【仿真】Ros by example1 控制底座、导航、路径规划、SLAM

最新推荐文章于 2025-05-09 21:23:09 发布
最新推荐文章于 2025-05-09 21:23:09 发布
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本文链接：https://blog.youkuaiyun.com/try_again_later/article/details/82926082
本文档介绍了如何通过ROS控制Turtlebot底座，包括直接发布命令、从ROS节点发布Twist消息及使用测程法前进。此外，详细探讨了导航、路径规划和SLAM，如move_base包的配置与应用，gmapping和acml在地图绘制与定位中的作用。通过实际操作，帮助读者理解ROS在机器人自主移动中的应用。

摘要生成于 C知道 ，由 DeepSeek-R1 满血版支持， 前往体验 >

为了快速浏览教程，先从ArbotiX虚拟器开始。具体代码看ros-by-example 1,主要讲述实现过程。

首先要启动一个虚拟的Turtlebot

$ roslaunch rbx1_bringup fake_turtlebot.launch

另一个终端，打开RViz可视化机器人运动

$ rosrun rviz rviz -d `rospack find rbx1_nav`/sim.rviz

一、控制底座

1、直接发布命令

先来看下现有的话题

基控制器节点订阅/cmd_vel话题,类型是geometry_msgs/Twist

然后把Twist消息翻译成发动机信号，使轮子转动。二维平面差速驱动机器人只用到了线速度x和角速度z部分。

$ rostopic pub -r 10 /cmd_vel geometry_msgs/Twist '{linear: {x: 0.1, y:
0, z: 0}, angular: {x: 0, y: 0, z: -0.5}}'

想要机器人停下来，发布空消息即可

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camera.............................................................................................112 4.5.3 Adding the camera to the torso and base...............................................................114 4.5.4 Viewing the transform tree with torso and camera................................................115 4.5.5 Using a mesh for the camera.................................................................................116 4.5.6 Using an Asus Xtion Pro instead of a Kinect........................................................118 4.6 Adding a Laser Scanner (or other Sensors)......................................................119 4.6.1 Modeling the laser scanner....................................................................................119 4.6.2 Attaching a laser scanner (or other sensor) to a mesh base...................................120 4.6.3 Configuring the laser node launch file..................................................................121 4.7 Adding a Pan and Tilt Head..............................................................................122 4.7.1 Using an Asus Xtion Pro instead of a Kinect........................................................124 4.7.2 Modeling the pan-and-tilt head..............................................................................124 4.7.3 Figuring out rotation axes......................................................................................127 4.7.4 A pan and tilt head using meshes on Pi Robot......................................................128 4.7.5 Using an Asus Xtion Pro mesh instead of a Kinect on Pi Robot...........................129 4.8 Adding One or Two Arms................................................................................129 4.8.1 Placement of the arm(s).........................................................................................130 4.8.2 Modeling the arm...................................................................................................130 4.8.3 Adding a gripper frame for planning.....................................................................133 4.8.4 Adding a second arm.............................................................................................134 4.8.5 Using meshes for the arm servos and brackets......................................................136 4.9 Adding a Telescoping Torso to the Box Robot.................................................138 4.10 Adding a Telescoping Torso to Pi Robot........................................................139 4.11 A Tabletop One-Arm Pi Robot.......................................................................140 4.12 Testing your Model with the ArbotiX Simulator............................................142 4.12.1 A fake Box Robot................................................................................................142 4.12.2 A fake Pi Robot...................................................................................................145 4.13 Creating your own Robot Description Package..............................................145 4.13.1 Using rosbuild......................................................................................................145 4.13.2 Using catkin.........................................................................................................146 4.13.3 Copying files from the rbx2_description package...............................................147 4.13.4 Creating a test launch file....................................................................................147 5. 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Arm Navigation using MoveIt!.................................................................251 11.1 Do I Need a Real Robot with a Real Arm?.....................................................252 11.2 Degrees of Freedom.......................................................................................252 11.3 Joint Types.....................................................................................................253 11.4 Joint Trajectories and the Joint Trajectory Action Controller.........................254 11.5 Forward and Inverse Arm Kinematics............................................................257 11.6 Numerical versus Analytic Inverse Kinematics..............................................258 11.7 The MoveIt! Architecture...............................................................................258 11.8 Installing MoveIt!...........................................................................................260 11.9 Creating a Static URDF Model for your Robot .............................................261 11.10 Running the MoveIt! Setup Assistant...........................................................262 11.10.1 Load the robot's URDF model...........................................................................263 11.2.2 Generate the collision matrix.............................................................................264 11.10.3 Add the base_odom virtual joint.......................................................................264 11.10.4 Adding the right arm planning group................................................................265 11.10.5 Adding the right gripper planning group...........................................................269 11.10.6 Defining robot poses..........................................................................................271 11.10.7 Defining end effectors.......................................................................................273 11.10.8 Defining passive joints......................................................................................273 11.10.9 Generating the configuration files.....................................................................273 11.11 Configuration Files Created by the MoveIt! Setup Assistant........................275 11.11.1 The SRDF file (robot_name.srdf)......................................................................275 11.11.2 The fake_controllers.yaml file...........................................................................276 11.11.3 The joint_limits.yaml file..................................................................................277 11.11.4 The kinematics.yaml file...................................................................................278 11.12 The move_group Node and Launch File.......................................................280 11.13 Testing MoveIt! in Demo Mode...................................................................280 11.13.1 Exploring additional features of the Motion Planning plugin...........................284 11.13.2 Re-running the Setup Assistant at a later time..................................................285 11.14 Testing MoveIt! from the Command Line....................................................286 11.15 Determining Joint Configurations and End Effector Poses...........................289 11.16 Using the ArbotiX Joint Trajectory Action Controllers................................292 11.16.1 Testing the ArbotiX joint trajectory action controllers in simulation...............292 11.16.2 Testing the ArbotiX joint trajectory controllers with real servos......................300 11.17 Configuring MoveIt! Joint Controllers.........................................................301 11.17.1 Creating the controllers.yaml file......................................................................302 11.17.2 Creating the controller manager launch file......................................................304 11.18 The MoveIt! API..........................................................................................305 11.19 Forward Kinematics: Planning in Joint Space..............................................306 11.20 Inverse Kinematics: Planning in Cartesian Space.........................................314 11.21 Pointing at or Reaching for a Visual Target..................................................322 11.22 Setting Constraints on Planned Trajectories.................................................324 11.22.1 Executing Cartesian Paths.................................................................................324 11.22.2 Setting other path constraints............................................................................330 11.23 Adjusting Trajectory Speed..........................................................................333 11.24 Adding Obstacles to the Planning Scene......................................................337 11.25 Attaching Objects and Tools to the Robot....................................................346 11.26 Pick and Place..............................................................................................348 11.27 Adding a Sensor Controller..........................................................................360 11.28 Running MoveIt! on a Real Arm..................................................................363 11.28.1 Creating your own launch files and scripts.......................................................364 11.28.2 Running the robot's launch files........................................................................364 11.2.3 Forward kinematics on a real arm.....................................................................365 11.28.4 Inverse kinematics on a real arm.......................................................................366 11.28.5 Cartesian paths on a real arm.............................................................................367 11.28.6 Pick-and-place on a real arm.............................................................................367 11.28.7 Pointing at or reaching for a visual target..........................................................367 11.29 Creating a Custom Fast IK Plugin................................................................368 12. Gazebo: Simulating Worlds and Robots.................................................375 12.1 Installing Gazebo............................................................................................376 12.2 Hardware Graphics Acceleration....................................................................377 12.3 Installing the ROS Gazebo Packages..............................................................378 12.4 Installing the Kobuki ROS Packages..............................................................379 12.5 Installing the UBR-1 Files..............................................................................379 12.6 Using the Gazebo GUI...................................................................................379 12.7 Missing Model Bug in Gazebo 1.9.................................................................381 12.8 Testing the Kobuki Robot in Gazebo..............................................................383 12.8.1 Accessing simulated sensor data.........................................................................385 12.8.2 Adding safety control to the Kobuki...................................................................389 12.8.3 Running the nav_square.py script from Volume 1..............................................391 12.9 Loading Other Worlds and Objects................................................................392 12.10 Testing the UBR-1 Robot in Gazebo............................................................393 12.10.1 UBR-1 joint trajectories.....................................................................................394 12.1.2 The UBR-1 and MoveIt!....................................................................................395 12.11 Real Pick-and-Place using the UBR-1 Perception Pipeline..........................397 12.11.1 Limitations of depth cameras............................................................................398 12.11.2 Running the demo..............................................................................................399 12.11.3 Understanding the real_pick_and_place.py script.............................................404 12.12 Running Gazebo Headless + RViz...............................................................407 13. Rosbridge: Building a Web GUI for your Robot...................................411 13.1 Installing the rosbridge Packages...................................................................411 13.2 Installing the mjpeg_sever Package................................................................412 13.3 Installing a Simple Web Server (mini-httpd)..................................................415 13.4 Starting mini-httpd, rosbridge and mjpeg_server............................................416 13.5 A Simple rosbridge HTML/Javascript GUI....................................................417 13.6 Testing the GUI with a Fake TurtleBot..........................................................420 13.7 Testing the GUI with a Real Robot.................................................................420 13.8 Viewing the Web GUI on another Device on your Network..........................421 13.9 Using the Browser Debug Console.................................................................421 13.10 Understanding the Simple GUI.....................................................................423 13.10.1 The HTML layout: simple_gui.html.................................................................423 13.1.2 The JavaScript code: simple_gui.js...................................................................428 13.11 A More Advanced GUI using jQuery, jqWidgets and KineticJS..................438 13.12 Rosbridge Summary.....................................................................................443 Appendix: Plug and Play USB Devices for ROS: Creating udev Rules......445 13.13 Adding yourself to the dialout Group...........................................................445 13.14 Determining the Serial Number of a Device.................................................446 13.15 UDEV Rules.................................................................................................447 13.16 Testing a UDEV Rule...................................................................................448 13.17 Using a UDEV Device Name in a ROS Configuration File..........................448
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