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壁虎黏附运动的神经控制机制:脊髓损伤的影响。

The Neural Control Mechanisms of Gekkonid Adhesion Locomotion: The Effect of Spinal Cord Lesions.

作者信息

Wang Xiaoqing, Wang Wenbo, Dai Zhendong

机构信息

Institute of Bio-Inspired Structure and Surface Engineering, College of Mechanical & Electrical Engineering, Nanjing University of Aeronautics & Astronautics, Nanjing 210016, China.

出版信息

Biomimetics (Basel). 2022 Jul 22;7(3):98. doi: 10.3390/biomimetics7030098.

Abstract

the role of the supraspinal system in the neural control mechanisms of adhesion locomotor pattern formation was studied in lizard . the locomotor performance and adaptation of the chronically lesioned was documented before and after either partial or complete spinal lesions. They were filmed moving on a flat and smooth platform that was inclined at 0°, ±45°, and ±90°, as well as the horizontal mats and the vertical oak background board in the terraria, to evaluate locomotor functional recovery. The geckos were also tested on the platform by two half and nose-up or -down rotations in steps of 15° throughout 180° to investigate the recovery of the ability to respond dynamically to external perturbations. after relatively small lesions of a hemisection, the locomotor performance was largely indistinguishable from that before and after a sham operation. During the initial period of recovery after the largest lesions of a dorsal or a ventral hemisection within 1 wk, the geckos behaved essentially as the complete spinal geckos, while permanent deficits in locomotor performance remained and did not decrease afterwards for ≥6 mth. by analyzing the correlation among locomotor performances, and between locomotor performances and spinal cord lesions, we suggest that the dorsal spinal pathways and ventral spinal pathways participate, respectively, in the control of the limb coupling, and in the deployment and the detachment of the adhesive apparatus. The present study will provide certain neurobiological guidance for the design of bio-robots, as well as sprawling robots inspired by the geckos.

摘要

研究了蜥蜴脊髓上系统在粘附性运动模式形成的神经控制机制中的作用。记录了部分或完全脊髓损伤前后慢性损伤蜥蜴的运动表现和适应性。拍摄它们在倾斜角度为0°、±45°和±90°的平坦光滑平台上移动的情况,以及在饲养箱中的水平垫子和垂直橡木背景板上移动的情况,以评估运动功能恢复情况。还通过在平台上以15°步长进行两次半圈及180°内的抬头或低头旋转来测试壁虎对外部干扰动态响应能力的恢复情况。在进行相对较小的半切损伤后,运动表现与假手术后的情况基本没有区别。在背侧或腹侧半切最大损伤后的1周内恢复初期,壁虎的行为与完全脊髓损伤的壁虎基本相同,而运动表现的永久性缺陷仍然存在,并且在≥6个月后没有减少。通过分析运动表现之间以及运动表现与脊髓损伤之间的相关性,我们认为脊髓背侧通路和腹侧通路分别参与肢体耦合的控制以及粘附装置的展开和脱离。本研究将为生物机器人以及受壁虎启发的爬行机器人的设计提供一定的神经生物学指导。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/fcd3/9332208/52825c0fba91/biomimetics-07-00098-g001.jpg

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