无系留磁爪的建模与控制

Yunxuan Mao, Sishen Yuan, Jiaole Wang, Jinmin Zhang, Shuang Song
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引用次数: 3

摘要

小型机器人在微创手术中具有很大的应用潜力。本文提出了一种小型无系留磁爪,并建立了双磁体模型。夹持器长4.3mm,最大宽度4mm。它包含一个主轴和两个磁体,可以在外加磁场的驱动下实现对方位、位置和开角的精确控制。因此,它可以在密闭和受限的环境中执行诸如运输药物之类的操作。对磁夹持器进行了建模和分析。建立了开口角与外加磁场的关系。建立了夹持器的运动学模型。建立了一个三轴亥姆霍兹-麦克斯韦线圈系统来产生磁场,用均匀磁场控制线圈的方向和开角,用梯度磁场控制线圈的位置。该夹具已通过仿真实验进行了验证。开角控制误差为0.63°,方向控制误差为1.1°。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modeling and Control of an Untethered Magnetic Gripper
Small-scale robots have great potential in minimally invasive surgery (MIS). In this paper, we propose an untethered magnetic gripper with small scale and build a double-magnet model for it. The gripper is 4.3mm long and its maximum width is 4mm. It contains a spindle and two magnets, which can achieve precise control of orientation, position and open angle with external magnetic driven field. As a result, it can perform operations such as transporting medicines in confined and constrained environments. Modeling and analysis of the magnetic gripper have been carried out. Relationship between the open angle and external magnetic field has been established. Kinematics model of the gripper has been built. A 3-axis Helmholtz-Maxwell coil system has been established to generate the magnetic field, in which orientation and open angle can be controlled with uniform magnetic field while position can be controlled with gradient field. The proposed gripper have been validated with phantom experiments. An opened angle control error of 0.63° and direction control error of 1.1° have been obtained.
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