通过多材料3D打印制造的具有表面刺激器的人体工程学昆虫头饰和腹部扣:电子昆虫的无创感觉刺激器的快速安全安装。

IF 18.1 Q1 ENGINEERING, BIOMEDICAL
Cyborg and bionic systems (Washington, D.C.) Pub Date : 2025-09-22 eCollection Date: 2025-01-01 DOI:10.34133/cbsystems.0406
Phuoc Thanh Tran-Ngoc, Kewei Song, Thu Ha Tran, Kazuki Kai, Qifeng Lin, Hirotaka Sato
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引用次数: 0

摘要

利用昆虫固有的适应性和机动性,将昆虫与电子系统相结合,创造出具有各种实际应用价值的半机械昆虫。然而,大多数机器人昆虫的准备依赖于侵入性方法,这可能会对关键的感觉器官造成伤害,并限制机器人昆虫的越障能力。我们提出了带有头戴和腹扣的可穿戴设备,利用挂钩机制、多材料三维打印和选择性化学镀来解决这些挑战。这些装置牢固地附着在触角表面和腹壁上,不会损坏功能器官,从而保持昆虫的自然感觉功能和身体完整性。此外,电极无需使用粘合剂即可轻松附着和分离,从而减少了制备半机械昆虫所需的时间,并使昆虫能够重复使用。实验表明,与使用侵入式方法准备的机器人昆虫相比,使用可穿戴设备的机器人昆虫花费的时间更少。此外,机器人昆虫沿着“S”路径导航的能力进一步证明了实际导航任务的潜力。这项工作推进了机器人和生物混合系统领域中可扩展、高效和合乎伦理的半机械人昆虫利用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ergonomic Insect Headgear and Abdominal Buckle with Surface Stimulators Manufactured via Multimaterial 3D Printing: Snap-and-Secure Installation of Noninvasive Sensory Stimulators for Cyborg Insects.

Insects have been integrated with electronic systems to create cyborg insects for various practical applications by utilizing their inherent adaptability and mobility. Nevertheless, most cyborg insects' preparation depends on the invasive method, which can cause harm to critical sensory organs and restrict the obstacle-negotiating capabilities of cyborg insects. We present wearable devices with headgear and abdominal buckle that address these challenges using hooking mechanisms, multimaterial 3-dimensional printing, and selective electroless plating. These devices attach securely to the antenna scape and abdominal tergum without damaging functional organs, thereby preserving the insect's natural sensory functions and physical intactness. Besides, the electrodes attach and detach easily without using adhesives, reducing the time required for cyborg insect preparation and enabling the reuse of insects. Experiments show that cyborg insects with wearable devices spend less time traversing obstacles than those prepared using invasive methods. Additionally, the potential for practical navigation tasks is further demonstrated by the cyborg insect's capacity to navigate along the "S"-path. This work advances scalable, efficient, and ethical utilization of cyborg insects in the fields of robotics and biohybrid systems.

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来源期刊
CiteScore
7.70
自引率
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审稿时长
21 weeks
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