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首页> 外文期刊>International Journal of Advanced Robotic Systems >Research on a New Bilateral Self-locking Mechanism for an Inchworm Micro In-pipe Robot with Large Traction
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Research on a New Bilateral Self-locking Mechanism for an Inchworm Micro In-pipe Robot with Large Traction

机译:大型牵引九虫微管机器人的新双边自锁机构研究

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摘要

In this paper, we present an innovative bilaterally-controllable self-locking mechanism that can be applied to the micro in-pipe robot. The background and state of the art of the inchworm micro in-pipe robot is briefly described in the very beginning of the paper, where the main factors that influence the traction ability are also discussed. Afterwards, the micro in-pipe robots' propulsion principle based on a unidirectional self-locking mechanism is discussed. Then, several kinds of self-locking mechanisms are compared, and a new bilaterally-controllable self-locking mechanism is proposed. By implementing the self-locking mechanism, the robot's tractive force is no longer restricted by the friction force, and both two-way motion and position locking for the robot can be achieved. Finally, the traction experiment is conducted using a prototype robot with the new bilaterally-controllable self-locking mechanism. Test results show that this new self-locking mechanism can adapt itself to a diameter of Phi 17 similar to Phi 20 mm and has a blocking force up to 25N, and the maximum tractive force of the in-pipe robot based on such a locking mechanism is 12N under the maximum velocity of 10mm/s.
机译:在本文中,我们提出了一种创新的双侧可控自锁机构,可以应用于微管机器人。在纸张的开始,简要描述了九虫微管机器人的技术的背景和状态,其中还讨论了影响牵引能力的主要因素。然后,讨论了基于单向自锁机构的微型管机器人的推进原理。然后,比较了几种自锁机构,提出了一种新的双侧可控自锁机构。通过实现自锁机构,机器人的牵引力不再受摩擦力限制,并且可以实现双向运动和机器人的位置锁定。最后,使用具有新的双侧可控自锁机构的原型机器人进行牵引实验。测试结果表明,这种新的自锁机构可以适应与PHI 20mm类似的PHI 17的直径,并且具有高达25N的阻挡力,并且基于这种锁定机构的管内机器人的最大牵引力在最大速度为10mm / s的情况下是12n。

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