoreactions for AOTs: Reactor Analysis and Design
- A Laboratory Reactor for Photocatalytic Studies in Slurry Operation
- Optical Characteristics of Capillary U-tube Ar-Hg High Frequency Glow Discharge Plasmas and its Application for Ammonia Compound Contaminated Water Treatments
- Gas-Phase Photocatalytic Degradation of Trichloroethylene -Relation with Photochemical Reactions
- Hydrogen Peroxide Cleaning of Asphalt from Surfaces The Accelerating Rate Calorimetry (ARC™) Study: The Effect of Silica Gel and Solution pH on Hydrogen Peroxide Decomposition
- Characteristics of Ring-to-Cylinder Type Electrode System on Pulsed Discharge in Water
- Nitrogen Oxides Removal by Using Plate Type Reactor Combined with Catalysts
- A Comparison of the Activity of Titanium Dioxide Photocatalysts for the Oxidation of Ethanol in Air
- TiO2 Photocatalytic Oxidation of Butyraldehyde, Ethylbenzene and PCE in the Air through Concentric Reactors