Nanomembranes - Materials, Properties and Applications

This book reviews recent advances in the nanomembrane field. It focuses on the fabrications, properties, and applications of nanomembranes and assembled structures made from semiconductor, metal, insulator, polymer, and composite materials.

Inhaltsverzeichnis:

1. BUCKLING INDUCED ORIGAMI ASSEMBLY OF 3D MICRO/NANO-STRUCTURES: DESIGNS, MATERIALS, AND APPLICATIONS1.1 Introduction 1.2 Buckling induced folding assembly 1.3 Buckling induced bending/twisting assembly 1.4 Functional materials integrated with 3D mesostructures 1.5 Applications 1.6 Concluding remarks 2. DESIGN AND REALIZATION OF TRANSIENT ELECTRONICS ENABLED BY NANOMEMBRANES2.1 Introduction 2.2 Material selection for transient electronics 2.3 Fabrication process for nanomembrane transient devices 2.4 Self-destruction mechanisms for nanomembrane devices 2.5 Conclusion and outlook 3. DIVERSE POLYMER NANOMEMBRANES TOWARD TASK-SPECIFIC APPLICATIONS 3.1 Introduction 3.2 Fabrication and functionalization of polymer nanomembranes 3.3 Properties of polymer nanomembranes 3.4 Applications of polymer nanomembrane 3.5 Conclusions and Prospect 4. INORGANIC FLEXIBLE ELECTRONICS: MATERIALS, STRATEGIES, AND APPLICATIONS4.1 Introduction 4.2 Strategies for Designing Flexible Electronics 4.3 Strate gies for Forming and Assembling Inorganic Nanomaterials 4.4 Applications of Inorganic Flexible Electronics 4.5 Conclusion 5. MAGNETIC NANOMEMBRANE5.1 Basic theory of magnetic nanomembranes 5.2 Applications of magnetic nanomembranes 6. MECHANICS OF SPONTANEOUS DEFORMATION IN NANOMEMBRANES: THEORY, SIMULATIONS, AND EXPERIMENTS6.1 Introduction6.2 Linear elasticity theory 6.3 Bistability of thin structures: bistable and reconfigurable nanomembrane 6.4 Wrinkling, rolling and twisting of micro-/nano-structures 6.5 Multi-stability of multilayer structures 6.6 Conclusion 7. NANOMEMBRANES FOR CELL SCAFFOLDING AND BIO-APPLICATIONS 7.1 Introduction 7.2 Nanomembrane for cell scaffolding 7.3 Regulation of cell behavior 7.4 Cell analysis and adaptive nanomembrane enhanced therapy 7.5 Summary 8. NANOMEMBRANES FOR ENERGY STORAGE 8.1 Introduction 8.2 Nanomembranes for batteries 8.3 Nanomembranes for supercapacitors 8.4 Summary9. NANOMEMBRANE ROBOTICS 9.1 Introduction9.2 Motive mechanisms 9.3 Exter nal field powered/controlled motion 9.4 Potential applications 9.5 Conclusion and future prospects10. NANOMEMBRANES TECHNOLOGY FOR MICROROBOT: FROM ORIGAMI TO 4D CONSTRUCTION 10.1 Introduction 10.2 Fabrication of smart nanomembrane origami devices: from 2D to 4D 10.3 4D Origami actuated by different stimuli 10.4 Future 4D origami microrobot fabricated from nanomembrane platforms 11. ROLLED-UP ELECTRONICS AND ORIGAMI 11.1 Rolled-up Origami for Electronics 11.2 Rolled-up Origami Modeling 11.3 Rolled-up Radio Frequency Electronics 11.4 S-RuM Power Passive Electronics 11.5 Reconfigurable Rolled-up Electronics 11.6 Conclusion and Outlook12. ROLLED-UP WHISPERING GALLERY MODE MICROCAVITIES 12.1 Introduction 12.2 Theoretical analysis 12.3 Light propagation in tubular WGM microcavities 12.4 Materials and techniques in rolled-up tubular optical microcavities 12.5 Applications 12.6 Summary and outlook 13. STRAIN-TUNING OF 2D TRANSITION METAL DICHALCOGENIDES13.1 Introduction 13.2 Structure an d properties of 2D transition metal dichalcogenides 13.3 Description and effect of strain in 2D transition metal dichalcogenides 13.4 Strain tuning techniques 13.5 Applications of strain tuning in 2D transition metal dichalcogenides 13.6 Summary and outlook 14. TWO-DIMENSIONAL MATERIALS NANOMEMBRANE 14.1 The development history of two-dimensional (2D) materials 14.2 Characteristics of 2D materials membrane 14.3 Structure and design of 2D material membrane 14.4 2D material membrane sensors 14.5 2D material membrane robots 14.6 Summary