Magnetic soft centirobot to mitigate biological threats

SmartMat Pub Date : 2024-05-09 DOI:10.1002/smm2.1289
Jayraj V. Vaghasiya, Carmen C. Mayorga-Martinez, Jaroslav Zelenka, Shelja Sharma, Tomas Ruml, M. Pumera
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Abstract

Soft robots have drawn a lot of interest in the field of human–robot interfaces because they can mimic the propulsion of soft bodies and archive complex tasks that cannot be made by rigid robots such as performing the complex motion, avoiding collisions by absorbing impacts, and shape adaptation by elastic deformation. Herein, drawing inspiration from creatures in the Cambrian period, such as Hallucigenia, we develop a centimeter‐sized soft robot with multiple magnetic legs (referred to as a soft centirobot). This robot is equipped with graphitic carbon nitride (g‐C3N4) nanosheets to kill biological threats by photogenerated reactive oxygen species under black light illumination. The motion of g‐C3N4 soft centirobot is controlled by magnetic actuation even in complex wastewater samples (with a relative speed of 0.12 body lengths per second). The magnetic multilegs work as a propeller to walk across and cover large regions, and water disinfection is more efficient than what could be achieved by nano/micrometer scale sheets of g‐C3N4. Finally, factors affecting the accelerated propulsion of g‐C3N4 soft centirobot such as design principle, structure geometry, body mass, driving mechanism, and magnetic sensitivity, have been investigated. We envision that such a photoactive 2D material‐based integrated centimeter‐sized robot shall find application in many areas where pathogen removal is required.
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减轻生物威胁的磁性软蜈蚣机器人
软体机器人能够模仿软体的推进力,并能完成刚性机器人无法完成的复杂任务,如完成复杂运动、通过吸收冲击力避免碰撞、通过弹性变形适应形状等,因此在人机接口领域备受关注。在此,我们从寒武纪时期的生物(如 Hallucigenia)中汲取灵感,开发了一种厘米大小的软体机器人,它具有多条磁腿(称为软体 centirobot)。该机器人配备了氮化石墨碳(g-C3N4)纳米片,可在黑光照明下通过光生活性氧杀死生物威胁。即使在复杂的废水样本中(相对速度为每秒 0.12 个体长),g-C3N4 软蜈蚣机器人的运动也是由磁驱动控制的。磁性多肢体可作为螺旋桨在大面积区域内行走和覆盖,水消毒的效率比纳米/微米尺度的 g-C3N4 薄片更高。最后,我们还研究了影响 g-C3N4 软蜈蚣机器人加速推进的因素,如设计原理、结构几何形状、本体质量、驱动机制和磁灵敏度。我们预计,这种基于光活性二维材料的厘米级集成机器人将在许多需要清除病原体的领域得到应用。
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