首页 > 其他分享 >外肢体与协作机器人,移动机器人,外骨骼机器人的区别

外肢体与协作机器人,移动机器人,外骨骼机器人的区别

时间:2024-05-21 13:30:42浏览次数:25  
标签:外骨骼 tasks additional 机器人 robots 移动机器人 arms human robotic

https://chatgpt.com/share/9d4603cf-591b-474d-a33c-876297bc50b9

Q

How supernumerary robotic arms differ from collabrative robots, mobile robots (robotic arms mounted on AGV) and exoskeletons? Is there any task that supernumerary robotic arms can do but others don't. Tasks that are urgent and of important to tackle is preferred.  

A

ChatGPT

Supernumerary robotic arms (SRAs) are designed to augment human capabilities by providing additional limbs that can be controlled independently or semi-independently by the user. These are distinct from collaborative robots, mobile robots, and exoskeletons in several ways:

Differences from Other Robotic Systems

  1. Collaborative Robots (Cobots):

    • Purpose: Cobots are designed to work alongside humans in a shared workspace, enhancing productivity and safety.
    • Operation: Typically, cobots perform repetitive tasks and can be programmed to interact safely with human workers.
    • Use Case: Assembly lines, pick-and-place tasks, and quality control in manufacturing.
  2. Mobile Robots (Robotic Arms Mounted on AGVs):

    • Purpose: These robots combine the mobility of Automated Guided Vehicles (AGVs) with the dexterity of robotic arms to perform tasks in dynamic environments.
    • Operation: They can navigate through warehouses, factories, or hospitals to transport goods, conduct inspections, or provide assistance.
    • Use Case: Logistics, warehouse automation, and dynamic pick-and-place tasks in varied locations.
  3. Exoskeletons:

    • Purpose: Exoskeletons are wearable devices that enhance human strength, endurance, or rehabilitation by supporting or augmenting human movement.
    • Operation: They can be passive or powered and are designed to follow the natural movements of the human body.
    • Use Case: Medical rehabilitation, industrial lifting tasks, and enhancing mobility for individuals with disabilities.

Unique Capabilities of Supernumerary Robotic Arms

  1. Enhanced Multi-tasking:

    • SRAs can perform tasks simultaneously with the human operator’s natural limbs, significantly enhancing multi-tasking capabilities.
    • Example: An SRA could hold a tool or object in place while the user’s hands perform detailed tasks, such as assembly or surgery.
  2. Improved Ergonomics and Safety:

    • SRAs can take over tasks that require awkward or strenuous postures, reducing the risk of repetitive strain injuries.
    • Example: In industrial settings, an SRA could perform overhead work or tasks in confined spaces, reducing physical strain on workers.
  3. Increased Precision and Stability:

    • SRAs can provide additional stability or support during delicate operations, improving precision and reducing human error.
    • Example: In surgical procedures, an SRA could assist by holding instruments or tissues steady, allowing the surgeon to focus on critical actions.
  4. Emergency Response and Disaster Relief:

    • SRAs can be particularly useful in emergency scenarios where time-sensitive and complex tasks are required.
    • Example: During disaster relief operations, an SRA could assist a human operator in navigating hazardous environments, clearing debris, or providing medical assistance.

Tasks Suited for Supernumerary Robotic Arms

  • Medical and Surgical Assistance: Assisting surgeons with holding tools or tissues during complex procedures, potentially reducing surgery times and improving outcomes.
  • Space Missions: Assisting astronauts with maintenance and repair tasks in space where dexterity and additional limbs can be highly advantageous.
  • Hazardous Environments: Performing tasks in environments that are dangerous for humans, such as handling hazardous materials, working in extreme temperatures, or dealing with radioactive substances.
  • Advanced Manufacturing: Assisting in precision assembly, welding, or inspection tasks where additional stability and precision are crucial.

In summary, while collaborative robots, mobile robots, and exoskeletons each have their specialized applications, supernumerary robotic arms uniquely augment human capabilities by providing additional limbs that can enhance multi-tasking, improve ergonomics, increase precision, and assist in critical tasks in hazardous or high-stakes environments.

标签:外骨骼,tasks,additional,机器人,robots,移动机器人,arms,human,robotic
From: https://www.cnblogs.com/zhengshufang/p/18203790

相关文章

  • 一文彻底整明白,基于Ollama工具的LLM大语言模型Web可视化对话机器人部署指南
    在上一篇博文中,我们在本地部署了Llama38B参数大模型,并用Python写了一个控制台对话客户端,基本能愉快的与Llama大模型对话聊天了。但控制台总归太技术化,体验不是很友好,我们希望能有个类似ChatGPT那样的Web聊天对话界面,本博文就安排起来……上一篇Llama38B大模型部署......
  • 三维工厂仿真软件-离散物流机器人编程与PLC
    在智能制造的发展进程中,3D仿真技术已经成为推动产业升级、优化生产流程的关键工具。其中,VisualComponents软件以其优异的表现和广泛应用,成为了倍受诸多制造型企业青睐的三维工厂仿真与物流规划解决方案。本文为您揭示其如何在离散物流仿真,机器人编程以及PLC调试等领域发挥关键作......
  • C---机器人编程实用指南-全-
    C++机器人编程实用指南(全)原文:zh.annas-archive.org/md5/E72C92D0A964D187E23464F49CAD88BE译者:飞龙协议:CCBY-NC-SA4.0前言C++是最受欢迎的传统编程语言之一,用于机器人技术,许多领先的行业都使用C++和机器人硬件的组合。本书将弥合树莓派和C/C++编程之间的差距,并使您能......
  • 微信3.9.8.25机器人(Hook注入)搭建教程文档
    开源地址https://github.com/ttttupup/wxhelper  微信破解dllhttps://github.com/nefarius/Injector  注入工具https://github.com/tom-snow/wechat-windows-versions/releases 微信历史版本基本原理启动指定版本PC微信以后,利用注入程序将dll文件注入到微信进程内,可......
  • 首届中国人形机器人产业大会 —— 小型双足机器人亮相
    相关:https://mbd.baidu.com/newspage/data/landingsuper?context={"nid"%3A"news_9936602956111399490"}今年人形机器人大火,但是我更好的是电机和传感器的厂商,如果我是搞投资我不认为现在投机器人公司是什么明智的事情,因为以后哪个公司真的能生存下来或者真的能做强大......
  • 基于改进Bert模型的夸夸聊天机器人(1)数据预处理篇
    目录项目概述数据预处理数据爬取数据清洗构建敏感词字典树去除不相关问题和回答去除敏感词去除HTML标签去除标点符号去除emoji去除夸夸词过滤长度转换格式项目概述该项目构建一个基于UniLM的生成式夸夸botUniLM是在微软研究院在BERT的基础上,最新产出的预训练语言模型,被称为......
  • 人形机器人机械臂和灵巧手的空间感知、物体识别、具体操作的流程图
    下图来自NVIDIA官方的流程图,这里以此作为借鉴:https://developer.download.nvidia.com/images/isaac/isaac-manipulator-simplified-workflow.svg这个流程图的重点就是先对环境和物体进行感知,通过视觉传感器获得RGBD图像,然后判断其6DPose,在这一步的PoseEstimator完成后......
  • 关于聊天机器人的阅读笔记
    目录智能对话机器人的类型知识问答机器人任务型对话机器人闲聊机器人智能对话机器人的类型知识问答机器人主要应用场景包括智能客服、政务咨询、知识获取等其主要实现方式是预定义大量的问题和答案存储在知识库中,当用户发送问题时,该程序会对该问题和知识库的问题进行对比,并寻......
  • 机器人跳跃问题
    机器人正在玩一个古老的基于DOS的游戏。游戏中有N+1座建筑——从0到N编号,从左到右排列。编号为0的建筑高度为0个单位,编号为i的建筑高度为H(i)个单位。起初,机器人在编号为0的建筑处。每一步,它跳到下一个(右边)建筑。假设机器人在第k个建筑,且它现在的能量值......
  • NVIDIA机器人仿真环境 —— NVIDIA Isaac Sim 的headless模式/无头模式 —— 非桌面模
    相关:https://developer.nvidia.com/isaac-sim可视化模式,也就是在桌面系统上直接安装软件,具体地址:https://developer.nvidia.com/isaac-sim无头模式则是使用docker安装,该种情况下不使用可视化界面,所有操作均在docker容器内,地址:https://catalog.ngc.nvidia.com/orgs/nvid......