Embracing Plasticity: Unlocking the Full Potential of Flexible and Stretchable Electronics Through the Elastoplastic Behavior of Metallic Materials
Metallic materials serving as indispensable conductors critically influence the performance of flexible electronics. Conventional structural designs have restricted metallic materials to exhibiting pure elastic deformation, but recent developments have emphasized an increased significance of plastic...
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creator | An, Dongqi Gong, Guangping Xu, Dian Zhou, Zanxin Li, Rui Su, Yewang |
description | Metallic materials serving as indispensable conductors critically influence the performance of flexible electronics. Conventional structural designs have restricted metallic materials to exhibiting pure elastic deformation, but recent developments have emphasized an increased significance of plastic deformation, showing great potential for new breakthroughs in developing novel flexible electronics. This review first introduces the elastoplastic behavior of metallic materials, especially those capable of withstanding remarkable plastic deformation. The main design strategies toward flexible and stretchable electronics expanding elastic deformation range are then summarized, incorporating both strain alleviation and strain delocalization. Innovative studies exploiting plasticity for enhancing device performances or achieving shape‐forming and reconfigurable electronics are further highlighted. Some perspectives on utilizing the elastoplastic behavior of metallic materials to innovate the next generation of flexible electronics are finally provided. |
doi_str_mv | 10.1002/adfm.202412796 |
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Conventional structural designs have restricted metallic materials to exhibiting pure elastic deformation, but recent developments have emphasized an increased significance of plastic deformation, showing great potential for new breakthroughs in developing novel flexible electronics. This review first introduces the elastoplastic behavior of metallic materials, especially those capable of withstanding remarkable plastic deformation. The main design strategies toward flexible and stretchable electronics expanding elastic deformation range are then summarized, incorporating both strain alleviation and strain delocalization. Innovative studies exploiting plasticity for enhancing device performances or achieving shape‐forming and reconfigurable electronics are further highlighted. 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Conventional structural designs have restricted metallic materials to exhibiting pure elastic deformation, but recent developments have emphasized an increased significance of plastic deformation, showing great potential for new breakthroughs in developing novel flexible electronics. This review first introduces the elastoplastic behavior of metallic materials, especially those capable of withstanding remarkable plastic deformation. The main design strategies toward flexible and stretchable electronics expanding elastic deformation range are then summarized, incorporating both strain alleviation and strain delocalization. Innovative studies exploiting plasticity for enhancing device performances or achieving shape‐forming and reconfigurable electronics are further highlighted. Some perspectives on utilizing the elastoplastic behavior of metallic materials to innovate the next generation of flexible electronics are finally provided.</abstract><doi>10.1002/adfm.202412796</doi><orcidid>https://orcid.org/0000-0001-6051-4204</orcidid></addata></record> |
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title | Embracing Plasticity: Unlocking the Full Potential of Flexible and Stretchable Electronics Through the Elastoplastic Behavior of Metallic Materials |
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