Abstract: A system has at least two self-traveling floor treatment apparatuses, wherein each of the floor treatment apparatuses features a navigation and self-localization device that is designed for generating an environment map based on environment data of the environment of the floor treatment apparatus, which is recorded by means of a detection device. In order to realize an advantageous cooperation between the floor treatment apparatuses, it is proposed that a common memory unit for storing environment maps and a computing unit are assigned to the floor treatment apparatuses, wherein the computing unit is designed for comparing an environment map of a first floor treatment apparatus with an environment map of a second floor treatment apparatus and/or with an environment map stored in the common memory unit and for specifying which of the environment maps is stored in the common memory unit and/or in a local memory of a floor treatment apparatus based on a defined selection criterion.

Abstract: The invention relates to a method (100) for the coordinated control of at least two devices (10), wherein at least a first device (10a), preferably a food processor (10a), and a second device (10b) are provided, which are different from one another in terms of a respective functionality.

Abstract: A system is comprised of a floor processing device, an object located in the environment of the floor processing device, which has a partial object area and a displacement device for automatically displacing the partial object area, a detection device, which is suitable for detecting a presence of the floor processing device in a detection area of the detection device, and a control device for generating a control command for the displacement device as a function of the detection result of the detection device. In order to prevent a collision with the floor processing device given automatic displacement devices of objects, the control command is suitable for deactivating the displacement device, thereby preventing a displacement of the partial object area even if the floor processing device is present in the detection area.

Abstract: A method for operating a household appliance with an accumulator, wherein a charging start time of a charging operation for charging the accumulator is controlled in dependence on predefined conditions. In order to ensure a required charge capacity of the accumulator without a charge maintaining mode, it is proposed that the charging start time is controlled in dependence on a charging period and a predefined time of use of the household appliance.

Abstract: A system has at least two cleaning devices, wherein at least one of the cleaning devices can be displaced relative to another cleaning device. In order to perform a service on one of the cleaning devices in an especially advantageous manner, the cleaning devices each have a communications link to a shared controller, wherein the controller is set up to transmit a service request to the second cleaning device and/or to a user of the second cleaning device, depending on the service required by a device component of a first cleaning device, and depending on the service availability status of a second cleaning device.

Abstract: A system has a first floor processing device guided manually by a user within an environment, a second, exclusively automatically operated floor processing device, and a computing device. The first floor processing device has a detection device for detecting a parameter of the environment and/or a surface to be processed, and the second floor processing device has a navigation device for navigating and self-localizing in the environment. In order to enable an optimal floor processing of the environment with as little assistance by the user as possible, the computing device is set up, based on the parameter detected by the detection device of the first floor processing device, to determine whether a specific partial surface area of the surface to be processed is suitable for floor processing by the second floor processing device.

Abstract: An automatically moving robotic vacuum cleaner has a housing and a filter chamber for receiving suction material. The housing has a housing opening that is formed on the upper side of the housing and has a displaceable sealing element, which can be displaced from a closed position that closes the housing opening into a released position that releases the housing opening, so as to enable access to the filter chamber. The closure element can be mounted on the housing in a linearly movable manner. There is a detection device that is set up to detect the presence of an external vacuum cleaning apparatus to be connected with the housing opening in the area of the housing opening of the robotic vacuum cleaner. The robotic vacuum cleaner also has a control device that is set up to control an opening of the housing opening upon detection of the external vacuum cleaning apparatus.

Abstract: A vacuumed material collection station for receiving vacuumed material from a vacuum cleaning apparatus includes a vacuumed material collection container and an interface for connecting the vacuum cleaning apparatus to the vacuumed material collection station. The vacuumed material collection station comprises a receptacle space for receiving a filter chamber of a vacuum cleaning apparatus connected to the vacuumed material collection station and a feed device for feeding the filter chamber into the receptacle space. The receptacle space is designed for completely encompassing the filter chamber and/or at the most not encompassing a chamber side facing the interface with the vacuum cleaning apparatus. The receptacle space forms a partial volume within the housing of the vacuumed material collection station, and the feed device is designed for removing the filter chamber from the vacuum cleaning apparatus and displacing the filter chamber into the receptacle space.

Abstract: A suction material collecting station for regenerating a filter chamber of a suction cleaner has an interface for connecting to the suction cleaner, a suction material collection container, a fan for generating a negative pressure in the suction material collection container, and an electric motor for driving the fan so that suction material contained in the filter chamber may be conveyed into the suction material collection container. The suction material collecting station has a control and evaluation unit that calculates a surroundings disturbance parameter and controls the operation of the electric motor automatically, depending on the surroundings disturbance parameter and a device parameter of the suction cleaner.

Abstract: The present disclosure relates to a system with a household appliance, a charging station and a plurality of battery units. A control of the system is configured so that a battery unit connected to the charging station can be charged in dependence on a discharge of a battery unit which is connected to the household appliance for operating the household appliance to perform a use operation. The present disclosure further concerns a household appliance and a charging station. It is thereby made possible to perform particularly long use operations with only two battery units or at least a reduced number of battery units without an interruption for charging a battery, and at the same time to achieve the longest possible service life of the battery units.

Abstract: The invention pertains to a system consisting of a first floor treatment apparatus that is exclusively guided manually within an environment by a user and a second floor treatment apparatus that is exclusively operated automatically, wherein the second floor treatment apparatus is designed for orienting and localizing itself within an environment. The first floor treatment apparatus is designed for detecting a movement path of the first floor treatment apparatus during a movement of the first floor treatment apparatus that is manually guided by a user, as well as for transmitting information on the detected movement path to the second floor treatment apparatus by wireless communication. The second floor treatment apparatus is designed for receiving the information and for autonomously traveling along the movement path within the environment based on the received information.

Abstract: A system with a first floor processing device and a second floor processing device that is designed to orient and localize itself within an environment based on an area map. The first floor processing device is set up to detect a movement path during a movement by the first floor processing device and transmit information about the detected movement path to the second floor processing device. The second floor processing device has a control and evaluation unit that is set up to analyze the received information and, based upon the movement path detected by the first floor processing device and/or a partial area of the environment not traversed by the movement path, enter a no-go area into the area map which the second floor processing device is not allowed to traverse.

Abstract: A wet cleaning apparatus has a cleaning element for mechanically wet cleaning an area to be cleaned and a device section that supports the wet cleaning apparatus relative to the area. The wet cleaning apparatus comprises a displacement device that is designed for automatically causing a displacement of the cleaning element relative to the device section or vise versa in dependence on a state of motion and/or an error status of the wet cleaning apparatus such that the cleaning element can be displaced from an operating position, in which it is lowered onto the area, into a distant position, in which it is lifted off the area. A detection device is assigned to the displacement device and is designed for distinguishing between a standstill of the wet cleaning apparatus and a motion of the wet cleaning apparatus.

Abstract: A method for operating a floor processing device that moves automatically within an environment, has a detection system of the floor processing device that detects features of a surface to be cleaned and compares them with reference features of carpets. Upon detection of a carpet, it is determined whether and where the carpet has fringes, and the fringes are aligned in a defined direction relative to the carpet by means of a combing attachment of the floor processing device.

Abstract: A system has at least two floor treatment apparatuses for treating a surface in an automatically controlled fashion based on defined adjustment parameters of the floor treatment apparatus, wherein each of the floor treatment apparatuses features at least one detection device for detecting at least one detection parameter of the floor treatment apparatus and/or of an environment of the floor treatment apparatus. In order to enhance a system of this type in such a way that the floor treatment apparatuses advantageously cooperate and support one another, the system features a common database that is assigned to the floor treatment apparatuses. Detection parameters of at least two floor treatment apparatuses are stored in the database in association with the adjustment parameters of the respective floor treatment apparatus.

Abstract: A self-propelled cleaning device has a housing, a fan and a surface cleaning system for cleaning a surface to be cleaned. In order to also be able to clean an above-floor surface, in particular a plateau of a baseboard, the cleaning device also has an above-floor cleaning system for cleaning an above-floor surface vertically offset relative to the surface to be cleaned. The above-floor cleaning system has a flow connection to a suction and/or blower unit having a fan, the flow opening of which has a difference in height of roughly 3 cm or more relative to a standing surface of the cleaning device by comparison to a usual orientation of the cleaning device for a cleaning operation.

Abstract: A self-propelled cleaning device has a surface cleaning system for cleaning a surface to be cleaned. In order to also be able to clean an above-floor surface, the cleaning device also has an above-floor cleaning element for mechanically cleaning an above-floor surface offset in terms of height relative to the surface. The above-floor cleaning element can be rotated and/or pivoted around a rotational axis, and at least one partial cleaning area of the above-floor cleaning element has a difference in height of roughly 3 cm or more relative to a lowermost standing surface of the cleaning device by comparison to a usual orientation of the cleaning device for a cleaning operation.

Abstract: A household appliance in the form of a food processor has a controller that controls the preparation of a meal according to a sequence of prescribed steps that includes comminuting, mixing or heating the meal or ingredients. The controller is designed and set up to output a control command for controlling an external cleaning device depending on a progress of the sequence of steps. The control command to the external device includes a cleaning instruction for the external device to effect cleaning in an area where the household appliance is located.

Abstract: A floor processing device automatically moves within an environment, with a driving attachment, a floor processing unit, an obstacle detection unit, a control unit and a detection unit for detecting device parameters and/or environment parameters control unit is set up to determine an error of the floor processing device based upon the detected parameters that prevents the floor processing device from moving and/or the floor processing device from processing a surface to be processed in such a way that the floor processing device is unable to automatically extricate itself from the error situation. The control unite is set up to analyze the parameters detected by the detection unit with respect to recurring patterns that have a repeatedly encountered combination of an error and at least one chronologically preceding environment and/or device parameter.

Abstract: A system has at least two floor processing fixtures of one or several automatically moving floor processing devices for the automatically controlled processing of a surface. In order to further develop such a system in particular with the aim of having the floor processing fixtures advantageously interact and support each other, the system has a shared database allocated to the floor processing fixtures, which is stored in an external memory designed separately from the floor processing device, and in which operational activities for the floor processing fixtures are planned according to defined rules, as well as a central computing device allocated to the database, which plans operational activities according to defined rules.