Abstract:
The present invention relates to a module type portable robot controller which can be commonly used in various types of robots (100) with different functions and performance only through minimum change in each module unit, by including local area network unit for enabling local transmission and reception among components forming a robot controller, and forming a compatible modularization. To this end, the module type portable robot controller comprises a manipulation block (10) which is inputted with control commands of a robot (100) and transmitting them; a display and processing block (20) which receives and displays executed information from the robot (100) and the control commands inputted in the manipulation block (10), and transmits them; a communications block (30) which receives the control commands from the display and processing block (20), transmits them to the robot (100), receives the executed information from the robot (100), and transmits it to the display and processing block (20). In addition, the manipulation block (10), the display and processing block (20), and the communications block (30) include a power supply (17, 27, 37) respectively for independently supplying power and modularizing it.
Abstract:
PURPOSE: A position estimating system of an autonomous vehicle using a CDGPS(Carrier-phase Differential GPS), and an autonomous vehicle comprising the same and a position estimating method of the same are provided to collect position information of the autonomous vehicle during delay time or cut-out time. CONSTITUTION: A carrier phase correction GPS(Global Positioning System) part(110) is formed to grasp current position through communication with a base station. A GPS part(120) is formed to grasp the current position by receiving a signal from a GPS satellite. A reception conversion part(130) monitors a first signal outputted from the CDGPS part, and is converted to receive a second signal outputted from the GPS part when the first signal is cut out. A position estimation part estimates the current position of an autonomous vehicle on the basis of the first signal or the second signal. [Reference numerals] (130) Conversion part; (140) Location estimation part; (150) Time delay detection part; (170) Integration part
Abstract:
An unmanned ground vehicle of the present invention includes a reference velocity generating block (30) for determining a slope, a first factor generating block (40) for determining a curvature, and a second factor block (50) for determining a stopping distance, and receives a final velocity (Vel), as a velocity command every moment, calculated by a fusion processing block (60) to which the results of processing of the other blocks, all the slope (sl), curvature (k), and stopping distance (sd), are inputted, thereby ensuring safety against risk factors during off-road driving.
Abstract:
PURPOSE: An autonomous driving system for an autonomous vehicle and a drivable route generating method using the same are provided to reduce a load of a CPU in an SBC(Single Board Computer) and autonomously drive a vehicle on a paved road, an unpaved road, and plains at high speed by reducing calculation amounts. CONSTITUTION: An autonomous driving system includes a multi-scan radar(110), a calculation unit(120), and an autonomous driving processing device(130). The multi-scan radar collects distance data from a target point by irradiating a laser in first and second routes with different orientation angles from a horizontal plane. The calculation unit determines a drivable region by calculating the slope of the target point based on the orientation angles and the distance data and calculates a drivable route from boundary values of the drivable region. The autonomous driving processing device controls the autonomous movement of the vehicle based on the drivable route. [Reference numerals] (110) Multi-scan radar; (121) Distance data receiving unit; (122) First processing unit(driving area extraction); (123) Second processing unit(drivable path point calculation); (124) Transmitting unit(virtual 2D laser radar data); (130) Autonomous driving processing device
Abstract:
PURPOSE: An apparatus and a method for providing obstacle information for an autonomous mobile vehicle are provided to support the autonomous movement of the vehicle by verifying the kinds of obstacles on the driving path of the vehicle. CONSTITUTION: A laser distance sensor(211) detects obstacles located at the front side of an autonomous mobile vehicle by being installed at the front center of the vehicle. A sensor driving unit(213) drives the laser distance sensor at high angles. A controller(212) controls the driving of the sensor driving unit. A plurality of radars(220) detects the obstacles by being installed at the front lower side of the vehicle. An operating unit(230) implements data processing by being installed in the vehicle.
Abstract:
PURPOSE: A high speed track merging method is provided to perform high speed clustering through a nearest measured value among measured values which is entered in a validation gate. CONSTITUTION: A unique number is given to detection information obtained from a sensor and a validation gate of each track is calculated(S310). A unique number of nearest detection information among detection information which is entered in the validation gate of each track is added to information property of each track(S320). Tracks in which the unique number of the nearest detection information is same are clustered from information property of each track(S330). Distance between the tracks which are clustered based on a selected track is calculated(S350). Track merging is performed(S360). [Reference numerals] (S310) A unique number is given; (S320) The nearest unique number is added; (S330) Track clustering; (S340) A track in which a determinant of covariance is the smallest is established; (S350) The distance between tracks is calculated; (S360) Track merging