Abstract:
The present invention relates to an apparatus and a method for tracking an atypical object based on selected feature points and selectively-expected course estimation based on image, which comprises (a) a step of detecting an object; (b) a step of setting up an object area and a peripheral area by dividing an area based on the detected object into the object area and the peripheral area; (c) a step of extracting feature points from the object and a peripheral area, respectively; (d) a step of judging discernment of object feature points based on the feature points extracted from the object and the peripheral area; (e) a step of generating and updating a change map of the peripheral area based on the extracted and updated feature points of the object and the feature area; (f) a step of limiting and extracting a transferable area of the object based on the degrees of the changing feature points in the peripheral area; and (g) a step of tracking the object inside the limited and extracted transferable area of the object by adaptively selecting the feature points of the object which is determined to have discernment.
Abstract:
The present invention relates to an image detection method for behavior recognition and abnormal situation automatic detection based on an event comprises the following steps of: (a) detecting an object; (b) tracking the detected object; (c) analyzing the behavior of the tracked object; (d) recognizing whether the object behaves typically or atypically based on the behavior analysis; (e) extracting the order of situation/activity priorities from the typical and atypical behavior recognition result according to a predetermined rule, and setting countermeasures according to the order of priorities; and (f) activating an alarm for each countermeasure based on the set countermeasures according to the order of priorities, wherein the atypical behavior recognition is determined based on a relationship between consecutive behaviors.
Abstract:
The present invention relates to an apparatus and a method for storing brain activity data using image and distance information, which are capable of automatically correct noises that are generated when a subject moves in a bio-signal detection system. To this end, the apparatus for storing brain activity data using image and distance information is configured to comprise: a brain activity measuring sensor for measuring brain activity; an image measuring unit for measuring image and distance information; a movement detecting unit for detecting movement of the subject using the image and distance information measured by the image measuring unit; and a brain activity data storing unit for storing brain activity data measured by the brain activity measuring sensor, wherein the brain activity data storing unit stores the brain activity data excluding a part of the brain activity data in a range where the movement of the subject is detected by the movement detecting unit. [Reference numerals] (AA) Subject;(BB) Measure image and distance information;(CC) Measure brain waves;(DD) sense a movement;(EE) Trigger generated;(FF) Store the trigger;(GG) Store the brain waves;(HH) Eliminate noises
Abstract:
The present invention relates to an apparatus and a method for correcting the position of an MEG sensor and the position of the head of a person under test by using image and distance information and, more in detail, to an apparatus for enhancing the accuracy of measured MEG data by correcting automatically the position of the sensor and the head of the person under test in the case that the MEG sensor attached to the head of the person under test moves because the person moves. For this, the apparatus for correcting the position of an MEG sensor and the position of the head of a person under test by using image and distance information comprises: the MEG sensor for measuring activities of the brain; an initial position storing part for prestoring the position of the head of the person under test relative the position of the MEG sensor at an initial stage of sensing in the MEG sensor; an image measuring part for measuring the image and distance information; a position correcting part for detecting a movement of the person under test by using the image and the distance information measured from the image measuring part and correcting the position of the MEG sensor based on the position of the head relative to the position of the MEG sensor; and an MEG data storing part for storing MEG data measured from the MEG sensor. [Reference numerals] (10) MEG sensor;(20) Image measuring part;(30) Initial position storing part;(40) Trigger generating part;(50) Position correcting part;(60) MEG data storing part;(70) Display part
Abstract:
PURPOSE: A method for generating a nip point by range recognition and a computer-readable recording medium including a program for the method are provided to recognize and grip objects in various shapes in the same range by generating a nip point by recognizing the objects in the same range. CONSTITUTION: A CPU(Central Processing Unit) explores an object gripping direction after obtaining a 3D outline from image data(S10,S20). The CPU extracts a gripping cue for each set gripping cue and generates a candidate gripping area for each gripping cue(S30). The CPU selects one of candidate pairs in an optimal gripping area after the points of nip point candidate pairs are extracted(S40,S50). The CPU generates a nip point manifold(S60). [Reference numerals] (AA) Start; (BB) End; (S10) Step of obtaining a 3D outline from image data; (S20) Step of searching a basic or function grasping type; (S30) Step of generating a candidate grasping area; (S40) Step of extracting grasping point candidate pairs; (S50) Step of selecting a grasping point pair; (S60) Step of generating a grasping point manifold;
Abstract:
본 발명은 거리센서로부터 얻은 주변환경의 거리정보를 바탕으로 한 이동로봇탐사시스템을 이용한 탐사방법에 관한 것으로, 이동 이동로봇탐사시스템이 거리 센서를 통해 지형 정보를 획득하여, 스스로 위상 지도를 생성하면서 이동하는 탐사 방법에 관한 것이다. 본 발명에 따른 거리센서로부터 얻은 주변환경의 거리정보를 바탕으로 한 이동로봇탐사시스템을 이용한 탐사방법은 거리센서부로부터 주위 환경의 거리 정보를 입력을 받는 거리 정보 입력 단계와, 지도생성부가 거리 정보 입력 단계에서 입력된 정보에서 노드 정보를 획득하는 노드 추출 단계와, 지도 생성부의 노드 추출단계에서 입력된 노드 정보 중에서 일차연결노드(first child node)를 찾아내는 일차연결노드(first child node) 추출 단계와 일차연결노드(first child node) 중에서 컨케이브노드(concave node)를 찾아내는 컨케이브노드(concave node) 추출 단계와, 일차연결노드(first child node)에서 위상지도로 사용할 노드들을 선정하고 위상지도를 생성하는 전역적 위상지도 생성 단계와 위상지도에서 이동로봇탐사시스템이 이동할 노드(node)를 선택하는 타겟포인트(ta rget point) 선정 단계를 포함한다. 이동로봇탐사시스템, 위상지도, 컨케이브노드(concave node), 탐 사(exploration), 거리센서
Abstract:
A self-location estimating method of a robot based on surrounding environment information is provided to enable a movable robot to recognize individual objects through a vision sensor, analyze the recognized object based on a given map and then estimate its position. A camera obtains images around a robot(S110). A location calculating unit recognizes individual objects within the obtained images. Camera coordinate position values of a local feature point of each individual object and a local feature point of the surrounding environment including the individual objects are generated(S120). The position of the robot is estimated based on the camera coordinate position values of the local feature point of the surrounding environment(S130).