The Experts below are selected from a list of 4779 Experts worldwide ranked by ideXlab platform

Xinglong Gong - One of the best experts on this subject based on the ideXlab platform.

  • cnt stf kevlar based wearable Electronic Textile with excellent anti impact and sensing performance
    Composites Part A-applied Science and Manufacturing, 2019
    Co-Authors: Mei Liu, Shuaishuai Zhang, Shuai Liu, Saisai Cao, Sheng Wang, Linfeng Bai, Min Sang, Shouhu Xuan, Wanquan Jiang, Xinglong Gong
    Abstract:

    Abstract This work reports a novel CNT/STF/Kevlar-based (CNT, carbon nanotubes; STF, shear thickening fluid) wearable Electronic Textile (ET) composite with excellent protective and sensing performance. The dynamic impact resistance test shows the maximum resistance force of the single-layer ET composite reaches as high as 1232 N, which is much larger than the neat Kevlar (746 N), indicating that the ET composite can absorb more energy and sustain higher impact force. Due to the incorporation of the carbon nanotubes (CNTs), the ET composite shows excellent conductivity, thus it can be applied as a sensor to monitor signals of various human body movements. Due to the good flexibility, high sensitivity, and excellent protective performance, the ET composite exhibits high potential in the intelligent wearable Electronic Textile product, which possesses both excellent protective and sensing performance for human bodies in different environments.

  • smart wearable kevlar based safeguarding Electronic Textile with excellent sensing performance
    Soft Matter, 2017
    Co-Authors: Sheng Wang, Mei Liu, Shuaishuai Zhang, Linfeng Bai, Min Sang, Shouhu Xuan, Wanquan Jiang, Xinglong Gong
    Abstract:

    A novel S-ST/MWCNT/Kevlar-based wearable Electronic Textile (WET) with enhanced safeguarding performance and force sensing ability was fabricated. Stab resistance performance tests under quasi-static and dynamic conditions show that the maximum resistance force and penetration impact energy for the WET are 18 N and 11.76 J, which represent a 90% and 50% increment with respect to the neat Kevlar, respectively. Dynamic impact resistance tests show that the WET absorbs all the impact energy. The maximum resistance force of the WET is 1052 N, which represents an improvement of about 190% with respect to neat Kevlar. With the incorporation of multi-walled carbon nanotubes (MWCNTs), the WET can achieve a stable electrical conductivity of ∼10-2 S m-1, and the conductivity is highly sensitive to external mechanic forces. Notably, the sensing fabric also exhibits an outstanding ability to detect and analyze external forces. In addition, it can be fixed at any position of the human body and exhibits an ideal monitoring performance. Because of its flexibility, high sensitivity to various types of deformations and excellent safeguarding performance, the WET has a strong potential for wearable monitoring devices that simultaneously provide body protection and monitor the movements of the human body under various conditions.

  • smart wearable kevlar based safeguarding Electronic Textile with excellent sensing performance
    Soft Matter, 2017
    Co-Authors: Sheng Wang, Mei Liu, Shuaishuai Zhang, Linfeng Bai, Min Sang, Shouhu Xuan, Wanquan Jiang, Xinglong Gong
    Abstract:

    A novel S-ST/MWCNT/Kevlar-based wearable Electronic Textile (WET) with enhanced safeguarding performance and force sensing ability was fabricated. Stab resistance performance tests under quasi-static and dynamic conditions show that the maximum resistance force and penetration impact energy for the WET are 18 N and 11.76 J, which represent a 90% and 50% increment with respect to the neat Kevlar, respectively. Dynamic impact resistance tests show that the WET absorbs all the impact energy. The maximum resistance force of the WET is 1052 N, which represents an improvement of about 190% with respect to neat Kevlar. With the incorporation of multi-walled carbon nanotubes (MWCNTs), the WET can achieve a stable electrical conductivity of ∼10−2 S m−1, and the conductivity is highly sensitive to external mechanic forces. Notably, the sensing fabric also exhibits an outstanding ability to detect and analyze external forces. In addition, it can be fixed at any position of the human body and exhibits an ideal monitoring performance. Because of its flexibility, high sensitivity to various types of deformations and excellent safeguarding performance, the WET has a strong potential for wearable monitoring devices that simultaneously provide body protection and monitor the movements of the human body under various conditions.

Fan Hu - One of the best experts on this subject based on the ideXlab platform.

  • silk composite Electronic Textile sensor for high space precision 2d combo temperature pressure sensing
    Small, 2019
    Co-Authors: Ronghui Wu, Zhaohui Meng, Rui Yu, Fan Hu, Weidong Yu
    Abstract:

    : Wearable Electronic Textiles based on natural biocompatible/biodegradable materials have attracted great attention due to applications in health care and smart clothes. Silkworm fibers are durable, good heat conductors, insulating, and biocompatible, and are therefore regarded as excellent mediating materials for flexible Electronics. In this paper, a strategy on the design and fabrication of highly flexible multimode Electronic Textiles (E-Textile) based on functionalized silkworm fiber coiled yarns and weaving technology is presented. To achieve enhanced temperature sensing performance, a mixture of carbon nanotubes and an ionic liquid ([EMIM]Tf2 N) is embedded, which displays top sensitivity of 1.23% °C-1 and stability compared with others. Furthermore, fibrous pressure sensing based on the capacitance change of each cross-point of two yarns gives rise to highly position dependent and sensitivity sensing of 0.136 kPa-1 . Based on weaving technologies, a unique combo Textile sensor, which can sense temperature and pressure independently with a position precision of 1 mm2 , is obtained. The application to intelligent gloves endows the position dependent sensing of the weight, and temperature distribution sensing of the temperature.

  • Silk Composite Electronic Textile Sensor for High Space Precision 2D Combo Temperature–Pressure Sensing
    Small, 2019
    Co-Authors: Ronghui Wu, Zhaohui Meng, Liyun Ma, Rui Yu, Weidong Yu, Fan Hu
    Abstract:

    : Wearable Electronic Textiles based on natural biocompatible/biodegradable materials have attracted great attention due to applications in health care and smart clothes. Silkworm fibers are durable, good heat conductors, insulating, and biocompatible, and are therefore regarded as excellent mediating materials for flexible Electronics. In this paper, a strategy on the design and fabrication of highly flexible multimode Electronic Textiles (E-Textile) based on functionalized silkworm fiber coiled yarns and weaving technology is presented. To achieve enhanced temperature sensing performance, a mixture of carbon nanotubes and an ionic liquid ([EMIM]Tf2 N) is embedded, which displays top sensitivity of 1.23% °C-1 and stability compared with others. Furthermore, fibrous pressure sensing based on the capacitance change of each cross-point of two yarns gives rise to highly position dependent and sensitivity sensing of 0.136 kPa-1 . Based on weaving technologies, a unique combo Textile sensor, which can sense temperature and pressure independently with a position precision of 1 mm2 , is obtained. The application to intelligent gloves endows the position dependent sensing of the weight, and temperature distribution sensing of the temperature.

Sheng Wang - One of the best experts on this subject based on the ideXlab platform.

  • cnt stf kevlar based wearable Electronic Textile with excellent anti impact and sensing performance
    Composites Part A-applied Science and Manufacturing, 2019
    Co-Authors: Mei Liu, Shuaishuai Zhang, Shuai Liu, Saisai Cao, Sheng Wang, Linfeng Bai, Min Sang, Shouhu Xuan, Wanquan Jiang, Xinglong Gong
    Abstract:

    Abstract This work reports a novel CNT/STF/Kevlar-based (CNT, carbon nanotubes; STF, shear thickening fluid) wearable Electronic Textile (ET) composite with excellent protective and sensing performance. The dynamic impact resistance test shows the maximum resistance force of the single-layer ET composite reaches as high as 1232 N, which is much larger than the neat Kevlar (746 N), indicating that the ET composite can absorb more energy and sustain higher impact force. Due to the incorporation of the carbon nanotubes (CNTs), the ET composite shows excellent conductivity, thus it can be applied as a sensor to monitor signals of various human body movements. Due to the good flexibility, high sensitivity, and excellent protective performance, the ET composite exhibits high potential in the intelligent wearable Electronic Textile product, which possesses both excellent protective and sensing performance for human bodies in different environments.

  • smart wearable kevlar based safeguarding Electronic Textile with excellent sensing performance
    Soft Matter, 2017
    Co-Authors: Sheng Wang, Mei Liu, Shuaishuai Zhang, Linfeng Bai, Min Sang, Shouhu Xuan, Wanquan Jiang, Xinglong Gong
    Abstract:

    A novel S-ST/MWCNT/Kevlar-based wearable Electronic Textile (WET) with enhanced safeguarding performance and force sensing ability was fabricated. Stab resistance performance tests under quasi-static and dynamic conditions show that the maximum resistance force and penetration impact energy for the WET are 18 N and 11.76 J, which represent a 90% and 50% increment with respect to the neat Kevlar, respectively. Dynamic impact resistance tests show that the WET absorbs all the impact energy. The maximum resistance force of the WET is 1052 N, which represents an improvement of about 190% with respect to neat Kevlar. With the incorporation of multi-walled carbon nanotubes (MWCNTs), the WET can achieve a stable electrical conductivity of ∼10-2 S m-1, and the conductivity is highly sensitive to external mechanic forces. Notably, the sensing fabric also exhibits an outstanding ability to detect and analyze external forces. In addition, it can be fixed at any position of the human body and exhibits an ideal monitoring performance. Because of its flexibility, high sensitivity to various types of deformations and excellent safeguarding performance, the WET has a strong potential for wearable monitoring devices that simultaneously provide body protection and monitor the movements of the human body under various conditions.

  • smart wearable kevlar based safeguarding Electronic Textile with excellent sensing performance
    Soft Matter, 2017
    Co-Authors: Sheng Wang, Mei Liu, Shuaishuai Zhang, Linfeng Bai, Min Sang, Shouhu Xuan, Wanquan Jiang, Xinglong Gong
    Abstract:

    A novel S-ST/MWCNT/Kevlar-based wearable Electronic Textile (WET) with enhanced safeguarding performance and force sensing ability was fabricated. Stab resistance performance tests under quasi-static and dynamic conditions show that the maximum resistance force and penetration impact energy for the WET are 18 N and 11.76 J, which represent a 90% and 50% increment with respect to the neat Kevlar, respectively. Dynamic impact resistance tests show that the WET absorbs all the impact energy. The maximum resistance force of the WET is 1052 N, which represents an improvement of about 190% with respect to neat Kevlar. With the incorporation of multi-walled carbon nanotubes (MWCNTs), the WET can achieve a stable electrical conductivity of ∼10−2 S m−1, and the conductivity is highly sensitive to external mechanic forces. Notably, the sensing fabric also exhibits an outstanding ability to detect and analyze external forces. In addition, it can be fixed at any position of the human body and exhibits an ideal monitoring performance. Because of its flexibility, high sensitivity to various types of deformations and excellent safeguarding performance, the WET has a strong potential for wearable monitoring devices that simultaneously provide body protection and monitor the movements of the human body under various conditions.

Ronghui Wu - One of the best experts on this subject based on the ideXlab platform.

  • silk composite Electronic Textile sensor for high space precision 2d combo temperature pressure sensing
    Small, 2019
    Co-Authors: Ronghui Wu, Zhaohui Meng, Rui Yu, Fan Hu, Weidong Yu
    Abstract:

    : Wearable Electronic Textiles based on natural biocompatible/biodegradable materials have attracted great attention due to applications in health care and smart clothes. Silkworm fibers are durable, good heat conductors, insulating, and biocompatible, and are therefore regarded as excellent mediating materials for flexible Electronics. In this paper, a strategy on the design and fabrication of highly flexible multimode Electronic Textiles (E-Textile) based on functionalized silkworm fiber coiled yarns and weaving technology is presented. To achieve enhanced temperature sensing performance, a mixture of carbon nanotubes and an ionic liquid ([EMIM]Tf2 N) is embedded, which displays top sensitivity of 1.23% °C-1 and stability compared with others. Furthermore, fibrous pressure sensing based on the capacitance change of each cross-point of two yarns gives rise to highly position dependent and sensitivity sensing of 0.136 kPa-1 . Based on weaving technologies, a unique combo Textile sensor, which can sense temperature and pressure independently with a position precision of 1 mm2 , is obtained. The application to intelligent gloves endows the position dependent sensing of the weight, and temperature distribution sensing of the temperature.

  • Silk Composite Electronic Textile Sensor for High Space Precision 2D Combo Temperature–Pressure Sensing
    Small, 2019
    Co-Authors: Ronghui Wu, Zhaohui Meng, Liyun Ma, Rui Yu, Weidong Yu, Fan Hu
    Abstract:

    : Wearable Electronic Textiles based on natural biocompatible/biodegradable materials have attracted great attention due to applications in health care and smart clothes. Silkworm fibers are durable, good heat conductors, insulating, and biocompatible, and are therefore regarded as excellent mediating materials for flexible Electronics. In this paper, a strategy on the design and fabrication of highly flexible multimode Electronic Textiles (E-Textile) based on functionalized silkworm fiber coiled yarns and weaving technology is presented. To achieve enhanced temperature sensing performance, a mixture of carbon nanotubes and an ionic liquid ([EMIM]Tf2 N) is embedded, which displays top sensitivity of 1.23% °C-1 and stability compared with others. Furthermore, fibrous pressure sensing based on the capacitance change of each cross-point of two yarns gives rise to highly position dependent and sensitivity sensing of 0.136 kPa-1 . Based on weaving technologies, a unique combo Textile sensor, which can sense temperature and pressure independently with a position precision of 1 mm2 , is obtained. The application to intelligent gloves endows the position dependent sensing of the weight, and temperature distribution sensing of the temperature.

Mei Liu - One of the best experts on this subject based on the ideXlab platform.

  • cnt stf kevlar based wearable Electronic Textile with excellent anti impact and sensing performance
    Composites Part A-applied Science and Manufacturing, 2019
    Co-Authors: Mei Liu, Shuaishuai Zhang, Shuai Liu, Saisai Cao, Sheng Wang, Linfeng Bai, Min Sang, Shouhu Xuan, Wanquan Jiang, Xinglong Gong
    Abstract:

    Abstract This work reports a novel CNT/STF/Kevlar-based (CNT, carbon nanotubes; STF, shear thickening fluid) wearable Electronic Textile (ET) composite with excellent protective and sensing performance. The dynamic impact resistance test shows the maximum resistance force of the single-layer ET composite reaches as high as 1232 N, which is much larger than the neat Kevlar (746 N), indicating that the ET composite can absorb more energy and sustain higher impact force. Due to the incorporation of the carbon nanotubes (CNTs), the ET composite shows excellent conductivity, thus it can be applied as a sensor to monitor signals of various human body movements. Due to the good flexibility, high sensitivity, and excellent protective performance, the ET composite exhibits high potential in the intelligent wearable Electronic Textile product, which possesses both excellent protective and sensing performance for human bodies in different environments.

  • smart wearable kevlar based safeguarding Electronic Textile with excellent sensing performance
    Soft Matter, 2017
    Co-Authors: Sheng Wang, Mei Liu, Shuaishuai Zhang, Linfeng Bai, Min Sang, Shouhu Xuan, Wanquan Jiang, Xinglong Gong
    Abstract:

    A novel S-ST/MWCNT/Kevlar-based wearable Electronic Textile (WET) with enhanced safeguarding performance and force sensing ability was fabricated. Stab resistance performance tests under quasi-static and dynamic conditions show that the maximum resistance force and penetration impact energy for the WET are 18 N and 11.76 J, which represent a 90% and 50% increment with respect to the neat Kevlar, respectively. Dynamic impact resistance tests show that the WET absorbs all the impact energy. The maximum resistance force of the WET is 1052 N, which represents an improvement of about 190% with respect to neat Kevlar. With the incorporation of multi-walled carbon nanotubes (MWCNTs), the WET can achieve a stable electrical conductivity of ∼10-2 S m-1, and the conductivity is highly sensitive to external mechanic forces. Notably, the sensing fabric also exhibits an outstanding ability to detect and analyze external forces. In addition, it can be fixed at any position of the human body and exhibits an ideal monitoring performance. Because of its flexibility, high sensitivity to various types of deformations and excellent safeguarding performance, the WET has a strong potential for wearable monitoring devices that simultaneously provide body protection and monitor the movements of the human body under various conditions.

  • smart wearable kevlar based safeguarding Electronic Textile with excellent sensing performance
    Soft Matter, 2017
    Co-Authors: Sheng Wang, Mei Liu, Shuaishuai Zhang, Linfeng Bai, Min Sang, Shouhu Xuan, Wanquan Jiang, Xinglong Gong
    Abstract:

    A novel S-ST/MWCNT/Kevlar-based wearable Electronic Textile (WET) with enhanced safeguarding performance and force sensing ability was fabricated. Stab resistance performance tests under quasi-static and dynamic conditions show that the maximum resistance force and penetration impact energy for the WET are 18 N and 11.76 J, which represent a 90% and 50% increment with respect to the neat Kevlar, respectively. Dynamic impact resistance tests show that the WET absorbs all the impact energy. The maximum resistance force of the WET is 1052 N, which represents an improvement of about 190% with respect to neat Kevlar. With the incorporation of multi-walled carbon nanotubes (MWCNTs), the WET can achieve a stable electrical conductivity of ∼10−2 S m−1, and the conductivity is highly sensitive to external mechanic forces. Notably, the sensing fabric also exhibits an outstanding ability to detect and analyze external forces. In addition, it can be fixed at any position of the human body and exhibits an ideal monitoring performance. Because of its flexibility, high sensitivity to various types of deformations and excellent safeguarding performance, the WET has a strong potential for wearable monitoring devices that simultaneously provide body protection and monitor the movements of the human body under various conditions.