舰船科学技术2024,Vol.46Issue(10) :92-97.DOI:10.3404/j.issn.1672-7649.2024.10.016

新型两栖仿生机器人的结构设计和运动学仿真

Design and kinematics simulation of a new amphibious bionic robot

刘强 周涛 肖梦 周俊宝
舰船科学技术2024,Vol.46Issue(10) :92-97.DOI:10.3404/j.issn.1672-7649.2024.10.016

新型两栖仿生机器人的结构设计和运动学仿真

Design and kinematics simulation of a new amphibious bionic robot

刘强 1周涛 1肖梦 1周俊宝1
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作者信息

  • 1. 江苏海洋大学电子工程学院,江苏连云港 222005
  • 折叠

摘要

两栖环境是一种多介质结合的复杂地形环境,普通的两栖仿生机器人因为其自身设计结构简单且可实现动作单一等问题,导致很难完成特殊复杂的任务.本文参考蝾螈生物模型,提出了一种新型两栖仿生机器人的设计方案.同时结合蝾螈在水中的运动情况,设计俯仰姿态控制系统,使得其可实现上浮、下潜、上仰以及下俯等动作.为了验证所设计方案的可行性,利用Solidworks对关键模块进行有限元分析,来验证特殊情况下材料强度和设计结构的合理性,同时采用Webots运动学仿真的方式对两栖仿生机器人各关节角度进行校验.最终得出该两栖仿生机器人设计方案布局结构合理,整机在两栖环境中动作流畅,具有较好环境适应性和高拟真率,为整机的研发和应用奠定了基础.

Abstract

The amphibious environment is a complex terrain environment that combines multiple media.Ordinary am-phibious biomimetic robots often find it difficult to complete special and complex tasks due to their simple design structure and the ability to achieve single actions.This article proposes a design scheme for a novel amphibious biomimetic robot based on the salamander biological model.At the same time,based on the motion of salamanders in water,a pitch attitude control system is designed to enable them to perform actions such as floating,diving,pitching up,and pitching down.In or-der to verify the feasibility of the design scheme,the finite element analysis of key modules was carried out using Solid-works to verify the rationality of material strength and design structure under special circumstances.At the same time,Webots kinematics simulation was used to verify the joint angles of the amphibious newt bionic robot.The final design scheme of the amphibious biomimetic robot has a reasonable layout structure,smooth movements in amphibious environ-ments,good environmental adaptability,and high fidelity,laying the foundation for the development and application of the entire machine.

关键词

两栖仿生机器人/俯仰姿态/有限元分析/运动学仿真

Key words

amphibian bionic robot/pitch attitude/finite element analysis/simulation of kinematics

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基金项目

连云港市重点研发计划(CG2201)

出版年

2024
舰船科学技术
中国舰船研究院,中国船舶信息中心

舰船科学技术

CSTPCD北大核心
影响因子:0.373
ISSN:1672-7649
参考文献量11
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