Detecting subtle yet fast skeletal muscle contractions with ultrasoft and durable graphene-based cellular materials

Keyphrases

• Skeletal muscle 100%
• Hybrid Materials 100%
• Fast-twitch muscle 100%
• Graphene-based Materials 100%
• Skeletal muscle Contraction 100%
• Cellular Materials 100%
• Ultra-soft 100%
• Wearable Electronics 50%
• Bodily Movement 50%
• Silicone Rubber 50%
• Highly Effective 50%
• Highly Sensitive 50%
• Electromyography 50%
• Strain Sensor 50%
• Rubber 50%
• Sensor-based 50%
• Muscle Activity 50%
• Effective Stress 50%
• Time Monitoring 50%
• Electrical Response 50%
• Large Displacement 50%
• Effective Strain 50%
• Human-machine Interface 50%
• New Architecture 50%
• Disease Diagnosis 50%
• Soft Materials 50%
• Strain Transfer Mechanism 50%
• Mechanomyography 50%
• Neuromuscular Disease 50%
• Stretchability 50%
• Mechanical Signals 50%
• Functional Soft Materials 50%
• Ultra-low Density 50%
• Stress Transmission 50%
• Broadband Frequency 50%
• Cellular Monoliths 50%
• Healthcare Interface 50%
• Materials Platforms 50%

Engineering

• Durables 100%
• Graphene 100%
• Soft Material 100%
• Wearable Electronics 50%
• Effective Strain 50%
• Broad Range 50%
• Mechanical Signal 50%
• Joints (Structural Components) 50%
• Effective Stress 50%
• Application Interface 50%

Material Science

• Hybrid Material 100%
• Graphene 100%
• Cellular Material 100%
• Polysiloxane 50%
• Density 50%