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Nano-scale electrode of magnet-photo fuel cell
Table of Contents
Abstract
Acknowledgements
Table of Contents
List of Tables
List of Figures
List of Abbreviations
List of Symbols
1 Literature Review-Advances in Photoelectrochemical Fuel Cell Research
1.1 Introduction
1.2 Mechanisms of photoelectrochemical fuel cells (PEFCs)
1.3 Photoanode
1.4 Fuels
1.5 Cathode
1.6 Definitions
1.6.1. Optical absorption coefficient (Band gap determination)
1.6.2. Roughness factor
1.6.3. Photo conversion efficiency
1.7 Materials processing
1.7.1. TiO2 nanostructure (TNTs) as photoanode
1.7.2. Self-organized electrochemical anodization methods synthesis TiO2 nanotube
1.7.3. Post- treatment TiO2 nanostructure
1.7.4. Doping
1.7.5. Hematite (α-Fe2O3 ) nanostructure as photoanode
1.7.6. Tungsten oxide (WO3) as photoanode
1.7.7. CuO as photoanode
1.7.8 ZnO as photoanode
1.7.9. Other materials as photoanode
1.7.10. Hybrid photo electrode (HPE)
1.8 Membrane
1.9 Applications
1.9.1. Decomposition organic wastes
1.9.2. Water splitting and hydrogen generation
1.10 Conclusion
2 Mechanical and Photoelectrochemical Responses of Titanium Oxide Nanotube Arrays on Pure Titanium Substrate
2.1 Introduction
2.2 Materials and experimental
2.2.1 TiO2 nanotube preparation and doping
2.2.2 Mechanical response of TiO2 NTs
2.2.3 Photoelectrochemical Response of doped TiO2 NTs
2.3 Results and discussion
2.3.1 Mechanical response
2.3.2 Cyclic voltammetric results
2.3.3 Photoelectrochemical responses
2.4 Conclusions
3 Effect of Temperature on the Performance of Nanostructured Photoelectrochemical Fuel Cells
3.1 Introduction
3.2 Experimental
3.2.1. Materials
3.2.2 Preparation of TiO2 nanotube anode
3.2.3 Photocatalytic activity measurements
3.3 Results and discussion
3.3.1 Experiment of time-dependent behavior
3.3.2 Modeling the time-dependent behavior
3.4 Conclusions
4 Current Response of Photoelectrochemical Fuel Cell with Doped Titania Nanotube Array Anode
4.1 Introduction
4.2 Experimental
4.2.1 Preparation of TiO2 NTs on Ti foil
4.2.2 Electroplating with Ni, Fe and Cu
4.2.3 Deposition of Ag into Ni and Cu doped-TiO2 nanotube
4.2.4 Incorporating polyaniline into TiO2 nanotubes
4.2.5 Photoelectrochemical response of fuel cell
4.2.6 Test procedures
4.3 Results and discussion
4.3.1 The behavior of pure TiO2 NTs as a photo anode
4.3.2 The behavior of single metal oxide doped TiO2 NTs as anode
4.3.3 The behavior of co-doped metal element TiO2 NTs as anode
4.3.4 Photo catalysis at 0.5, 1, 1.5, 2 V constant external bias voltages
4.4 Conclusions
5 Photoelectrochemical Response of TiO2 Nanotube Array Covered by Polyaniline
Nanoparticles in Sodium Sulfide Solution
5. 1 Introduction
5.2 Materials and Experimental methods
5.2.1. Polyaniline Nanoparticle Preparation
5.2.2 Photoelectrochemical Responses
5.3 Results and Discussion
5.3.1. Polyaniline Preparation and Morphology of the Nanostructured Anode
5.3.2 Open Circuit Voltage of the Photoelectrochemical Fuel Cell
5.3.3 Photocurrent of the Photoelectrochemical Fuel Cell
5.4 Conclusions
6 Electrolyte Concentration Effect of a Photoelectrochemical Cell Consisting of TiO2 Nanotube Anode
6.1 Introduction
6.2 Experimental
6.2.1. Chemicals
6.2.2. TiO2 nanotube fabrication
6.2.3 Fuel concentration
6.2.4 Photoelectrocatalytic response
6.3 Results and discussion
6.3.1. Photo current density
6.3.2 Kinetics study of influences on photocurrent responding
6.3.3 Photo voltage
6.4 Conclusions
7 Concept of a Permanent-Magnet Photo Electrochemical Fuel Cell by Using Semiconductor Nano-Structured Anode for Water Spilt
7.1 Introduction
7.2 Experiment
7.2.1. Chemicals
7.2.2. TiO2 nanotube fabrication
7.2.3 Magnet-photoelectrocatalytic response measurement
7.3 Results and discussion
7.3.1 Time-dependent behavior of magnet-photo fuel cell
7.3.2 Current density vs. linear scan potential behavior
7.3.3 Effect of distance (d) between anode and magnet rod on the magnet voltage
7.4 Conclusions
8 Summary and Recommendations for Future Work
References Bài viết liên quan
