Abstract:
PURPOSE: A remote control system for managing a remotely operated robot under multiple frequency environment and a remote control method are provided to perform a current mission regardless of a frequency change by a remote robot when a communication frequency is changed by moving the remote robot to the other FAs(Frequency Area). CONSTITUTION: A remote control system(200) comprises base stations(102/1,102/2), a base station management unit(204), and a remote operation device(2000). Two or more robots(101,102) are connected to the base stations using multiple FAs. The base station management unit receives and updates a total communication traffic and present communication bandwidth of the base stations and changes the frequency band of the remote robot after saving task information and state information of the remote robot when the change of the frequency band of the remote robot is request. The remote operation device manages the base station management after saving the task information and state information of the remote robot and changing the frequency band of the base station management unit so that the task information and state information is recovered.
Abstract:
A mast driving apparatus for a mobile platform according to an embodiment of the present invention comprises a mast operated in the upright direction on a ground surface and containing a spherical protruded part which is protruded to the outside of a central portion; an upper mounting structure covering around the protruded part and including a ball joint which is formed to move relatively with the protruded part; and a lower mounting structure connected to the lower end part of the mast in order to adjust the position of the mast, and formed to move the lower end part thereof in the horizontal direction to the ground.
Abstract:
PURPOSE: A system for producing a formation of a robot and a method thereof are provided to autonomously produce various formations based on dispersed intelligence and ad-hoc networking, and to improve an operation effect of the robot. CONSTITUTION: A system(10) for producing a formation of a robot comprises a control system(100), a seed robot, and a follower robot. The seed robot selects one or more robots responding to a call signal as the follower robot, and produces an arbitrary formation through interlocking with the follower robot. The follower robot is transferred to a formation position point coordinate included to the call signal transmitted from the seed robot. The formation starting command includes information about the arbitrary formation and parameter setup information related to the formation. [Reference numerals] (100) Control system; (200) Communication network; (300) Ad-hoc network; (310,320,330,340,350) Robot
Abstract:
PURPOSE: A method and a system for managing multiple missions of an unmanned robot is provided to effectively found mission planning by simultaneously managing multiple unmanned robots. CONSTITUTION: A method for managing multiple missions of an unmanned robot is as follows. Missions are inputted from the outside and are saved in a database(S110). A mission management step(S120) is as follows. In order that multiple unmanned robots cooperate based on the missions saved in the database to implement the missions, mission planning is created or modified. The missions are transmitted to the unmanned robot according to the mission planning. State information is transmitted from the unmanned robot and performance of the missions is monitored.
Abstract:
PURPOSE: An autonomic movement apparatus for considering stability and improving moving efficiency and a method for setting a route thereof and an autonomic movement system are provided to design a wide area route from map data and timely revise the wide area route from the wide area route of being planned in consideration of geomorphic data, and efficiently sets the movement route of the autonomic movement apparatus in a wide region. CONSTITUTION: A remote control apparatus(20) transmits map data including altitude information to an autonomic movement apparatus(10). The autonomic movement apparatus generates a grid map for a wide area based on the map data, sets a wide area route from an initial point to a target point in the grid map for the wide area, generates the revised grid map of the wide area based on the data detected by scanning surroundings, and sets the revised route of the wide from the wide area.
Abstract:
본 발명은 지형감지용 센서로부터 획득한 지형정보에 기반하여 작성된 방향별 주행성 속도지도(DVGM, Directional Velocity Grid Map)를 통하여 최적경로를 설정하는 방법 및 장치에 관한 것이다. 상기 장치는 무인차량에 장착된 지형감지용센서로부터 획득한 특정영역의 지형정보 및 장애물정보를 활용하여 목표점 지향적이며 최단 이동시간을 고려하는 지역경로계획에 있어서, 1) 지형감지센서로부터 지형정보를 수집하는 지형정보획득모듈, 2) 상기 지리정보획득모듈에 의해 수집된 특정 영역에 대한 지리학적 정보 내에 장애물이 위치하고 있는 정보를 추출하는 장애물정보추출모듈, 3) 상기 지리정보획득모듈과 상기 장애물정보추출모듈로부터 추출된 지형정보에 기초하여 무인차량의 방향별 주행속도를 산출하고, 4) 상기 산출한 방향별 주행속도를 반영한 격자기반의 방향별 주행성 속도지도(DVGM)를 생성하는 주행성 속도지도(DVGM) 산출모듈, 상기 주행성 속도지도 산출모듈로부터 산출된 주행성 속도지도를 통하여 최적지역경로설정 알고리즘에 의한 경로를 산출하는 경로기획산출모듈을 포함하는 무인차량의 지역경로계획장치를 포함한다. 무인차량, 방향별 주행성 속도지도, 지역경로계획 방법, 퍼지추론