Abstract:
A method of charging a battery of a device (40), the method comprising the steps of: providing a non-charging energy to charging terminals (16) of a charger (10); detecting a presence of a robotic device (40) docked with the charger (10) by recognizing a load formed by a circuit in the charger (10) combined with a complementary circuit in the robotic device (40); and increasing energy to the charging terminals (16) to a charging current to charge the battery.
Abstract:
A robot cleaner (100) includes a main brush (160) to sweep or scatter dust off a floor, a main brush motor to rotate the main brush, a Revolution Per Minute (RPM) detector to detect an RPM of the main brush motor, and a control unit to determine a type of floor according to the RPM of the main brush motor acquired by the RPM detector and control an operation of the robot cleaner (100) based on the determined type of floor. A carpet mode to clean only a carpet area and a hard floor mode to clean a hard floor area excluding the carpet area are given based on detected information relating to the material of a floor, which enables partial cleaning with respect to a cleaning area selected by a user and adjustment in the number of cleaning operations or the intensity of cleaning according to the material of the floor.
Abstract:
A method of charging a battery of a device (40), the method comprising the steps of: providing a non-charging energy to charging terminals (16) of a charger (10); detecting a presence of a robotic device (40) docked with the charger (10) by recognizing a load formed by a circuit in the charger (10) combined with a complementary circuit in the robotic device (40); and increasing energy to the charging terminals (16) to a charging current to charge the battery.
Abstract:
A cleaning robot system (5) includes a robot (10) and a robot maintenance station (100,1100,1200,1300,1400). The robot (10) includes a chassis (31), a drive system (45) configured to maneuver the robot (10) as directed by a controller (49), and a cleaning assembly (43) including a cleaning assembly housing (40) and a driven cleaning roller (60,65). The robot maintenance station (100,1100,1200,1300,1400) includes a station housing (120) and a docking platform (122) configured to support the robot (10) when docked. A mechanical agitator (510,520) engages the roller (60,65) of the robot (10) with the robot (10) docked. The agitator (510,520) includes an agitator comb (511) having multiple teeth (512) configured to remove accumulated debris from the roller (60,65) as the agitator comb (511) and roller (60,65) are moved relative to one another.; The robot maintenance station (100,1100,1200,1300,1400) includes a collection bin (150) arranged to receive and hold debris removed by the mechanical agitator (510,520).
Abstract:
A robot cleaner (1) includes a body (10) to travel on a floor, an obstacle sensing unit (61,62) to sense an obstacle approaching the body (10), an auxiliary cleaning unit (21,22) mounted to a bottom of the body (10), to be extendable and retractable, and a control unit to control extension or retraction of the auxiliary cleaning unit (21,22) when the obstacle is sensed. The control unit recognizes a zone of a charger and performs a control operation to prevent the auxiliary cleaning unit (21,22) from extending in the charger zone.
Abstract:
Die Erfindung betrifft ein selbsttätig verfahrbares Gerät (1), insbesondere Reinigungsgerät zur Reinigung eines Bodens (2) wie ein Saug- und/oder Kehrroboter, mit einer berührungsfreien und/oder berührend arbeitenden Sensorik (5) zur Erfassung von Gegenständen. Um ein Gerät der in Rede stehenden Art bevorzugt unter Nutzung von Synergien der Einzelfunktionen des Gerätes weiter zu verbessern, wird vorgeschlagen, dass durch eine Erfassung eines Gegenstandes, ggf. eine hinsichtlich Bewegung oder Form des Gegenstandes in einem Vergleich mit diesbezüglich zu dem Gegenstand gespeicherten Daten als abweichend (ungewöhnlich) zu bewertende Erfassung des Gegenstandes als Auslöser für einen bspw. akustischen Alarm nutzbar ist oder zur diesbezüglichen Überprüfung weiterleitbar ist.
Abstract:
A method of docking a robotic device with a base station includes the steps of detecting a low energy level in an on-board battery, orienting the robot in relation to a detected overlap between two infrared beams emitted by the station, detecting contact between the charging terminals on the robot and on the base station, charging the on-board battery and resuming a robot's task, such as vacuuming. Also disclosed are systems for emitting avoidance signals to prevent inadvertent contract between the robot and the base station, and systems for emitting homing signals to allow the robot device to accurately dock with the base station.
Abstract:
A method of charging a battery of a device (40), the method comprising the steps of: providing a non-charging energy to charging terminals (16) of a charger (10); detecting a presence of a robotic device (40) docked with the charger (10) by recognizing a load formed by a circuit in the charger (10) combined with a complementary circuit in the robotic device (40); and increasing energy to the charging terminals (16) to a charging current to charge the battery.
Abstract:
A method of navigating a self-propelled robotic tool comprises transmitting a wireless signal (66) along a first signal path between the robotic tool (14) and a first wireless interface of a base station (16) remote from the robotic tool (14); transmitting a wireless signal (66) along a second signal path between the robotic tool (14) and a second wireless interface of the base station (16), said second wireless interface being spatially separated from the first wireless interface by a separation distance; upon receipt, comparing the signal transmitted along the first signal path with the signal transmitted along the second signal path to obtain a propagation time difference between the signal transmitted along the first signal path and the signal transmitted along the second signal path, said propagation time difference defining a path length difference between said first and second signal paths; and calculating, based on the separation distance and the path length difference, a value representative of a bearing ( φ) from the base station (16) to the robotic tool (14).
Abstract:
A going back and charging system for a sweeping robot and a method for controlling the same are provided. The system includes: a charging station, configured to emit infrared signals to divide an area in front of the charging station into six different signal regions; six infrared receiving tubes; and a going back and charging control device, configured to control the six infrared receiving tubes to be turned on if the sweeping robot needs to be charged, to control the sweeping robot to walk toward the middle near field region if any one of the six infrared receiving tubes receives an infrared signal emitted from the charging station, and to control the sweeping robot to continue to walk until the sweeping robot docks with the charging station successfully if the fifth infrared receiving tube and the sixth infrared receiving tube receive an infrared signal of the middle near field region.