Solid-Liquid Contact Electrification

Chapter 1. Overview of contact electrification and triboelectric devices
1.1 Introduction
1.2 Solid-solid contact electrification (TENG)
1.3 Triboelectric devices (TENG)
1.4 Impact and applications of solid-solid triboelectric devices
1.5 Potential challenges of solid-solid triboelectric devices
Chapter 2. Solid-liquid contact electrification
2.1 Electron transfer mechanism
2.2 Ion transfer mechanism
2.3 Role of surface wettability
2.4 Strategies for the enhancement of surface charge transfer
2.5 Environmental effects
Chapter 3. Interacting modes of contact liquid
3.1 Droplet contacting mode
3.2 Flow contacting mode
3.3 Wave contacting mode
3.4 Other potential contacting modes
Chapter 4. Operating principles of solid-liquid triboelectric devices
4.1 Sliding mode
4.2 Contact separation mode
4.3 Single electrode mode
4.4 Free standing mode
Chapter 5. Intrinsic properties of solid contact materials
5.1 Physical property
5.2 Electrical property
Chapter 6. Extrinsic properties of solid contact materials
6.1 Surface morphology
(a) 1-3 dimensional nano- and micro-structures
(b) bio-inspired compositions and structures
6.2 Surface modification
(a) Chemical modification
(b) Electrical modification
Chapter 7. Influence of liquid contact materials
7.1 Liquid polarity
7.2 Ionic activity
Chapter 8. Applications: solid-liquid interactive electrokinetic devices
8.1 Mechanisms
8.2 Operating principles
8.3 Device design strategies
8.4 Properties of solid contact materials
8.5 Properties of liquid contact materials
Chapter 9. Applications: Self-powered sensors and systems
9.1 Chemical sensors
9.2 Physical sensors
9.3 Actuators and other electronics
Chapter 10. Applications: energy harvesting devices
10.1 Rain drop energy harvesting devices.
10.2 Sea wave energy harvesting devices.
10.3 Hybrid energy harvesting devices.
Chapter 11. Conclusions
11.1 At the level of devices
11.2 At the level of systems