Abstract:
A robot cleaning system includes a robot cleaner comprising a sensor for receiving a specific signal sound, a rechargeable battery, and a control unit; and a recharging base comprising an audio output device for outputting the specific signal sound. The control unit calculates a distance and a direction from the robot cleaner to the recharging base based on the signal sound received by the sensor, and controls the robot cleaner to move based on the calculated distance and direction, when a remaining amount of the battery is less than a preset value. The robot cleaner docks with the recharging base to recharge the battery of the robot cleaner.
Abstract:
A robot cleaner and a method of performing a human care using the same. Specifically, the robot cleaner can include a main body with a cleaning module, a driving unit to move the main body, one or more cameras to generate image information on a management object, a communication unit to communicate with an external communication device and transmit the image information to the external communication device, and a control unit to recognize the management object and control the robot cleaner such that the management object is included in the image information while following a position change of the management object.
Abstract:
A cleaner includes at least one cleaning component, a pump module, a driving module and a control system. The at least one cleaning component and the plate delimit at least one space. The pump module is connected to the at least one space to pump air out of the at least a space to form a negative air pressure in the at least one space so that the cleaner is sucked on the plate. The driving module is connected to the at least a cleaning component to drive the at least a cleaning component. The control system is coupled to the pump module and the driving module and controls the driving module to cause the at least one driven cleaning component to make a movement on the plate.
Abstract:
An autonomous mobile robot includes a robot body, a drive system, a sensor system, and a controller. The drive system supports the robot body and maneuvers the robot over a floor surface. The sensor system includes an inertial measurement unit for measuring a pose of the robot and issues a sensor signal including data having information regarding a pose of the robot. The controller communicates with the drive and sensor systems and executes a behavior system. The behavior system receives the sensor signal from the sensor system and executes a behavior. The behavior system executes an anti-stasis behavior in response to sensor signals indicating that the robot is constrained to evaluate a state of constraint. In addition, the behavior system executes an anti-tilt behavior in response to sensor signals indicating that the robot is tilted with respect to a direction of gravity to evaluate a state of tilt.
Abstract:
An object of the present invention is to find a route on which a self-propelling electronic device preferentially runs a region which (i) is designated by a user and (ii) the self-propelling electronic device ran less frequently. A server device (80) includes: a preferential running region specifying section (812) which specifies a predetermined number of regions in a running region included in a predetermined space which predetermined number of regions a self-propelling electronic device (20) has most recently run a fewest number or fewer numbers of times, the running region being a region which the self-propelling electronic device (20) can run and which is determined by a user's operation; a route searching section (813) which searches for a running route on which the self-propelling electronic device (20) runs at least once all of the predetermined number of regions in the running region, the predetermined number of regions being specified by the preferential running region specifying section (812); and an instruction issuing section (814) which issues, to the self-propelling electronic device (20), a control instruction for causing the self-propelling electronic device (20) to run the predetermined space along the running route searched for by the route searching section (813).
Abstract:
Data within a designated distance from a main body of the mobile robot is accumulated and stored to form a local area map. A traveling direction or a rotating direction is set while avoiding an obstacle around the main body and a path may be readily set. Repetition of unnecessary operation is prevented and thus a traveling velocity based on rapid movement may be improved. Obstacles are readily avoided and cleaning efficiency may be improved.
Abstract:
Provided is a robot cleaner. In an embodiment, the robot cleaner for avoiding obstacles and sucking foreign materials using a plurality of sensors and a suction motor is characterized in that a drive suppression unit for detecting obstacles having a corresponding height is integrated with a base for forming a lower portion of a main body in order to not climb obstacles of a constant height during a driving period of the robot cleaner. The present disclosure according to the embodiment improves drive stability of the robot cleaner by sensing a threshold in erroneous state of the sensor for sensing the threshold.
Abstract:
A robotic cleaner includes a cleaning assembly for cleaning a surface and a main robot body. The main robot body houses a drive system to cause movement of the robotic cleaner and a microcontroller to control the movement of the robotic cleaner. The cleaning assembly is located in front of the drive system and a width of the cleaning assembly is greater than a width of the main robot body. A robotic cleaning system includes a main robot body and a plurality of cleaning assemblies for cleaning a surface. The main robot body houses a drive system to cause movement of the robotic cleaner and a microcontroller to control the movement of the robotic cleaner. The cleaning assembly is located in front of the drive system and each of the cleaning assemblies is detachable from the main robot body and each of the cleaning assemblies has a unique cleaning function.
Abstract:
A proximity sensor includes first and second sensors disposed on a sensor body adjacent to one another. The first sensor is one of an emitter and a receiver. The second sensor is the other one of an emitter and a receiver. A third sensor is disposed adjacent the second sensor opposite the first sensor. The third sensor is an emitter if the first sensor is an emitter or a receiver if the first sensor is a receiver. Each sensor is positioned at an angle with respect to the other two sensors. Each sensor has a respective field of view. A first field of view intersects a second field of view defining a first volume that detects a floor surface within a first threshold distance. The second field of view intersects a third field of view defining a second volume that detects a floor surface within a second threshold distance.
Abstract:
A method for energy management in a robotic device includes providing a base station for mating with the robotic device, determining a quantity of energy stored in an energy storage unit of the robotic device, and performing a predetermined task based at least in part on the quantity of energy stored. Also disclosed are systems for emitting avoidance signals to prevent inadvertent contact between the robot and the base station, and systems for emitting homing signals to allow the robotic device to accurately dock with the base station.