A platform for research: civil engineering, architecture and urbanism
Dual‐Modal Dielectric Elastomer System for Simultaneous Energy Harvesting and Actuation
AbstractDielectric elastomers (DEs) have promising capabilities for soft electromechanical systems, including those for actuation and energy generation. However, their widespread application is restricted by electromechanical instability (EMI) and the requirement for high‐voltage operation. This study presents a dual‐modal DE system that effectively overcomes these limitations by leveraging a dual‐membrane structure. The proposed structure not only suppresses EMI through charge sharing but also enables simultaneous energy harvesting and actuation, enhancing the overall electrical performance of the system. The system demonstrated a remarkable improvement in output performance, exceeding that of traditional single‐modal DE generators by up to 30%. The practicality of the system is developed by integrating it into a mechanically powered soft robot capable of locomotion and environmental monitoring using a wireless temperature sensor. This study paves the way for the development of advanced DE‐based systems with enhanced stability, functionality, and potential for diverse applications in soft robotics, energy harvesting, and other areas that require coupled electromechanical capabilities.
Dual‐Modal Dielectric Elastomer System for Simultaneous Energy Harvesting and Actuation
AbstractDielectric elastomers (DEs) have promising capabilities for soft electromechanical systems, including those for actuation and energy generation. However, their widespread application is restricted by electromechanical instability (EMI) and the requirement for high‐voltage operation. This study presents a dual‐modal DE system that effectively overcomes these limitations by leveraging a dual‐membrane structure. The proposed structure not only suppresses EMI through charge sharing but also enables simultaneous energy harvesting and actuation, enhancing the overall electrical performance of the system. The system demonstrated a remarkable improvement in output performance, exceeding that of traditional single‐modal DE generators by up to 30%. The practicality of the system is developed by integrating it into a mechanically powered soft robot capable of locomotion and environmental monitoring using a wireless temperature sensor. This study paves the way for the development of advanced DE‐based systems with enhanced stability, functionality, and potential for diverse applications in soft robotics, energy harvesting, and other areas that require coupled electromechanical capabilities.
Dual‐Modal Dielectric Elastomer System for Simultaneous Energy Harvesting and Actuation
Advanced Science
Zhang, Zhiyuan (author) / Huang, Wenwei (author) / Zheng, Shaodi (author) / Tan, Jianbo (author) / Cheng, Jinzhan (author) / Cai, Jiancheng (author) / E, Shiju (author) / Xu, Zisheng (author)
Advanced Science ; 12
2025-02-01
Article (Journal)
Electronic Resource
English
Dual‐Modal Dielectric Elastomer System for Simultaneous Energy Harvesting and Actuation
Wiley | 2025
|British Library Online Contents | 2018
|Optimization of the energy harvesting control for dielectric elastomer generators
British Library Online Contents | 2013
|Effects of plasticization of a soft silicone for dielectric elastomer actuation
British Library Online Contents | 2013
|British Library Online Contents | 2004
|