Hybrid Perovskites

Chapter 1: Insights into Hybrid Perovskite Materials

• • 1.1 Introduction
• • 1.2 Fabrication Strategies
• • 1.3 Applications of Perovskite Materials
• • 1.4 Conclusion and Future Outlook

Chapter 2: Hybrid Halide Double Perovskites and Their Future Aspects

• • 2.1 Introduction
• • 2.2 Alternatives to Si Solar Cells: Perovskite-Structured Solar Cells (PSCs)
• • 2.3 Summary and Perspective

Chapter 3: Stabilities of Hybrid Perovskite Crystals and Photovoltaics

• • 3.1 Introduction
• • 3.2 Flexibility of Crystals
• • 3.3 Degradation Mechanism of Perovskite Halides
• • 3.4 Stabilization by Structural Control of Crystals: Co-Substitution of Alkali Elements and Cu
• • 3.5 Stabilization by Co-Substitution of Organic Molecules and Cu
• • 3.6 Stabilization of FA0.83Cs0.17PbI3 by Ge Addition
• • 3.7 Possible Stabilization of FAPbI3 by Cu Substitution
• • 3.8 Co-Additive Effects of EA and GA
• • 3.9 Stabilization by Highly (100)-Oriented Thin Films
• • 3.10 Surface Modification Stabilization by DPPS
• • 3.11 Summary

Chapter 4: Hybrid Perovskites in Flexible Electronics and Wearable Devices

• • 4.1 Introduction
• • 4.2 Preparation Methods
• • 4.3 Applications of Hybrid Perovskites in Flexible Electronics and Wearable Devices
• • 4.4 Challenges and Future Prospects
• • 4.5 Conclusion

Chapter 5: Organometallic Halide Perovskites: Futuristic Materials for a More Efficient and Sustainable Electronic World

• • 5.1 An Introduction: Renewable Energy and PVs
• • 5.2 PVs' Production Technologies
• • 5.3 Organic PV Technology
• • 5.4 Perovskite Material: Origin and its History
• • 5.5 Semiconducting Perovskite: Parameters Affecting Optoelectronic Properties
• • 5.6 Perovskite Materials for PSC Fabrication
• • 5.7 Optoelectronic Applications of Halide Perovskites
• • 5.8 Summary and Conclusions

Chapter 6: Greening Solar Energy: Harnessing Nontoxic Hybrid Perovskites for Sustainable Photovoltaics

• • 6.1 Solar Energy Cell Working
• • 6.2 Environmental Concerns with Traditional Solar Cell Materials
• • 6.3 Environmental Challenges Associated with Traditional Materials, Including Resource Depletion and Hazardous Waste
• • 6.4 Introduction to Perovskite Materials and their Relevance in Photovoltaics
• • 6.5 Nontoxic and Less Toxic Hybrid Perovskites: A Green Solution
• • 6.6 Composition and Structure of Hybrid Perovskites
• • 6.7 Hybrid Perovskite Properties Attractive for Solar Cells
• • 6.8 Advantages of Nontoxic Hybrid Perovskites in Terms of Environmental Impact
• • 6.9 Environmental Impact Assessment
• • 6.10 Implications for Sustainability and Green Energy Transition
• • 6.11 Commercialization and Market Potential
• • 6.12 Current Status of Nontoxic Hybrid Perovskite Solar Cell Commercialization
• • 6.13 Economic and Policy Considerations for Promoting Sustainable Photovoltaic Technologies
• • 6.14 Challenges and Research Directions
• • 6.15 Ongoing Research Efforts to Address these Challenges
• • 6.16 Future Prospects and Potential Breakthroughs in the Field
• • 6.17 Conclusion

Chapter 7: Thin Films for Planar Solar Cells of Organic-Inorganic Perovskite Composites

• • 7.1 Introduction
• • 7.2 Solar Cell Composites Based on Perovskites
• • 7.3 Materials Design of Perovskite Composites
• • 7.4 Techniques of Thin-Film Fabrication
• • 7.5 Planar Configurations of Solar Cells Using Perovskite Composites
• • 7.6 Photovoltaic Performance Metrics
• • 7.7 Challenges in Perovskite Composite Thin Films
• • 7.8 Emerging Trends and Applications
• • 7.9 Summary

Chapter 8: Efficacy of Porphyrin-Based Supramolecular Structures in Organic-Inorganic Hybrid Perovskite Solar Cells (OIHPSCs)

• • 8.1 Introduction
• • 8.2 Impact of Porphyrin-Based Supramolecular Structural Framework as an Additive in PSC Film
• • 8.3 Importance of Porphyrin-Based Supramolecular Structural Framework as Hole-Transport Materials or Layers (HTL/HTM) in PSCs
• • 8.4 Utility of Porphyrin-Based Supramolecular Structural Framework as Electron-Transport Materials or Layers (ETM or ETL) in PSCs
• • 8.5 Significance of Porphyrin-Based Supramolecular Structural Framework as a Bulk Heterojunction (BHJ) Layer in PSCs
• • 8.6 Conclusion and Summary of the Porphyrin-Based Supramolecular Structural Framework

Chapter 9: Detection and Purification of Toxic Materials: Advancements, Perovskite, and MXene-Based Approaches

• • 9.1 Introduction
• • 9.2 Traditional Methods of Detoxification
• • 9.3 Current Detoxification Technologies
• • 9.4 Role of Perovskite and MXenes in Developing Future Detoxification Technologies
• • 9.5 Challenges and Prospects
• • 9.6 Conclusion

Chapter 10: Power Conversion Efficiency and Physical Properties of Chalcogenide Perovskite Solar Cells

• • 10.1 Introduction
• • 10.2 Perovskite Materials: Structural Characteristics
• • 10.3 Theoretical Description
• • 10.4 Computational Details
• • 10.5 Conclusion and Future Aspects