DocumentCode
2993505
Title
Interactive remote robot operation framework for rescue robot
Author
Yong-Deuk Shin ; Jae-Han Park ; Ga-Ram Jang ; Jae-Shik Yoon ; Moon-Hong Baeg
Author_Institution
Appl. Robot Technol. R&D Group, Korea Inst. of Ind. Technol., Ansan, South Korea
fYear
2013
fDate
21-26 Oct. 2013
Firstpage
1
Lastpage
5
Abstract
Situation awareness and its ambiguities are some of the main problems for rescue robotics. In a disaster area, there are many obstacles and confined passages. The operator must perceive the environment and decide the robot motion based on limited sensor data. These make it difficult for the operator to perceive the situation. The operator should be aware of the relative size of the obstacles in comparison with the rescue robot and the direction of the robot to navigate the disaster area and avoid collisions with obstacles. In this paper, we propose a software framework to reduce these ambiguities. A 3D map constructed with a 3D laser scanner and a robot model in this map can reduce the ambiguities. We also estimate future robot paths using the control inputs. Then, we perform collision detection in the expected paths and their neighbors. The collision results are displayed in the reconstructed 3D map using iterative closest points(ICP) algorithm. In this paper, we define interactive remote robot operation(IRRO) by extracting the common properties for reducing the ambiguities and abstracting them. The IRRO is composed of two parts, a simulation and evaluation step for the future robot motion and an interactive user interface system.
Keywords
collision avoidance; interactive systems; rescue robots; user interfaces; 3D laser scanner; 3D map reconstruction; ICP algorithm; IRRO; collision avoidance; collision detection; confined passages; disaster area; interactive remote robot operation framework; interactive user interface system; iterative closest points algorithm; limited sensor data; obstacle avoidance; rescue robotics; robot model; robot motion; robot paths; situation awareness; software framework; Image reconstruction; Irrigation; Robot kinematics; Robot motion; Robot sensing systems; Three-dimensional displays; Collision detection; Feasibility for future robot motion; Situation awareness;
fLanguage
English
Publisher
ieee
Conference_Titel
Safety, Security, and Rescue Robotics (SSRR), 2013 IEEE International Symposium on
Conference_Location
Linkoping
Print_ISBN
978-1-4799-0879-0
Type
conf
DOI
10.1109/SSRR.2013.6719339
Filename
6719339
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