Flexible and stretchable metal oxide nanofiber networks for multimodal and monolithically integrated wearable electronics

Keyphrases

• Metal Oxide 100%
• Stretchable 100%
• Monolithically Integrated 100%
• Nanofiber Network 100%
• Amorphous InGaZnO (a-IGZO) 100%
• Wearable Electronics 100%
• Electronic Skin (E-skin) 100%
• Limit of Detection 50%
• Stretchability 50%
• Thin-film Transistors 50%
• Body Movement 50%
• Copper(II) Oxide 50%
• Mechanical Flexibility 50%
• Elastomer 50%
• Oxide-oxide 50%
• Optoelectronic Applications 50%
• Long-term Stability 50%
• Pressure-temperature 50%
• Time Limits 50%
• Performance Degradation 50%
• Response Time 50%
• Oxide Metal 50%
• Indium Tin Oxide 50%
• High Reliability 50%
• Copper Metal 50%
• Spinning Techniques 50%
• Multiple Stimuli 50%
• Low-cost Manufacturing 50%
• Temperature-humidity Index 50%
• Sensitivity Response 50%
• Bending Cycle 50%
• Respiratory Function 50%
• Response Detection 50%
• Excellent Sensitivity 50%
• Sensing Resistor 50%
• Zinc-copper 50%
• Wearable Devices 50%
• Tin-copper 50%
• E-textiles 50%
• Movement Function 50%
• Inorganic Nanofibers 50%
• Blow Spinning 50%
• Gas Sensing Performance 50%
• Room Temperature Gas Sensing 50%
• Fiber-based Electronics 50%

Material Science

• Indium 100%
• Nanofiber 100%
• Gallium 100%
• Zinc Oxide 100%
• Thin-Film Transistor 50%
• Metal Oxide 50%
• Oxide Compound 50%
• Film 50%
• Elastomer 50%
• Indium Tin Oxide 50%
• Wearable Sensor 50%

Chemical Engineering

• Indium 100%
• Film 100%
• Zinc Oxide 100%
• Copper Oxide 50%
• Tin Oxide 50%
• Semiconducting Indium 50%
• Elastomer 50%