Yu Li, Zhao Jieliang, Ma Zhiyun, Wang Wenzhong, Yan Shaoze, Jin Yue, Fang Yu
School of Mechanical Engineering, Beijing Institute of Technology, Beijing 100081, China.
Division of Intelligent and Biomechanical Systems, State Key Laboratory of Tribology, Department of Mechanical Engineering, Tsinghua University, Beijing 100084, China.
Cyborg Bionic Syst. 2022 Jul 21;2022:9895837. doi: 10.34133/2022/9895837. eCollection 2022.
The artificial locomotion control strategy is the fundamental technique to ensure the accomplishment of the preset assignments for cyborg insects. The existing research has recognized that the electrical stimulation applied to the optic lobes was an appropriate flight control strategy for small insects represented by honeybee. This control technique has been confirmed to be effective for honeybee flight initiation and cessation. However, its regulation effect on steering locomotion has not been fully verified. Here, we investigated the steering control effect of honeybee by applying electrical stimulation signals with different duty cycles and frequencies on the unilateral optic lobes and screened the stimulus parameters with the highest response successful rate. Moreover, we confirmed the effectiveness of steering control by verifying the presence of rotation torque on tethered honeybees and the body orientation change of crawling honeybees. Our study will contribute some reliable parameter references to the motion control of cyborg honeybees.
人工运动控制策略是确保半机械昆虫完成预设任务的基础技术。现有研究已认识到,施加于视叶的电刺激是蜜蜂所代表的小型昆虫的一种合适飞行控制策略。该控制技术已被证实对蜜蜂飞行的启动和停止有效。然而,其对转向运动的调节作用尚未得到充分验证。在此,我们通过在单侧视叶上施加不同占空比和频率的电刺激信号来研究蜜蜂的转向控制效果,并筛选出响应成功率最高的刺激参数。此外,我们通过验证束缚蜜蜂上的旋转扭矩的存在以及爬行蜜蜂的身体方向变化,证实了转向控制的有效性。我们的研究将为半机械蜜蜂的运动控制提供一些可靠的参数参考。