covers the most cutting-edge studies and progress in soft electronics technology, and comprehensively addresses the clinical and biomedical applications such as diagnosis, therapy and interaction.
covers the most cutting-edge studies and progress in soft electronics technology, and comprehensively addresses the clinical and biomedical applications such as diagnosis, therapy and interaction.
Die Herstellerinformationen sind derzeit nicht verfügbar.
Inhaltsangabe
Preface PART 1: Soft sensors for diagnosis
1 Mechanics design of flexible sensors 1.1 Design of stretchable flexible device structure 1.2 Structural Design of Substrate 1.3 Structural Designs for Spatial Integration of Device Systems
3 Soft sensors for disease diagnosis 3.1 Introduction 3.2 The materials and structures of flexible sensors 3.3 The application of flexible sensors in diseases diagnosis
4 Non-invasive detection of bio-analytes 4.1 Introduction 4.2 Biofluids of Interest for Wearable Chemical Sensors 4.3 Biofluid Enabled Platforms: Traditional to Wearable 4.4 Sampling and Detection Strategies for Biofluid-Based Wearable Sensors 4.5 Outlook
5 Flexible electrode for noninvasive brain-computer interface 5.1 Introduction 5.2 Development of non-invasive BCIs 5.3 Electrode technologies for non-invasive BCIs 5.4 Challenges 5.5 Conclusion
6 Chronic Neural Interfaces 6.1 Introduction 6.2 Architectures for Mechanical Compliance and Biocompatibility 6.3 Advanced Chronically Stable Materials for Neural Interfaces 6.4 Encapsulation for Stable Operation 6.5 Engineering Strategies for Chronic Active Sensing 6.6 Multimodal functions of long-term stable implants 6.7 Challenges and future directions
7 Mechanical sensors (transducer) for motion detection of human and organs 7.1 Introduction 7.2 Classification of Stretchable Mechanical Sensors 7.3 Material Architectures 7.4 Sensing Mechanisms 7.5 Representative applications
8 Smart optoelectronics in health monitoring and human machine interactions 8.1 Fundamentals on Photodetectors 8.2 Integrated Optoelectronic Systems 8.3 Flexible Integrated Systems Based on Photodetectors for Advanced Applications 8.4 Future Trend of Photodetectors for Soft Electronics
11 Soft Electronics for drug delivery 11.1 Introduction 11.2 Skin structure 11.3 Soft Electronics-assisted TTDS for drug delivery 11.4 Conclusions and perspectives
12 Implantable Drug Delivery System 12.1 Introduction 12.2 Categories of Soft Electronics for Drug Delivery 12.3 Challenges and Prospects
13 Soft robotic sensing and medicine 13.1 Introduction 13.2 Soft robotic tactile sensing 13.3 Soft robotic environmental sensing 13.4 Miniature robotic in vivo medicine
PART 3: Soft sensors for interaction
14 Integration System 14.1 Power supply strategy of soft electronics 14.2 Encapsulation 14.3 Communication 14.4 Closed-loop control
15 Full-body Haptic User Experience in Virtual Reality 15.1 Investigating Around-head Directional Cues for Multi-task Visual-Searching Scenario in Virtual Reality 15.2 ThermAirGlove: A Pneumatic Glove for On-Hand Thermal Perception and Material Identification in VR 15.3 PropelWalker: A Leg-basedWearable System with Propeller-based Force Feedback for Walking in Fluids in VR 15.4 Conclusion
1 Mechanics design of flexible sensors 1.1 Design of stretchable flexible device structure 1.2 Structural Design of Substrate 1.3 Structural Designs for Spatial Integration of Device Systems
3 Soft sensors for disease diagnosis 3.1 Introduction 3.2 The materials and structures of flexible sensors 3.3 The application of flexible sensors in diseases diagnosis
4 Non-invasive detection of bio-analytes 4.1 Introduction 4.2 Biofluids of Interest for Wearable Chemical Sensors 4.3 Biofluid Enabled Platforms: Traditional to Wearable 4.4 Sampling and Detection Strategies for Biofluid-Based Wearable Sensors 4.5 Outlook
5 Flexible electrode for noninvasive brain-computer interface 5.1 Introduction 5.2 Development of non-invasive BCIs 5.3 Electrode technologies for non-invasive BCIs 5.4 Challenges 5.5 Conclusion
6 Chronic Neural Interfaces 6.1 Introduction 6.2 Architectures for Mechanical Compliance and Biocompatibility 6.3 Advanced Chronically Stable Materials for Neural Interfaces 6.4 Encapsulation for Stable Operation 6.5 Engineering Strategies for Chronic Active Sensing 6.6 Multimodal functions of long-term stable implants 6.7 Challenges and future directions
7 Mechanical sensors (transducer) for motion detection of human and organs 7.1 Introduction 7.2 Classification of Stretchable Mechanical Sensors 7.3 Material Architectures 7.4 Sensing Mechanisms 7.5 Representative applications
8 Smart optoelectronics in health monitoring and human machine interactions 8.1 Fundamentals on Photodetectors 8.2 Integrated Optoelectronic Systems 8.3 Flexible Integrated Systems Based on Photodetectors for Advanced Applications 8.4 Future Trend of Photodetectors for Soft Electronics
11 Soft Electronics for drug delivery 11.1 Introduction 11.2 Skin structure 11.3 Soft Electronics-assisted TTDS for drug delivery 11.4 Conclusions and perspectives
12 Implantable Drug Delivery System 12.1 Introduction 12.2 Categories of Soft Electronics for Drug Delivery 12.3 Challenges and Prospects
13 Soft robotic sensing and medicine 13.1 Introduction 13.2 Soft robotic tactile sensing 13.3 Soft robotic environmental sensing 13.4 Miniature robotic in vivo medicine
PART 3: Soft sensors for interaction
14 Integration System 14.1 Power supply strategy of soft electronics 14.2 Encapsulation 14.3 Communication 14.4 Closed-loop control
15 Full-body Haptic User Experience in Virtual Reality 15.1 Investigating Around-head Directional Cues for Multi-task Visual-Searching Scenario in Virtual Reality 15.2 ThermAirGlove: A Pneumatic Glove for On-Hand Thermal Perception and Material Identification in VR 15.3 PropelWalker: A Leg-basedWearable System with Propeller-based Force Feedback for Walking in Fluids in VR 15.4 Conclusion
