Stretchable magnesium–air battery based on dual ions conducting hydrogel for intelligent biomedical applications

Flexible and bio‐integrated electronics have attracted great attention due to their enormous contributions to personalized medical devices. Power sources, serving as one of the most important components, have been suffering from many problems, including deficient biocompatibility, poor stretchabilit...

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Veröffentlicht in:	InfoMat Jg. 5; H. 3
Hauptverfasser:	Huang, Xingcan, Liu, Yiming, Park, Wooyoung, Zhao, Zhao, Li, Jiyu, Lim, Chee Kent, Wong, Tsz Hung, Yiu, Chun Ki, Gao, Yuyu, Zhou, Jingkun, Li, Hu, Zhao, Ling, Li, Jian, Zhang, Binbin, Huang, Ya, Shi, Rui, Li, Dengfeng, Mo, Jiaying, Wang, Jinpei, Zhang, Chao, Li, Yuhang, Wang, Zuankai, Yu, Xinge
Format:	Journal Article
Sprache:	Englisch
Veröffentlicht:	Melbourne John Wiley & Sons, Inc 01.03.2023 Wiley
Schlagworte:	Air batteries Biocompatibility bioelectronics Biomedical materials Conductivity Customization Deformation Design Drug delivery systems Electrolytes Electronics flexible electronics Graphene Hydrogels Lighting Magnesium Medical electronics Metal air batteries Mg–air battery Polymers Power Power sources Skin Stretchability stretchable battery Wearable computers Wound healing
ISSN:	2567-3165, 2567-3165
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Abstract	Flexible and bio‐integrated electronics have attracted great attention due to their enormous contributions to personalized medical devices. Power sources, serving as one of the most important components, have been suffering from many problems, including deficient biocompatibility, poor stretchability, and unstable electrical outputs under deformed conditions, which limits the practical applications in flexible and bio‐integrated electronics. Here, we reported a fully stretchable magnesium (Mg)–air battery based on dual‐ions‐conducting hydrogels (SDICH). The high‐performance battery enables long‐term operation with lighting 120 lighting emitting diodes (LEDs) for over 5 h. Benefiting from the advanced materials and mechanical designs, the battery exhibits stability electrical outputs under stretching, which allows to operate ordinarily under various mechanical deformations without performance decay. Furthermore, the great biocompatibility of the battery offers great opportunity for biomedical applications, which is demonstrated by a self‐adaption wound dressing system. The in vitro and in vivo results prove that the self‐adaption wound dressing can effectively prevent wound inflammation and promote wound healing. By exploiting thermal feedback mechanics, the system can adjust antibiotic release rate and dosage spontaneously according to the real‐time wound conditions. The proposed fully stretchable Mg–air battery and self‐adaption wound dressing display great potential in skin‐integrated electronics and personalized medicine. Stretchable Magnesium‐Air Battery Based on Dual Ions Conducting Hydrogel for Intelligent Biomedical Applications.
AbstractList	Abstract Flexible and bio‐integrated electronics have attracted great attention due to their enormous contributions to personalized medical devices. Power sources, serving as one of the most important components, have been suffering from many problems, including deficient biocompatibility, poor stretchability, and unstable electrical outputs under deformed conditions, which limits the practical applications in flexible and bio‐integrated electronics. Here, we reported a fully stretchable magnesium (Mg)–air battery based on dual‐ions‐conducting hydrogels (SDICH). The high‐performance battery enables long‐term operation with lighting 120 lighting emitting diodes (LEDs) for over 5 h. Benefiting from the advanced materials and mechanical designs, the battery exhibits stability electrical outputs under stretching, which allows to operate ordinarily under various mechanical deformations without performance decay. Furthermore, the great biocompatibility of the battery offers great opportunity for biomedical applications, which is demonstrated by a self‐adaption wound dressing system. The in vitro and in vivo results prove that the self‐adaption wound dressing can effectively prevent wound inflammation and promote wound healing. By exploiting thermal feedback mechanics, the system can adjust antibiotic release rate and dosage spontaneously according to the real‐time wound conditions. The proposed fully stretchable Mg–air battery and self‐adaption wound dressing display great potential in skin‐integrated electronics and personalized medicine. Flexible and bio-integrated electronics have attracted great attention due to their enormous contributions to personalized medical devices. Power sources, serving as one of the most important components, have been suffering from many problems, including deficient biocompatibility, poor stretchability, and unstable electrical outputs under deformed conditions, which limits the practical applications in flexible and bio-integrated electronics. Here, we reported a fully stretchable magnesium (Mg)–air battery based on dual-ions-conducting hydrogels (SDICH). The high-performance battery enables long-term operation with lighting 120 lighting emitting diodes (LEDs) for over 5 h. Benefiting from the advanced materials and mechanical designs, the battery exhibits stability electrical outputs under stretching, which allows to operate ordinarily under various mechanical deformations without performance decay. Furthermore, the great biocompatibility of the battery offers great opportunity for biomedical applications, which is demonstrated by a self-adaption wound dressing system. The in vitro and in vivo results prove that the self-adaption wound dressing can effectively prevent wound inflammation and promote wound healing. By exploiting thermal feedback mechanics, the system can adjust antibiotic release rate and dosage spontaneously according to the real-time wound conditions. The proposed fully stretchable Mg–air battery and self-adaption wound dressing display great potential in skin-integrated electronics and personalized medicine. Flexible and bio‐integrated electronics have attracted great attention due to their enormous contributions to personalized medical devices. Power sources, serving as one of the most important components, have been suffering from many problems, including deficient biocompatibility, poor stretchability, and unstable electrical outputs under deformed conditions, which limits the practical applications in flexible and bio‐integrated electronics. Here, we reported a fully stretchable magnesium (Mg)–air battery based on dual‐ions‐conducting hydrogels (SDICH). The high‐performance battery enables long‐term operation with lighting 120 lighting emitting diodes (LEDs) for over 5 h. Benefiting from the advanced materials and mechanical designs, the battery exhibits stability electrical outputs under stretching, which allows to operate ordinarily under various mechanical deformations without performance decay. Furthermore, the great biocompatibility of the battery offers great opportunity for biomedical applications, which is demonstrated by a self‐adaption wound dressing system. The in vitro and in vivo results prove that the self‐adaption wound dressing can effectively prevent wound inflammation and promote wound healing. By exploiting thermal feedback mechanics, the system can adjust antibiotic release rate and dosage spontaneously according to the real‐time wound conditions. The proposed fully stretchable Mg–air battery and self‐adaption wound dressing display great potential in skin‐integrated electronics and personalized medicine. Stretchable Magnesium‐Air Battery Based on Dual Ions Conducting Hydrogel for Intelligent Biomedical Applications. Flexible and bio‐integrated electronics have attracted great attention due to their enormous contributions to personalized medical devices. Power sources, serving as one of the most important components, have been suffering from many problems, including deficient biocompatibility, poor stretchability, and unstable electrical outputs under deformed conditions, which limits the practical applications in flexible and bio‐integrated electronics. Here, we reported a fully stretchable magnesium (Mg)–air battery based on dual‐ions‐conducting hydrogels (SDICH). The high‐performance battery enables long‐term operation with lighting 120 lighting emitting diodes (LEDs) for over 5 h. Benefiting from the advanced materials and mechanical designs, the battery exhibits stability electrical outputs under stretching, which allows to operate ordinarily under various mechanical deformations without performance decay. Furthermore, the great biocompatibility of the battery offers great opportunity for biomedical applications, which is demonstrated by a self‐adaption wound dressing system. The in vitro and in vivo results prove that the self‐adaption wound dressing can effectively prevent wound inflammation and promote wound healing. By exploiting thermal feedback mechanics, the system can adjust antibiotic release rate and dosage spontaneously according to the real‐time wound conditions. The proposed fully stretchable Mg–air battery and self‐adaption wound dressing display great potential in skin‐integrated electronics and personalized medicine. image
Author	Yu, Xinge Yiu, Chun Ki Gao, Yuyu Li, Yuhang Zhao, Ling Mo, Jiaying Wang, Jinpei Wang, Zuankai Wong, Tsz Hung Park, Wooyoung Zhao, Zhao Shi, Rui Li, Dengfeng Li, Jiyu Zhang, Binbin Liu, Yiming Zhou, Jingkun Li, Hu Huang, Ya Zhang, Chao Lim, Chee Kent Huang, Xingcan Li, Jian
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Notes	Funding information City University of Hong Kong, Grant/Award Numbers: 9667221, 9678274, 9680322; National Natural Science Foundation of China, Grant/Award Number: 62122002; Shenzhen Science and Technology Innovation Commission, Grant/Award Number: JCYJ20200109110201713; InnoHK Project 1.3 ‐ Flexible and Stretchable Technologies (FAST) for monitoring of CVD risk factors: Sensing and Applications at Hong Kong Centre for Cerebro‐cardiovascular Health Engineering (COCHE); Center of Flexible Electronics Technology; Qiantang Science & Technology Innovation Center; Innovation and Technology Fund, Grant/Award Number: GHP/021/19SZ; Shenzhen Science and Technology Innovation Council, China, Grant/Award Numbers: 9240061, JCYJ20200109143206663 Xingcan Huang, Yiming Liu, Wooyoung Park, and Zhao Zhao contributed equally to this study. ObjectType-Article-1 SourceType-Scholarly Journals-1 ObjectType-Feature-2 content type line 14
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Snippet	Flexible and bio‐integrated electronics have attracted great attention due to their enormous contributions to personalized medical devices. Power sources,... Flexible and bio-integrated electronics have attracted great attention due to their enormous contributions to personalized medical devices. Power sources,... Abstract Flexible and bio‐integrated electronics have attracted great attention due to their enormous contributions to personalized medical devices. Power...
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SubjectTerms	Air batteries Biocompatibility bioelectronics Biomedical materials Conductivity Customization Deformation Design Drug delivery systems Electrolytes Electronics flexible electronics Graphene Hydrogels Lighting Magnesium Medical electronics Metal air batteries Mg–air battery Polymers Power Power sources Skin Stretchability stretchable battery Wearable computers Wound healing
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Title	Stretchable magnesium–air battery based on dual ions conducting hydrogel for intelligent biomedical applications
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