Electropolymers for mechatronics and artificial muscles

Engineering

• Ferroelectric Polymers 100%
• Piezoelectric Polymer 100%
• Artificial Muscle 100%
• Maxwell Stress 100%
• Energy Harvesting 50%
• Electromechanical Property 50%
• Elastomer 50%
• Energy Density 50%
• Induced Electric Field 50%
• Strain Level 50%
• Electret 50%
• Conversion Efficiency 50%
• Interfacial Layer 50%
• Elastic Energy 50%
• Energy Conversion 50%
• Amorphous Region 50%
• Crystalline Region 50%
• Motion Sensor 50%

Keyphrases

• Mechatronics 100%
• Artificial muscle 100%
• Electric 40%
• Electromechanical Response 40%
• Piezoelectric Polymer 40%
• Ferroelectric Polymer 40%
• Maxwell Stress 40%
• Energy Harvesting System 20%
• Recent Advances 20%
• Electromechanical Properties 20%
• Solid State 20%
• Elastomer 20%
• Morphological Changes 20%
• Copolymer 20%
• Stress Response 20%
• Stress Effect 20%
• Strain Level 20%
• Electromechanical Applications 20%
• Inorganic Materials 20%
• Electret 20%
• Material Considerations 20%
• Conversion Efficiency 20%
• Commercial Use 20%
• Polyvinylidene Fluoride 20%
• Interfacial Layer 20%
• Electric Field-induced Strain 20%
• Strain Change 20%
• Crystalline Region 20%
• Elastic Energy Density 20%
• Energy Conversion 20%
• Soft Polymer 20%
• Amorphous Region 20%
• Electromechanical Conversion 20%
• Electrostrictive Polymer 20%
• Motion Sensor 20%
• Order Degree 20%

Material Science

• Ferroelectric Material 100%
• Piezoelectricity 100%
• Crystalline Material 50%
• Amorphous Material 50%
• Energy Density 50%
• Elastomer 50%
• Actuator 50%
• Copolymer 50%
• Electret 50%