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Previous Chapter

Table of Contents

Chapter 1: Electrochemical Aspects of Corrosion-Control Coatings

1.1 Introduction

1.4 Conclusions

Chapter 2: The Importance of Corrosion and the Necessity of Applying Intelligent Coatings for Its Control

2.1 Introduction

2.2 Low Temperature Intelligent Coatings

2.3 Encapsulation for Self-Healing Coatings

2.4 Cathodic Protection

2.5 High Temperature Intelligent Coatings

2.6 Hot Corrosion

2.7 Surface Coating Technologies

2.8 Influence of Major and Trace Elements

2.9 Concept of Intelligent Coatings

2.10 Conclusion and Outlook

Chapter 3: Smart Inorganic and Organic Pretreatment Coatings for the Inhibition of Corrosion on Metals/Alloys

Acknowledgments

3.1 Introduction

3.2 Designing Smart Coatings for Corrosion Protection

3.3 Pretreatment Coatings

3.4 Nonmetallic-Inorganic Pretreatment Coatings

3.5 Organic Pretreatment Coatings

3.6 Conclusions

Chapter 4: Low Temperature Coating Deriving from Metal-Organic Precursors: An Economical and Environmentally Benign Approach

4.1 Introduction

4.2 Chemical Vapor Deposition: MOCVD Variant Techniques

4.3 Organometallic Precursors: Economical Bulk Synthesis

4.4 Liquid Delivery Systems: Effect of Solvent

4.5 Organometallic Precursor Chemistry

4.6 Nucleation and Growth Mechanisms

4.7 Coating Damage Mechanisms

4.8 Conclusion and Outlook

Chapter 5: Synthesis and Evaluation of Self-Healing Cerium-Doped Silane Hybrid Coatings on Steel Surfaces

Acknowledgments

5.1 Introduction

5.2 Experimental Procedure

5.3 Results and Discussion

5.4 Conclusion and Outlook

Chapter 6: Hybrid Zinc-Rich Paint Coatings: The Impact of Incorporation of Nano-Size Inhibitor and Electrical Conducting Particles

6.1 Introduction

6.2 Experimental

Chapter 7: Innovative Luminescent Vitreous Enameled Coatings

7.1 Introduction

7.2 The Most Important Properties of Vitreous Enamel

7.3 Luminescent Properties

7.4 Luminescent Porcelain Enamel Coatings

7.5 Materials and Experimental Procedures

7.6 Results and Discussion

Chapter 8: Anticorrosion Coatings with Self-Recovering Ability Based on Damage-Triggered Micro- and Nanocontainers

8.1 Introduction

8.2 Micro- and Nanocontainers-Based Approach to the Protective Organic Coatings: Self-Healing Versus Self-Protecting

8.3 Types of Containers and Methods of Their Preparation

8.4 Release of Active Agents from Containers

8.5 Distribution of Containers in the Matrices of Novel Protective Coatings

8.6 Protective Performance of Container-Based Organic Self-Protecting Coatings

8.7 Conclusions

Chapter 9: Important Aspects Involved in Pilot Scale Production of Modern Paints and Coatings

9.1 Introduction

9.3 Dispersion Process

9.4 General Process for Paints and Coatings

9.5 Pilot Plants

9.6 Major Equipment Used in Paints and Coating Industry

9.7 General Checkpoints for a Paint and Coating Pilot Plant

9.8 General Safety Precautions in Paint and Coating Pilot Plant

9.9 Typical Example of Pilot Scale Trial and Scale-Up of Acrylic Latex for Coating Applications

9.10 Conclusion

Chapter 10: Sol-Gel Route for the Development of Smart Green Conversion Coatings for Corrosion Protection of Metal Alloys

10.1 Introduction

10.2 Development of Smart Chemistry

10.3 Characterization Methodology

10.4 Evaluation of Coating

10.5 Conclusion

Chapter 11: Conducting Polymers with Superhydrophobic Effects as Anticorrosion Coating

11.1 Introduction

11.2 Corrosion Protection

11.3 Conducting Polymer as an Anticorrosion Coating

11.4 Superhydrophobic Coating as an Anticorrosion Coating

11.5 Superhydrophobic Conducting Polymers as Anticorrosion Coatings

11.6 Conclusion

Acknowledgments

Chapter 12: Smart Protection of Polymer-Inhibitor Doped Systems

Acknowledgments

12.1 Introduction

12.2 Rebar Concrete Application

12.3 Electrospun Smart Coating

12.4 Sol-Gel Coatings for Corrosion Control

12.5 Conclusion

Chapter 13: Properties and Applications of Thermochromic Vanadium Dioxide Smart Coatings

13.1 Introduction and Properties of VO₂

13.2 Applications

13.3 Conclusion

Chapter 14: One-Part Self-Healing Anticorrosive Coatings: Design Strategy and Examples

14.1 Introduction

14.2 Design Strategies of One-Part Self-Healing Anticorrosive Coatings

14.3 Examples of One-Part Self-Healing Anticorrosive Coatings

14.4 Concluding Remarks and Perspectives

Chapter 15: Intelligent Stannate-Based Coatings of Self-Healing Functionality for Magnesium Alloys

Acknowledgments

15.1 Introduction

15.2 Types of Magnesium Alloys

15.3 Common Forms of Magnesium Corrosion

15.4 Mitigation of Magnesium Corrosion Using Stannate Conversion Coatings

15.5 Conclusion and Future Remarks

Chapter 16: Electroactive Polymer-Based Anticorrosive Coatings

16.1 Introduction

16.3 Measures of Corrosion Prevention

16.4 Polymer Coatings

16.5 Conclusions

Chapter 17: Corrosion Protective Coatings for Ti and Ti Alloys Used for Biomedical Implants

17.1 Introduction

17.2 Surface Modification Methods

17.3 Sol-Gel Method

17.4 Laser Oxidation

17.5 Anodic Oxidation

17.6 Plasma Electrolytic Oxidation

17.7 Electrolytic Deposition

17.8 Combined Methods

17.9 Protective Films

17.10 Corrosion Studies

17.11 Conclusions

Chapter 18: Optical Sensors for Corrosion Monitoring

Acknowledgments

18.1 Introduction

18.2 Optical Fiber Interrogation Principles

18.3 Corrosion Measurements

18.4 Conclusion and Future Trends

Chapter 19: Characterization of High Performance Protective Coatings for Use on Culturally Significant Works

Acknowledgments

19.1 Introduction

19.2 Experimental Details

19.3 Testing and Characterizing the Performance of Chemically Intelligent Coatings

19.4 Characterizing Physically Intelligent Coatings

19.5 Testing the Performance of Physically Intelligent Coatings

19.6 Conclusions and Future Directions

Chapter 20: Monitoring Corrosion Using Vibrational Spectroscopic Techniques

Acknowledgments

20.1 Introduction

20.2 Principles

20.3 Methods and Equipment

20.4 Applications of In Situ Raman Spectroscopy in Corrosion Science

20.5 Applications of In Situ FTIR in Corrosion Science

20.6 Conclusion

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