mhurhangee/patent-ind-claim-en huggingface dataset:
A pillow comprising: a first wireless charging array located on an underside of the a second wireless charging array positioned proximate the first wireless charging array; the first wireless charging array configured to receive energy from the second wireless charging array ; a companion device configured to use the energy; an energy storage device within the pillow, the energy storage device configured to store charge received by the first wireless charging array, the energy storage device configured to supply power to the companion device; and a controller, the controller configured to: determine presence of an occupant in response to sensed data from a presence sensor; deactivate the first wireless charging array and second wireless charging array in response to the presence of an occupant; determine a lack of an occupant; and activate the first wireless charging array and second wireless charging array in response to the lack of an occupant. a first wireless charging array located on an underside of the a second wireless charging array positioned proximate the first wireless charging array; the first wireless charging array configured to receive energy from the second wireless charging array ; a companion device configured to use the energy; an energy storage device within the pillow, the energy storage device configured to store charge received by the first wireless charging array, the energy storage device configured to supply power to the companion device; and a controller, the controller configured to: determine presence of an occupant in response to sensed data from a presence sensor; deactivate the first wireless charging array and second wireless charging array in response to the presence of an occupant; determine a lack of an occupant; and activate the first wireless charging array and second wireless charging array in response to the lack of an occupant. determine presence of an occupant in response to sensed data from a presence sensor; deactivate the first wireless charging array and second wireless charging array in response to the presence of an occupant; determine a lack of an occupant; and activate the first wireless charging array and second wireless charging array in response to the lack of an occupant.
A method for transmitting information, comprising sending, by a network device, first configuration information to a terminal device through a first control channel in a resource for which a first numerology is used (S310, S710), the first configuration information is used for indicating configuration in a resource for which a second numerology is used, and the first numerology is different from the second numerology; wherein the first control channel is a common control channel; wherein the first configuration information is used for indicating the configuration in the resource for which the second numerology is used comprises that, the first configuration information is used for indicating at least one of: slot structure information or resource pool information in the resource for which the second numerology is used and, the first configuration information further includes a serial number information of a time-domain scheduling element where a second control channel is located and information of a numerology used for the second control channel, wherein the second control channel is specific control channel of the terminal device.
A power management system comprising: a variable speed generator that provides a voltage output to a bus , wherein the bus is adapted to be connected to a load (L) and an energy storage device ; and a generator controller that controls the speed of the variable speed generator , wherein the generator controller monitors a charge level of the energy storage device , wherein the generator controller remotely displays information relating to operation of the power management system , wherein the generator controller provides information relating to operation of the power management system over a network (N), wherein the generator controller determines whether to operate the variable speed generator based on the monitored charge level of the energy storage device ; characterized in that the generator controller operates in a lower power state once the generator controller determines that the variable speed generator does not need to operate based on the monitored charge level of the energy storage device . a variable speed generator that provides a voltage output to a bus , wherein the bus is adapted to be connected to a load (L) and an energy storage device ; and a generator controller that controls the speed of the variable speed generator , wherein the generator controller monitors a charge level of the energy storage device , wherein the generator controller remotely displays information relating to operation of the power management system , wherein the generator controller provides information relating to operation of the power management system over a network (N), wherein the generator controller determines whether to operate the variable speed generator based on the monitored charge level of the energy storage device ; characterized in that the generator controller operates in a lower power state once the generator controller determines that the variable speed generator does not need to operate based on the monitored charge level of the energy storage device .
A robot cleaner for cleaning an area to be cleaned, the area to be cleaned being divided into a plurality of sub-areas, the robot cleaner comprising: a driving unit to drive at least one wheel to move the robot cleaner, a storage unit , and a control unit , characterized in that the storage unit is to store connection points between the sub-areas and a travel path within each sub-area, the control unit is configured to divide the area to be cleaned into the plurality of sub-areas and to control the driving unit so as to move the robot cleaner along a full path, wherein the control unit is configured to calculate the full path based on a first path being a travel path in a first sub-area originating from and terminating at a first connection point, and a second path connecting the first connection point to a second travel path, wherein the full path is formed by adding the first path to the second path, wherein each of the connection points is generated on a boundary line of adjacent sub-areas, and wherein the robot cleaner is controlled to travel or perform cleaning by passing through the boundary line of adjacent sub-areas on which the connection point is generated. a driving unit to drive at least one wheel to move the robot cleaner, a storage unit , and a control unit , the storage unit is to store connection points between the sub-areas and a travel path within each sub-area, the control unit is configured to divide the area to be cleaned into the plurality of sub-areas and to control the driving unit so as to move the robot cleaner along a full path, wherein the control unit is configured to calculate the full path based on a first path being a travel path in a first sub-area originating from and terminating at a first connection point, and a second path connecting the first connection point to a second travel path, wherein the full path is formed by adding the first path to the second path, wherein each of the connection points is generated on a boundary line of adjacent sub-areas, and wherein the robot cleaner is controlled to travel or perform cleaning by passing through the boundary line of adjacent sub-areas on which the connection point is generated.
A method performed by a Radio Access Network, RAN, node , for enabling connection setup for a wireless device in a communication network , which communication network comprises a first network and a second network, wherein the first network is a home network of the wireless device and the second network is a network which is visited by the wireless device , and wherein the first and the second network each comprise partitioned sets of functionalities, which sets of functionalities each belong to a network slice of the network, wherein a first set of functionalities in the first network belongs to a first network slice supporting the wireless device , and which first set of functionalities is separated from another set of functionalities out of a total set of functionalities in the first network, wherein the wireless device is roaming from the first network to the second network, the method comprising: - receiving , from the wireless device , a first network identity for the home network, an identity of the first network slice supporting the wireless device in the home network and a second network identity for the second network; - retrieving an identity of a second network slice capable of supporting the wireless device in the second network, based on the received first network identity, the first network slice identity and the second network identity, - determining a second core network node based on the second network identity and the retrieved second network slice identity, - transmitting , to the determined second core network node , an initial setup message for the wireless device , which initial setup message comprises an indication of the second network identity and the identity of the second network slice capable of supporting the wireless device . - receiving , from the wireless device , a first network identity for the home network, an identity of the first network slice supporting the wireless device in the home network and a second network identity for the second network; - retrieving an identity of a second network slice capable of supporting the wireless device in the second network, based on the received first network identity, the first network slice identity and the second network identity, - determining a second core network node based on the second network identity and the retrieved second network slice identity, - transmitting , to the determined second core network node , an initial setup message for the wireless device , which initial setup message comprises an indication of the second network identity and the identity of the second network slice capable of supporting the wireless device .
A robot teaching system comprising: a photographing unit configured to photograph an image including a welding target and a marker (M) installed on an industrial robot; and a camera coordinate system setting unit configured to set a camera coordinate system on a basis of the marker (M) included in the image; characterized in that the robot teaching system further comprises: an operation path setting unit configured to set an operation path of the industrial robot on a basis of a welding position of the welding target included in the image in the camera coordinate system; and a program generation unit configured to generate a working program for operating the industrial robot, while converting the operation path of the industrial robot set by the operation path setting unit from the camera coordinate system into a robot coordinate system set in a robot control apparatus on a basis of a position of the marker (M) installed on the industrial robot. a photographing unit configured to photograph an image including a welding target and a marker (M) installed on an industrial robot; and a camera coordinate system setting unit configured to set a camera coordinate system on a basis of the marker (M) included in the image; characterized in that the robot teaching system further comprises: an operation path setting unit configured to set an operation path of the industrial robot on a basis of a welding position of the welding target included in the image in the camera coordinate system; and a program generation unit configured to generate a working program for operating the industrial robot, while converting the operation path of the industrial robot set by the operation path setting unit from the camera coordinate system into a robot coordinate system set in a robot control apparatus on a basis of a position of the marker (M) installed on the industrial robot. an operation path setting unit configured to set an operation path of the industrial robot on a basis of a welding position of the welding target included in the image in the camera coordinate system; and a program generation unit configured to generate a working program for operating the industrial robot, while converting the operation path of the industrial robot set by the operation path setting unit from the camera coordinate system into a robot coordinate system set in a robot control apparatus on a basis of a position of the marker (M) installed on the industrial robot.
A computing device for filter life prediction for an aspirating smoke detector , comprising: a memory ; and a processor configured to execute executable instructions stored in the memory to: log operational data of the aspirating smoke detector for a first time period to generate an initial data set, wherein the aspirating smoke detector includes a filter and the operational data is light scattering data; fit a machine learning model to the initial data set; determine, based on the machine learning model, a remaining useful life of the filter ; log additional operational data of the aspirating smoke detector for a second time period; append the additional operational data to the initial data set to generate an appended data set; refit the machine learning model to the appended data set; and determine, based on the refit machine learning model, a revised remaining useful life of the filter . a memory ; and a processor configured to execute executable instructions stored in the memory to: log operational data of the aspirating smoke detector for a first time period to generate an initial data set, wherein the aspirating smoke detector includes a filter and the operational data is light scattering data; fit a machine learning model to the initial data set; determine, based on the machine learning model, a remaining useful life of the filter ; log additional operational data of the aspirating smoke detector for a second time period; append the additional operational data to the initial data set to generate an appended data set; refit the machine learning model to the appended data set; and determine, based on the refit machine learning model, a revised remaining useful life of the filter . log operational data of the aspirating smoke detector for a first time period to generate an initial data set, wherein the aspirating smoke detector includes a filter and the operational data is light scattering data; fit a machine learning model to the initial data set; determine, based on the machine learning model, a remaining useful life of the filter ; log additional operational data of the aspirating smoke detector for a second time period; append the additional operational data to the initial data set to generate an appended data set; refit the machine learning model to the appended data set; and determine, based on the refit machine learning model, a revised remaining useful life of the filter .
A kit of parts for building a staircase around a vertical elongate support member with a circular cross-section comprising: a plurality of attachment members , each attachment member comprising: a circular aperture for receiving the elongate support member , an inner diameter of the aperture being larger than an outer diameter of the elongate support member to provide an annular gap between the attachment member and elongate support member when received in the aperture, and a fixing detail , each attachment member being adapted to engage an adjacent attachment member to align the attachment members laterally and form a hollow column secured around the elongate support member , and a plurality of steps , each step being adapted to be attached to a said attachment member via the fixing detail of the attachment member ; characterised in that the kit of parts further comprises a plurality of locking elements , wherein each locking element is a curved wedge to fit around the outside diameter of the elongate support member , the attachment members and curved wedges being adapted so that each curved wedge secures a single said attachment member to the elongate support member by friction when received in the annular gap between the attachment member and the elongate support member. a plurality of attachment members , each attachment member comprising: a circular aperture for receiving the elongate support member , an inner diameter of the aperture being larger than an outer diameter of the elongate support member to provide an annular gap between the attachment member and elongate support member when received in the aperture, and a fixing detail , a circular aperture for receiving the elongate support member , an inner diameter of the aperture being larger than an outer diameter of the elongate support member to provide an annular gap between the attachment member and elongate support member when received in the aperture, and a fixing detail , each attachment member being adapted to engage an adjacent attachment member to align the attachment members laterally and form a hollow column secured around the elongate support member , and a plurality of steps , each step being adapted to be attached to a said attachment member via the fixing detail of the attachment member ; characterised in that the kit of parts further comprises a plurality of locking elements , wherein each locking element is a curved wedge to fit around the outside diameter of the elongate support member , the attachment members and curved wedges being adapted so that each curved wedge secures a single said attachment member to the elongate support member by friction when received in the annular gap between the attachment member and the elongate support member.
A disc brake shim (S) that is formed of a multilayer structure with three layers or more including at least a base material layer formed of a metal sheet, and a foamed rubber layer that is laminated on a main surface on one side of the base material layer , wherein the foamed rubber layer is an intermediate layer of the multilayer structure.
Machine for additive manufacturing by sintering or melting powder using an energy beam acting on a powder layer in a working zone , said machine comprising a device for producing a layer of said powder, said device comprising: • means for storing the powder, • means for distributing the powder able to travel over the working zone in order to distribute the powder in a layer having a final thickness adapted to additive manufacturing, • feeding means able to transfer the powder from the storage means to the distributing means , • dosing means able to control the quantity of powder transferred from the storage means to the distributing means , • the storage means are located above the working zone , • the feeding means utilise gravity, and • the feeding means and the dosing means are able to move with the distributing means , said machine being characterised in that the storage means comprise a hopper (52; 53) able to store a quantity of powder sufficient to produce the different layers of powder required to the additive manufacturing of a single complete component or of a plurality of complete components, said hopper being able to move with the feeding means , the dosing means and the distributing means . • means for storing the powder, • means for distributing the powder able to travel over the working zone in order to distribute the powder in a layer having a final thickness adapted to additive manufacturing, • feeding means able to transfer the powder from the storage means to the distributing means , • dosing means able to control the quantity of powder transferred from the storage means to the distributing means , • the storage means are located above the working zone , • the feeding means utilise gravity, and • the feeding means and the dosing means are able to move with the distributing means ,
Method of manufacturing a Bourdon tube with or without a process support , comprising at least the following working steps: - using a straight special section tube with an approximately rectangular cross-section, - closing one end of the special section tube with a welded end part, - welding the second end of the special section tube to a process support or receiving the second end of the special section tube in a tool holder , - bending the special section tube into a Bourdon tube over a plug , characterized by - placing two mouldings against the contour of the pre-bent Bourdon tube , and - applying pressure to the Bourdon tube at a pressure that is 10 to 100 times above the nominal pressure of the Bourdon tube . - using a straight special section tube with an approximately rectangular cross-section, - closing one end of the special section tube with a welded end part, - welding the second end of the special section tube to a process support or receiving the second end of the special section tube in a tool holder , - bending the special section tube into a Bourdon tube over a plug , - placing two mouldings against the contour of the pre-bent Bourdon tube , and - applying pressure to the Bourdon tube at a pressure that is 10 to 100 times above the nominal pressure of the Bourdon tube .
Method for transmitting data from a first vehicle to an external receiver unit , wherein an information item is provided, wherein the information item contains a transmission quality for at least one transmission channel in dependence on a plurality of locations, wherein a transmission location is determined on the basis of a route of the first vehicle and the information item, and the data is transmitted when the transmission location is reached by the first vehicle , characterized in that a transmission channel consists in the fact that additional transmission of the data occurs from a transmitter device of the first vehicle to at least one receiver device of a second vehicle , wherein the second vehicle is parked at the edge of the road, wherein the second vehicle which is parked at the edge of the road receives data from a plurality of vehicles and combines the data received from a plurality of vehicles and sends it in a bundled fashion to the external receiver unit .