Abstract:
A controller of a mobile robot that moves an object such that the position of a representative point of the object and the posture of the object follow a desired position and posture trajectory is provided. The desired posture trajectory of the object includes the desired value of the angular difference about a yaw axis between a reference direction, which is a direction orthogonal to the yaw axis of the object, and the direction of the moving velocity vector of the representative point of the object, defined by the desired position trajectory. The controller has a desired angular difference setting means which variably sets the desired value of the angular difference according to at least a required condition related to a movement mode of the object. This allows the object to be moved at a posture which meets the required condition of the movement mode.
Abstract:
A robot capable of performing appropriate movement control while reducing arithmetic processing for recognizing the shape of a floor. The robot sets a predetermined landing position of steps of the legs on a present assumed floor, which is a floor represented by floor shape information used for a current motion control of the robot, during movement of the robot. An image projection areas is set, and is projected on each image captured by cameras mounted on the robot for each predetermined landing position in the vicinity of each of the predetermined landing positions. Shape parameters representing the shape of an actual floor partial area are estimated, forming an actual floor whose image is captured in each partial image area, of based on the image of the partial image area generated by projecting the set image projection area on the images captured by the cameras for each partial image area.
Abstract:
A mobile apparatus or the like capable of moving or acting while surely preventing contact with an object such as a human being, by avoiding the situation where the object inappropriately changes its behavior for the purposes of preventing contact with the mobile apparatus, is provided. According to the robot (1) of the present invention, a path that can prevent contact with the selected third spatial element satisfying the requirement regarding the size in the element space (QS), among a plurality of third spatial elements (Q3i) arranged around the second spatial element (Q2), is set as a target path (Rk+1). This allows the robot (1) to move in accordance with a consistent rule that is modified in response to the width of the clearance between the object (2) and the boundary of the passable region.
Abstract:
A mobile apparatus for moving or acting while avoiding contact with an object, and reducing a change in the behavior of the object. It is determined whether there is a first spatial element that satisfies a contact condition that there is a possibility of contact with a reference spatial element on a discriminant plane including at least part of a representative point trajectory of a robot. If there is a first spatial element that satisfies the contact condition, a second action plan element involving changing the representative point trajectory is assumed, and it is determined whether there is a first spatial element that satisfies the contact condition on a new discriminant plane including at least part of the changed representative point trajectory. If there is no first spatial element that satisfies the contact condition on the new discriminant plane, the assumed new “second action plan element” is set.
Abstract:
A target object detection system for detecting a target object using a detector and a tag on the target object; the tag includes a radio wave receiver receiving radio wave from the detector; a light receiver receiving a light signal from the detector; a receipt signal generator generating a receipt signal; and a transmitter which transmits the receipt signal to the detector; and the detector includes a radio wave transmitter transmitting radio wave to the surrounding area; a receiver receiving the receipt signal from the tag; a light emitter irradiating the light signal to a search region; a controller controlling the radio wave transmitter, the receiver, and the light emitter; and a target position measuring unit measuring a distance to the target object based on the intensity of the receipt signal, and regarding the irradiation direction of the light signal from the light emitter as the direction of the target-object.
Abstract:
A follow robot is disclosed. The follow robot comprises body, head, limbs and muscles same as or proportional with human's body, head, limbs and muscle in shape, size, Specific Gravity (SG) and Center of Gravity (CG). The follow robot's joints are same as or proportional with human's joints and can turn around to reach same angle as human's joints. The follow robot's head, body, limbs, bones and joints possess the same or proportional support ability as human's head, body, limb, bones and joints, and are droved by artificial muscle, step motor, hydraulic pressure component. Many position and distance sensors are mounted on or around a man, which measure any action of the man continuously. These movement signals are collected by a Personal computer (PC) and transmitted to the follow robot. Following these signals, the follow robot repeats every movement of the man, acts exactly same as the man. Many sensors are also mounted on the follow robot; they are eyes, ears, skin and noses of the follow robot. Any thing the follow robot seeing, hearing, feeling and smelling will be converted to digital signal and transmitted to the man by the PC. The man can see, hear, feel and smell any thing around the fellow robot real timely, and respond to it immediately.
Abstract:
A target object detection apparatus for identifying a target object by using at least a camera and a wireless tag provided on the target object which exists outside of the target object detection apparatus, comprising: a target detector for reading a first identification information documented in the wireless tag; an image processor for extracting a first image information of the target object imaged by the camera; a personal identifier for identifying an imaged target object by comparing the first image information extracted by the image processor and a second image information specific to the target object; and an integration processor for determining a third identification information of the target object based on at least a second identification information identified by the personal identifier and the first identification information read by the target detector.
Abstract:
The control apparatus for a movable robot comprises: environment information acquisition means (such as video camera 3 and microphone 4); a current position detecting means (15); a map storage (7); a control parameter storage (9) for storing control parameters adjusted to different environments; and control means (11, 12) for determining a current position of the robot on the map data based on a signal from the current position detecting means, retrieving control parameters suitable for the current position from the parameter storage, and controlling the environment information acquisition means or actuators for moving the robot by using the retrieved control parameters.
Abstract:
A robot apparatus which may be turned to a sound source direction by a spontaneous whole-body concerted operation. With the possible range of rotation of the neck unit of a robot apparatus 1 of nullYnull and with the relative angle of the direction of a sound source S to the front side of the robot apparatus 1 of Xnull, the entire body trunk unit of the robot apparatus 1 is rotated through (XnullY)null, using the leg units, while the neck joint yaw axis of the robot apparatus is rotated through Ynull to the direction of the sound source S, so that the robot apparatus is turned to the direction of the sound source S. If the robot apparatus 1 has found the face of a person already known to the robot apparatus through previous learning and has verified that the person has accosted the apparatus, the body trunk unit is rotated through Ynull, at the same time as the neck joint yaw axis is rotated through nullYnull to eliminate neck distortion as the apparatus is gazing at the object, so that the apparatus may face the sound source S aright by a spontaneous operation.
Abstract:
A distance measuring apparatus is disclosed, which measures the entire image of a target object by employing a light-section method within a short time, without assigning any specific feature to light beams having a beam form obtained by passing through slits. The apparatus comprises a device for simultaneously emitting such light beams; first and second image taking devices for taking an image obtained by light reflected by the target object, where the distance between the first image taking device and the beam emitting device is relatively short while the distance between the first image taking device and the beam emitting device is relatively long; a section for estimating the distance to the target object based on the image taken by the first image taking device; and a section for determining the distance based on the estimated result and on the image taken by the second image taking device.