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Soft Nanomembrane Sensor-Enabled Wearable Multimodal Sensing and Feedback System for Upper-Limb Sensory Impairment Assistance
ACS Nano ( IF 15.8 ) Pub Date : 2025-01-31 , DOI: 10.1021/acsnano.4c15530
Tae Woog Kang, Yoon Jae Lee, Bruno Rigo, Ira Soltis, Jimin Lee, Hodam Kim, Gaorong Wang, Nathan Zavanelli, Eyas Ayesh, Wali Sohail, Houriyeh Majditehran, Scott H. Kozin, Frank L. Hammond, III, Woon-Hong Yeo
ACS Nano ( IF 15.8 ) Pub Date : 2025-01-31 , DOI: 10.1021/acsnano.4c15530
Tae Woog Kang, Yoon Jae Lee, Bruno Rigo, Ira Soltis, Jimin Lee, Hodam Kim, Gaorong Wang, Nathan Zavanelli, Eyas Ayesh, Wali Sohail, Houriyeh Majditehran, Scott H. Kozin, Frank L. Hammond, III, Woon-Hong Yeo
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Sensory rehabilitation in pediatric patients with traumatic spinal cord injury is challenging due to the ongoing development of their nervous systems. However, these sensory problems often result in nonuse of the impaired limb, which disturbs impaired limb rehabilitation and leads to overuse of the contralateral limb and other physical or psychological issues that may persist. Here, we introduce a soft nanomembrane sensor-enabled wearable glove system that wirelessly delivers a haptic sensation from the hand with tactile feedback responses for sensory impairment assistance. The smart glove system uses gold nanomembranes, copper-elastomer composites, and laser-induced graphene for the sensitive detection of pressure, temperature, and strain changes. The nanomaterial sensors are integrated with low-profile tactile actuators and wireless flexible electronics to offer real-time sensory feedback. The wearable system’s thin-film sensors demonstrate 98% and 97% accuracy in detecting pressure and finger flexion, respectively, along with a detection coverage of real-life temperature changes as an effective rehabilitation tool. Collectively, the upper-limb sensory impairment assistance system embodies the latest in soft materials and wearable technology to incorporate soft sensors and miniaturized actuators and maximize its compatibility with human users, offering a promising solution for patient sensory rehabilitation.
中文翻译:
支持软纳米膜传感器的可穿戴多模态传感和反馈系统,用于上肢感觉障碍辅助
由于神经系统的持续发育,创伤性脊髓损伤儿科患者的感觉康复具有挑战性。然而,这些感觉问题通常会导致受损肢体不使用,从而干扰受损肢体康复,并导致对侧肢体的过度使用和其他可能持续存在的身体或心理问题。在这里,我们介绍了一种支持软纳米膜传感器的可穿戴手套系统,该系统通过触觉反馈响应无线提供来自手的触觉,以帮助感觉障碍。智能手套系统使用金纳米膜、铜弹性体复合材料和激光诱导石墨烯来灵敏地检测压力、温度和应变变化。纳米材料传感器与低调的触觉致动器和无线柔性电子设备集成在一起,以提供实时传感反馈。可穿戴系统的薄膜传感器在检测压力和手指屈曲方面分别表现出 98% 和 97% 的准确率,并且作为一种有效的康复工具,可以检测到现实生活中的温度变化。总的来说,上肢感觉障碍辅助系统体现了最新的软材料和可穿戴技术,结合了软传感器和小型化致动器,并最大限度地提高了与人类用户的兼容性,为患者感觉康复提供了有前途的解决方案。
更新日期:2025-01-31
中文翻译:

支持软纳米膜传感器的可穿戴多模态传感和反馈系统,用于上肢感觉障碍辅助
由于神经系统的持续发育,创伤性脊髓损伤儿科患者的感觉康复具有挑战性。然而,这些感觉问题通常会导致受损肢体不使用,从而干扰受损肢体康复,并导致对侧肢体的过度使用和其他可能持续存在的身体或心理问题。在这里,我们介绍了一种支持软纳米膜传感器的可穿戴手套系统,该系统通过触觉反馈响应无线提供来自手的触觉,以帮助感觉障碍。智能手套系统使用金纳米膜、铜弹性体复合材料和激光诱导石墨烯来灵敏地检测压力、温度和应变变化。纳米材料传感器与低调的触觉致动器和无线柔性电子设备集成在一起,以提供实时传感反馈。可穿戴系统的薄膜传感器在检测压力和手指屈曲方面分别表现出 98% 和 97% 的准确率,并且作为一种有效的康复工具,可以检测到现实生活中的温度变化。总的来说,上肢感觉障碍辅助系统体现了最新的软材料和可穿戴技术,结合了软传感器和小型化致动器,并最大限度地提高了与人类用户的兼容性,为患者感觉康复提供了有前途的解决方案。