Abstract: An autonomous robot is controlled by the local robot information controller which is connected to a robot application network to which the transceiver to communicate with the autonomous robot is attached. The robot application network, a user LAN adaptive controller an information distribution manager and the third party information provider subsystem are linked with a public network. The information distribution manager acquires the information from the third party information provider subsystem on the schedule which is set by the user LAN adaptive controller. The local robot information controller receives the information distribution manager and convert it into the data that generates robot gestures. The robot performs actions in accordance to the gesture data received from the local robot information controller.

Abstract: A robot control apparatus (3) for controlling tasks to be executed by a plurality of robots which are capable of moving. The robot control apparatus (3) includes: a battery level determination device (330) which determines a battery level of each robot from a predetermined plurality of battery levels based on a remaining amount of charge in a battery of each robot; a task manager (340) which sets a task executive plan to be executed by each robot for the plurality of robots and rearranges the task executive plan for one or more tasks registered in the task executive plan in accordance with a process predetermined for each battery level; an executive instruction generator (350) which generates executive instructions requesting the robots to execute the tasks that are set in the task executive plans; and a transmitter which transmits the executive instructions to the robots.

Abstract: A face identification apparatus for identifying a face is designed to have a face region expectation measure for expecting his/her face region within the image; a pupil-candidate-point detection measure for converting the face region to an image of a standard size, making it a standard image, and detecting his/her right/left pupil candidate points out of a search region within the standard image; a reference data generation measure for generating a normalization image from the standard image with making it a standard a distance of the right/left pupil candidate points and making reference data for evaluating advisability of the face region from the normalization image; and a face region evaluation measure for obtaining a degree of approximation between the reference data and standard data prepared in advance and evaluating the advisability of the face region.

Abstract: A posture recognition apparatus recognizes instructions signified by postures of persons present in the surroundings, from images obtained with an image capture device. The posture recognition apparatus includes an outline extraction device that extracts an outline of a body which is a candidate for a person from the images; a distance calculation device that calculates a distance to the body being the candidate, from distance information of each pixel within the outline in the image; a search device that searches for a candidate for a hand of a person based on the outline and the distance to the body represented by the outline; and a posture determination device that determines an instruction corresponding to the relative position of the candidate for a hand and the outline, and outputs this determination result as a posture determination result.

Abstract: Disclosed is a robot controller which includes a map acquisition unit for obtaining map data on an active area where the routes are formed, a current location acquisition unit for obtaining current location data on current locations of the robots, a sub-goal acquisition unit for obtaining sub-goal data on sub-goals created on the routes, a collision possibility determination unit for determining whether two robots are likely to collide, a moving route change instruction unit for generating a moving route changing instruction signal, the moving route changing instruction signal for allowing at least one of the two robots to change its route, and a sending device for transmitting the moving route changing instruction signal to the corresponding one of the two robots. In this controller, the robots are controlled such that they move around without causing collisions.

Abstract: A face identification apparatus for identifying a face is designed to have a face region expectation measure for expecting his/her face region within the image; a pupil-candidate-point detection measure for converting the face region to an image of a standard size, making it a standard image, and detecting his/her right/left pupil candidate points out of a search region within the standard image; a reference data generation measure for generating a normalization image from the standard image with making it a standard a distance of the right/left pupil candidate points and making reference data for evaluating advisability of the face region from the normalization image; and a face region evaluation measure for obtaining a degree of approximation between the reference data and standard data prepared in advance and evaluating the advisability of the face region.

Abstract: An autonomous robot is controlled by the local robot information controller which is connected to a robot application network to which the transceiver to communicate with the autonomous robot is attached. The robot application network, a user LAN adaptive controller an information distribution manager and the third party information provider subsystem are linked with a public network. The information distribution manager acquires the information from the third party information provider subsystem on the schedule which is set by the user LAN adaptive controller. The local robot information controller receives the information distribution manager and covert it into the data that generates robot gestures. The robot performs actions in accordance to the gesture data received from the local robot information controller.

Abstract: An autonomous action robot which can turn its line of sight to face a person who calls out, can recognize the face of a person, and can perform various actions in response to commands. First, a sound emitted from a person or other sound source is detected by a sound detector, and the direction of the sound source is specified based on the detected sound. Then, a robot head section is controlled, and the imaging direction of the robot head section is moved to face the specified direction of the sound source. Next, an image is captured in the direction of the sound source, and a target image of a specific shape is extracted from the captured image. Then, the imaging direction of the robot head section is controlled and moved to face in the direction of the extracted target image.

Abstract: An apparatus 1 for controlling a movable robot recognizes the person to be followed up from an image taken by a camera C by an image processing portion 20, controls leg portions R1 of a movable robot A so as to keep a prescribed interval between the movable robot A and the person by a portion 50 for detecting an action, and notify the degree of the distance between the movable robot A and the person to the person by a voice from a voice outputting portion 62.

Abstract: In an image transmission system for a mobile robot that can move about and look for persons such as children separated from their parents in places where a large number of people congregate, a human is detected from the captured image and/or sound. An image of the detected human is cut out from a captured image, and the cut out image is transmitted to a remote terminal or a large screen. By thus cutting out the image of the detected human, even when the image signal is transmitted to a remote terminal having a small screen, the image of the detected human can be shown in a clearly recognizable manner. Also when the image is shown in a large screen, the viewer can identify the person even from a great distance. The transmitted image may be attached with various pieces of information such as the current location of the robot.

Abstract: In an image transmission system for a mobile robot that can move about and look for persons such as children separated from their parents in places where a large number of people congregate, a face image is cut out from a captured image of a detected human, and the cut out face image is transmitted to a remote terminal or a large screen. By thus cutting out the image of the face, even when the image signal is transmitted to a remote terminal having a small screen, the face image can be shown in a clearly recognizable manner. Also when the image is shown in a large screen, the viewer can identify the person even from a great distance. The transmitted image may be attached with various pieces of information such as the current location of the robot.

Abstract: To automate the work of recognizing a guest, check the appointment, notify a host of the arrival of the guest and conduct the guest to a designated place, a robot having a function to autonomously travel is equipped with camera/microphone for recognizing a guest at least according to image information. The system comprises management database adapted to communicate with the robot and equipped with an information database for identifying the recognized guest, and identifies the guest according to the information obtained from the camera/microphone and management database. The robot recognizes the guest from the image thereof, and the recognized guest is identified and verified by comparing the image of the visitor with the information contained in the database so that the robot can automatically conduct the guest to the designated meeting room according to the information of the appointment stored in the database.

Abstract: A posture recognition apparatus recognizes instructions signified by postures of persons present in the surroundings, from images obtained with an image capture device. The posture recognition apparatus includes an outline extraction device that extracts an outline of a body which is a candidate for a person from the images; a distance calculation device that calculates a distance to the body being the candidate, from distance information of each pixel within the outline in the image; a search device that searches for a candidate for a hand of a person based on the outline and the distance to the body represented by the outline; and a posture determination device that determines an instruction corresponding to the relative position of the candidate for a hand and the outline, and outputs this determination result as a posture determination result.

Abstract: An imaging device installed on an autonomously movable body which comprises an image-taking section for taking images of the surrounding environment, and an object detecting section for detecting objects and obstacles by processing the obtained images. The imaging device comprises: an image processing section to perform color detection of the images taken by the image-taking section; a white calibration plate for the image-taking section to perform color correction; and a calibration plate control section for moving the calibration plate into a field of view of the image-taking section, wherein it is determined whether color information which is sufficient to perform color detection is obtainable from the images taken by the image-taking section, and color correction is performed using the calibration plate when it is determined that the images taken by the image-taking section do not provide color information sufficient to perform color detection.

Abstract: The present invention provides an autonomous action robot which can turn its line of sight to face a person who calls out, can recognize the face of a person, and can perform various actions in response to commands. First, a sound emitted from a person or other sound source is detected by a sound detector, and the direction of the sound source is specified based on the detected sound. Then, a robot head section is controlled, and the imaging direction of the robot head section is moved to face the specified direction of the sound source. Next, an image is captured in the direction of the sound source, and a target image of a specific shape is extracted from the captured image. Then, the imaging direction of the robot head section is controlled and moved to face in the direction of the extracted target image.