Ultra‐Stretchable and Fast Self‐Healing Ionic Hydrogel in Cryogenic Environments for Artificial Nerve Fiber
Self‐healing materials behave with irreplaceable advantages in biomimetic intelligent robots (BIR) for avoiding or reducing safety hazards and economic losses from accidental damage during service. However, the self‐healing ability is unreservedly lost and even becomes rigid and fragile in the cryog...
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Published in | Advanced materials (Weinheim) Vol. 34; no. 16; pp. e2105416 - n/a |
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Main Authors | , , , , , , , , , , , |
Format | Journal Article |
Language | English |
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Germany
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01.04.2022
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Abstract | Self‐healing materials behave with irreplaceable advantages in biomimetic intelligent robots (BIR) for avoiding or reducing safety hazards and economic losses from accidental damage during service. However, the self‐healing ability is unreservedly lost and even becomes rigid and fragile in the cryogenic environment where BIR are precisely needed. Here, the authors report a versatile ionic hydrogel with fast self‐healing ability, ultra‐stretchability, and stable conductivity, even at −80 °C. The hydrogel is systematically optimized to improve a hydrogen‐bonded network nanostructure, coordinated achieving a quick self‐healing ability within 10 min, large deformation tolerance of over 7000%, superior conductivity of 11.76 S cm−1 and anti‐freezing ability, which is difficult to obtain simultaneously. Such a hydrogel provides new opportunities for artificial electronic devices in harsh environments. As a prospective application, they fabricate an artificial nerve fiber by mimicking the structure and functions of the myelinated axon, exhibiting the property of fast and potential‐gated signal transmission. This artificial nerve fiber is integrated into a robot for demonstrating a real‐time high fidelity and high throughput information interaction under big deformation and cryogenic temperature. The hydrogel and bionic device will bring pioneering functions for robots and open a broad application scenario in extreme conditions.
The authors propose an ionic hydrogel with outstanding self‐healing ability, ultra‐stretchability, and conductivity in cryogenic environments. The artificial nerve fiber (SSANF) is fabricated based on the ionic hydrogel through bionic structural design. The SSANF enables stable information and energy transmission when connected to the biomimetic intelligent robot, even under big deformation and −78.5 °C. |
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AbstractList | Abstract
Self‐healing materials behave with irreplaceable advantages in biomimetic intelligent robots (BIR) for avoiding or reducing safety hazards and economic losses from accidental damage during service. However, the self‐healing ability is unreservedly lost and even becomes rigid and fragile in the cryogenic environment where BIR are precisely needed. Here, the authors report a versatile ionic hydrogel with fast self‐healing ability, ultra‐stretchability, and stable conductivity, even at −80 °C. The hydrogel is systematically optimized to improve a hydrogen‐bonded network nanostructure, coordinated achieving a quick self‐healing ability within 10 min, large deformation tolerance of over 7000%, superior conductivity of 11.76 S cm
−1
and anti‐freezing ability, which is difficult to obtain simultaneously. Such a hydrogel provides new opportunities for artificial electronic devices in harsh environments. As a prospective application, they fabricate an artificial nerve fiber by mimicking the structure and functions of the myelinated axon, exhibiting the property of fast and potential‐gated signal transmission. This artificial nerve fiber is integrated into a robot for demonstrating a real‐time high fidelity and high throughput information interaction under big deformation and cryogenic temperature. The hydrogel and bionic device will bring pioneering functions for robots and open a broad application scenario in extreme conditions. Self‐healing materials behave with irreplaceable advantages in biomimetic intelligent robots (BIR) for avoiding or reducing safety hazards and economic losses from accidental damage during service. However, the self‐healing ability is unreservedly lost and even becomes rigid and fragile in the cryogenic environment where BIR are precisely needed. Here, the authors report a versatile ionic hydrogel with fast self‐healing ability, ultra‐stretchability, and stable conductivity, even at −80 °C. The hydrogel is systematically optimized to improve a hydrogen‐bonded network nanostructure, coordinated achieving a quick self‐healing ability within 10 min, large deformation tolerance of over 7000%, superior conductivity of 11.76 S cm−1 and anti‐freezing ability, which is difficult to obtain simultaneously. Such a hydrogel provides new opportunities for artificial electronic devices in harsh environments. As a prospective application, they fabricate an artificial nerve fiber by mimicking the structure and functions of the myelinated axon, exhibiting the property of fast and potential‐gated signal transmission. This artificial nerve fiber is integrated into a robot for demonstrating a real‐time high fidelity and high throughput information interaction under big deformation and cryogenic temperature. The hydrogel and bionic device will bring pioneering functions for robots and open a broad application scenario in extreme conditions. Self-healing materials behave with irreplaceable advantages in biomimetic intelligent robots (BIR) for avoiding or reducing safety hazards and economic losses from accidental damage during service. However, the self-healing ability is unreservedly lost and even becomes rigid and fragile in the cryogenic environment where BIR are precisely needed. Here, the authors report a versatile ionic hydrogel with fast self-healing ability, ultra-stretchability, and stable conductivity, even at -80 °C. The hydrogel is systematically optimized to improve a hydrogen-bonded network nanostructure, coordinated achieving a quick self-healing ability within 10 min, large deformation tolerance of over 7000%, superior conductivity of 11.76 S cm and anti-freezing ability, which is difficult to obtain simultaneously. Such a hydrogel provides new opportunities for artificial electronic devices in harsh environments. As a prospective application, they fabricate an artificial nerve fiber by mimicking the structure and functions of the myelinated axon, exhibiting the property of fast and potential-gated signal transmission. This artificial nerve fiber is integrated into a robot for demonstrating a real-time high fidelity and high throughput information interaction under big deformation and cryogenic temperature. The hydrogel and bionic device will bring pioneering functions for robots and open a broad application scenario in extreme conditions. Self‐healing materials behave with irreplaceable advantages in biomimetic intelligent robots (BIR) for avoiding or reducing safety hazards and economic losses from accidental damage during service. However, the self‐healing ability is unreservedly lost and even becomes rigid and fragile in the cryogenic environment where BIR are precisely needed. Here, the authors report a versatile ionic hydrogel with fast self‐healing ability, ultra‐stretchability, and stable conductivity, even at −80 °C. The hydrogel is systematically optimized to improve a hydrogen‐bonded network nanostructure, coordinated achieving a quick self‐healing ability within 10 min, large deformation tolerance of over 7000%, superior conductivity of 11.76 S cm−1 and anti‐freezing ability, which is difficult to obtain simultaneously. Such a hydrogel provides new opportunities for artificial electronic devices in harsh environments. As a prospective application, they fabricate an artificial nerve fiber by mimicking the structure and functions of the myelinated axon, exhibiting the property of fast and potential‐gated signal transmission. This artificial nerve fiber is integrated into a robot for demonstrating a real‐time high fidelity and high throughput information interaction under big deformation and cryogenic temperature. The hydrogel and bionic device will bring pioneering functions for robots and open a broad application scenario in extreme conditions. The authors propose an ionic hydrogel with outstanding self‐healing ability, ultra‐stretchability, and conductivity in cryogenic environments. The artificial nerve fiber (SSANF) is fabricated based on the ionic hydrogel through bionic structural design. The SSANF enables stable information and energy transmission when connected to the biomimetic intelligent robot, even under big deformation and −78.5 °C. |
Author | Chao, Shengyu Liu, Ying Sun, Yu Lin, Xubo Zheng, Qiang Mao, Gengsheng Wang, Chan Zhou, Jin Shi, Bojing Wang, Changyong Qu, Xuecheng Li, Zhou |
Author_xml | – sequence: 1 givenname: Chan surname: Wang fullname: Wang, Chan organization: University of Chinese Academy of Sciences – sequence: 2 givenname: Ying surname: Liu fullname: Liu, Ying organization: University of Chinese Academy of Sciences – sequence: 3 givenname: Xuecheng surname: Qu fullname: Qu, Xuecheng organization: University of Chinese Academy of Sciences – sequence: 4 givenname: Bojing surname: Shi fullname: Shi, Bojing organization: Beihang University – sequence: 5 givenname: Qiang surname: Zheng fullname: Zheng, Qiang organization: Guizhou Medical University – sequence: 6 givenname: Xubo surname: Lin fullname: Lin, Xubo organization: Beihang University – sequence: 7 givenname: Shengyu surname: Chao fullname: Chao, Shengyu organization: University of Chinese Academy of Sciences – sequence: 8 givenname: Changyong surname: Wang fullname: Wang, Changyong organization: Beijing Institute of Basic Medical Sciences – sequence: 9 givenname: Jin surname: Zhou fullname: Zhou, Jin organization: Beijing Institute of Basic Medical Sciences – sequence: 10 givenname: Yu surname: Sun fullname: Sun, Yu organization: The Third Medical Centre Chinese People's Liberation Army General Hospital – sequence: 11 givenname: Gengsheng surname: Mao fullname: Mao, Gengsheng organization: The Third Medical Centre Chinese People's Liberation Army General Hospital – sequence: 12 givenname: Zhou orcidid: 0000-0002-9952-7296 surname: Li fullname: Li, Zhou email: zli@binn.cas.cn organization: Chinese Academy of Sciences |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/35103354$$D View this record in MEDLINE/PubMed |
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Keywords | self-healing ionic hydrogels ultra-stretchability anti-freezing artificial nerve fibers |
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Snippet | Self‐healing materials behave with irreplaceable advantages in biomimetic intelligent robots (BIR) for avoiding or reducing safety hazards and economic losses... Self-healing materials behave with irreplaceable advantages in biomimetic intelligent robots (BIR) for avoiding or reducing safety hazards and economic losses... Abstract Self‐healing materials behave with irreplaceable advantages in biomimetic intelligent robots (BIR) for avoiding or reducing safety hazards and... |
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SubjectTerms | anti‐freezing artificial nerve fibers Biomimetic materials Bionics Cryogenic temperature Deformation Economic impact Electric Conductivity Electronic devices Electronics Freezing Hazard mitigation Healing Hydrogels Hydrogels - chemistry Ions Materials science Nerve Fibers Nerves Robots self‐healing ionic hydrogels Signal transmission Stretchability ultra‐stretchability |
Title | Ultra‐Stretchable and Fast Self‐Healing Ionic Hydrogel in Cryogenic Environments for Artificial Nerve Fiber |
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