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基于集成设计与实验的智能壁虎启发式机器人探索性研究

Exploratory research of intelligent gecko-inspired robot based on integrated design and experiment.

作者信息

Qiu Haifei, Zhang Jiayou, Zhao Jing, Wang Chaohui, Li Chengchuang

机构信息

School of Mechanical Engineering of XIJING University, Xi'an, 710123, China.

出版信息

Heliyon. 2024 Sep 4;10(17):e37375. doi: 10.1016/j.heliyon.2024.e37375. eCollection 2024 Sep 15.

DOI:10.1016/j.heliyon.2024.e37375
PMID:39296062
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11408780/
Abstract

A quadruped robot with intelligent properties is developed using a bionics approach to explore the potential value of gecko-like machinery. The robot structure incorporates mechanical links, steering engines, and wheel groups, which can expand the movement function of its leg joint. A pneumatic control circuit that can generate negative pressure is built by a vacuum pump, electromagnetic valve, sucker, hose, and others, to enable mobile climbing and adsorption of the gecko-inspired robot. By integrating gait planning, program compilation, Arduino board development, theoretical calculation, and digital modeling, the robot incorporates several practical functions such as "adsorption climbing, ultrasonic obstacle avoidance, remote control, Bluetooth communication, WiFi wireless image transmission, and multi-terrain maneuvering," which give a basis to realize the multi-dimensional integrated design of "machine, electricity, gas and intelligence" of biomimetic gecko. The experimental prototype of the gecko-inspired robot is designed and manufactured with 3D printing, combined with virtual prototype development, mechanism trajectory verification, finite element analysis, and CFD hydrodynamic simulation. Test results indicate that the biomimetic body has ideal characteristics of intelligent control and maneuvering response in the natural environment, which specifically manifested as that the robot can carry out stable adsorption and climb on the vertical wall, respond quickly to avoid obstacles intelligently, and detect and monitor the external environment in real-time with the help of a mobile phone control terminal. This work is promising for solving high-risk social production and engineering operation challenges.

摘要

采用仿生方法开发了一种具有智能特性的四足机器人,以探索类壁虎机械的潜在价值。机器人结构包括机械连杆、转向引擎和轮组,可扩展其腿部关节的运动功能。通过真空泵、电磁阀、吸盘、软管等构建了一个能产生负压的气动控制回路,以使受壁虎启发的机器人实现移动攀爬和吸附功能。通过整合步态规划、程序编写、Arduino板开发、理论计算和数字建模,该机器人具备了“吸附攀爬、超声波避障、遥控、蓝牙通信、WiFi无线图像传输和多地形机动”等多种实用功能,为实现仿生壁虎“机、电、气、智”的多维一体化设计奠定了基础。受壁虎启发的机器人实验样机采用3D打印设计制造,并结合虚拟样机开发、机构轨迹验证、有限元分析和CFD流体动力学模拟。测试结果表明,该仿生体在自然环境中具有理想的智能控制和机动响应特性,具体表现为机器人能够在垂直墙壁上进行稳定吸附和攀爬,能快速响应以智能避障,并借助手机控制终端实时检测和监测外部环境。这项工作在解决高风险社会生产和工程作业挑战方面具有广阔前景。

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本文引用的文献

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Bioinspired Rigid-Flexible Coupled Adaptive Compliant Motion Control of Robot Gecko for Space Stations.用于空间站的机器人壁虎的仿生刚柔耦合自适应柔顺运动控制
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