Abstract:
The invention relates to method for navigating within a navigation area (2), wherein a plurality of navigation tags (1) has been mounted at predetermined positions within the navigation area (2). To solve the object of the invention to provide a method and system for accurate and flexible navigating in various types of navigation scenarios, it is proposed that the method comprises the steps of: determining a sequence of navigation tags (1), which are associated with a desired route within the navigation area (2), based on the positions of the navigation tags (7) and on topographic information (8) on the navigation area (2); and navigating said route by passing navigation tags (1) of said sequence of navigation tags, whereby passing of a navigation tag is acknowledged (12, 13). The invention further relates to a system and a computer program product for navigating within a navigation area (2).
Abstract:
A mobile robot guest for interacting with a human resident performs a room-traversing search procedure prior to interacting with the resident, and may verbally query whether the resident being sought is present. Upon finding the resident, the mobile robot may facilitate a teleconferencing session with a remote third party, or interact with the resident in a number of ways. For example, the robot may carry on a dialogue with the resident, reinforce compliance with medication or other schedules, etc. In addition, the robot incorporates safety features for preventing collisions with the resident; and the robot may audibly announce and/or visibly indicate its presence in order to avoid becoming a dangerous obstacle. Furthermore, the mobile robot behaves in accordance with an integral privacy policy, such that any sensor recording or transmission must be approved by the resident.
Abstract:
The present invention concerns a mission system (1) that comprises at least an operator station (11) suitable for being operated by a human operator, at least a mission agent (12, 13) suitable, in use, for being used to carry out an operational mission and a mission control system (2). The mission control system (2) comprises a server mission software module (21) operatively coupled to the operator station (11) and a client mission software module (22) operatively coupled to the mission agent (12, 13). The server mission software module (21) is suitable, in use, for being operated by a human operator to define the operational mission by means of a mission plan comprising at least one mission activity to be carried out and at least one operating rule for carrying out the mission activity. The server mission software module (21) is also able, in use, to communicate the mission plan to the mission agent (12, 13). The client mission software module (22) comprises at least a behaviour rule to be respected in order to carry out the mission activity and is able, in use, to receive the mission plan and to make the mission agent (12, 13) carry out the mission activity according to the operating rule and the behaviour rule.
Abstract:
The present invention relates to a vehicle system 10 which comprises a ground vehicle 12 and a base unit 14. A drive mechanism 16 is capable of driving the vehicle in each of a plurality of orientations relative to the ground surface 18. An image generator 20 receives an optical image and generating an image signal corresponding to the optical image. The image signal is transmitted to the base unit 14 so that the optical image can be displayed on a display 22 of the base unit. An orientation sensor 34 senses the orientation of the vehicle and generates an orientation signal corresponding to the orientation. Processing means 26 of base unit 14 processes the image signal according to the orientation signal so that an upright optical image can be displayed by the display 22 independent of an orientation of said vehicle.
Abstract:
A method of responding to environmental change to build an environment map of a mobile apparatus and an apparatus thereof are disclosed. The apparatus includes a traveling unit traveling a mobile apparatus according to a command, a distance measuring unit measuring a distance from the mobile apparatus to a moving object, an environment map-generating unit generating an environment map based on a measured distance, a moving object detecting unit detecting the moving object moved after generating the environment map by comparing a distance from the mobile apparatus to the moving object with the newly measured distance, and a controlling unit updating the environment map according to the command by selectively applying changed environment information containing the moving object to the built environment map when the moving object is detected. Thus, the changed environmental information can be rapidly and precisely applied to build the environment map.
Abstract:
The present invention relates to a robot system which includes an autonomous mobile robot as well as to the autonomous mobile robot. In the system in which monitoring is performed using the autonomous mobile robot which travels along a predetermined path, the present invention can reduce the interval between the time when a user requests transmission of images or the like and the time when the user obtains the images. The autonomous mobile robot travels along a predetermined path at predetermined times, a camera takes photographs at predetermined locations during the travel along the predetermined path, images taken by the camera are stored, and the stored images are sent to a requesting cell phone or the like in response to a transmission request from the cell phone or the like.
Abstract:
An indoor environmental control system having an indoor environmental control device (40) to control at least one indoor environment, including a mobile sensor (10) being movable and comprising a wireless transmitting/receiving part (22) to wirelessly transmit/receive information, an indoor environmental sensor (12) to sense the indoor environment, and a controller (24) to transmit the information on the indoor environment sensed by the indoor environmental sensor through the wireless transmitting/receiving part; the indoor environmental control device further including a control server (30) receiving the information transmitted from the mobile sensor so as to control the indoor environmental control device on the basis of the received information.
Abstract:
An apparatus configured to obtain, process, and relay data to a user in a coherent and useful manner. An active fiducial (200) is equipped with an interface for receiving and transmitting data. The fiducial may transmit its position using a satellite-based position sensing device (204) such as a GPS. Active fiducials may also be equipped with battery power pack regenerated with solar cells (206). Similarly, the fiducials can be equipped with at least one video camera (208) or other device having a focal plane array and a computer software system, configured to recognize shapes. The fiducials may also be equipped with inductive coils (210) or other means for sensing metal containing compounds. The active fiducials may be equipped with a gas chromatograph (212). The active fiducials may use a variety of propulsion means including motor driven tracks (214), motor driven wheels (216), propellers, or other device or a combination of devices.
Abstract:
Die Erfindung beschreibt ein Orientierungs- und Kartenerstellungsverfahren für mobile Einheiten, die sich in einer unbekannten Umgebung bewegen. Zur Korrektur der Position der mobilen Einheit in der Umgebungskarte und der Lage einer Landmarke in der Umgebungskarte wird von einer bestimmten Position aus aufgrund der Bewegungshistorie ein bestimmter Abstand zur Landmarke prädiziert, und aufgrund der aktuellen Position ein bestimmter Abstand zur Landmarke gemessen. Dieser Unterschied, der zwischen der prädizierten und der gemessenen Entfernung zur Landmarke auftritt, wird als Systemfehler bezeichnet. Der Systemfehler wird nun in Kenntnis der Unsicherheit, die bei der Positionsbestimmung der mobilen Einheit und die bei der Lagebestimmung der Landmarke auftritt, in deren Verhältnis aufgeteilt und zur Korrektur der Position der mobilen Einheit und der Lage der Landmarke in der Umgebungskarte verwendet. So können die genannten Unsicherheiten während der Bewegung der mobilen Einheit verringert werden. Einsatzgebiete des Verfahrens liegen im Bereich von Haushaltsrobotern, von Industrierobotern, oder beispielsweise autonomen Transportfahrzeugen.