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Mobile platform path planning algorithm design
Smolinský, Michal ; Kůdela, Jakub (referee) ; Holoubek, Tomáš (advisor)
The aim of this master's thesis is to create a program of selected laboratory tasks for the mobile robot TurtleBot3 Burger. These tasks are the mapping of an unknown environment and the design of a path planning algorithm using the ROS framework. The first chapters of the work, which describe the field of mobile robotics, the TurtleBot3 Burger robot, the Robotic Operating System, the used path planning algorithms, and The ROS Navigation Stack, are devoted to clarifying the necessary knowledge. After the robot is put into operation, the mapping and path planning task is created. The following chapter is dedicated to verifying the functionality of both tasks, which also includes a comparison of the used path planning algorithms. The evaluation of the application of the algorithms on the TurtleBot3 Burger platform, the benefits of the proposed algorithms and their practical use in a real environment is described in the final chapter of this work.
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Turtlebot3 Burger mobile robotic platform
Lisník, Petr ; Parák, Roman (referee) ; Holoubek, Tomáš (advisor)
This bachelor's thesis focuses on the design and implementation of a control program for the mobile robotic platformTurtleBot3 Burger. The theoretical part of the thesis is devoted to the research of mobile robotics, the description of the mobile robotic platform and the Robotic Operating System (ROS) including its tools and the Gazebo simulation environment. The practical part includes the step-by-step design of the control program, including the build and commissioning of the robot, the design of the control program using computer vision, testing in the Gazebo simulation environment, and subsequent testing on a real robot in the laboratory.
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Mapping a confined area using a mobile robot
Dolák, Šimon ; Nevoral, Tomáš (referee) ; Holoubek, Tomáš (advisor)
This thesis focuses on the setup of the TurtleBot3 Burger robot in the ROS (Robot Operating System) environment and the development of assigned laboratory tasks. One of the tasks involves navigating the robot in a closed unknown environment, utilizing sensors and algorithms for mapping and localization. The second task involves reading QR codes. Both programs are developed in the simulation environment Gazebo and applicable to a real robot. The thesis also includes a brief review of mobile robots and the Robot Operating System.
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