mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a network element , the method comprising: transmitting, from the network element to a user equipment , UE, a fast dormancy, FD, configuration comprising an indication that the UE is permitted to send an FD indication and a value for an inhibit timer, wherein the FD indication indicates a request by the UE for a more energy efficient state or mode, the FD indication is for a specific radio bearer or bearers, or resource or resources, assigned to the UE that corresponds to a background type or interactive type, and the inhibit timer value represents a time duration during which the UE is prevented from sending a subsequent request for the more energy efficient state or mode; and receiving the FD indication from the UE based on the FD configuration. transmitting, from the network element to a user equipment , UE, a fast dormancy, FD, configuration comprising an indication that the UE is permitted to send an FD indication and a value for an inhibit timer, wherein the FD indication indicates a request by the UE for a more energy efficient state or mode, the FD indication is for a specific radio bearer or bearers, or resource or resources, assigned to the UE that corresponds to a background type or interactive type, and the inhibit timer value represents a time duration during which the UE is prevented from sending a subsequent request for the more energy efficient state or mode; and receiving the FD indication from the UE based on the FD configuration.
Gas burner comprising • a cylindrical casing which is open from below for the flow of combustion air; • a combustion primary head with axial main performance fuel nozzles , which primary head is arranged in the axis of the cylindrical casing ; • an income tube portion in front of the primary head divided into a plurality of tubes arranged in a circle, • a gas distributor , the income tube portion leading into the gas distributor , • a tube portion leading from the gas distributor to the primary head , • other fuel nozzles of the plurality of fuel tubes - arranged on the output of the casing, and - being orientated into a gas burner output • a swirler , the primary head being provided with the swirler ; • radial stabilization nozzles around the circumference of the primary head provided in front of the swirler in the direction of the gas burner output; • a reduction piece - arranged on the tube portion leading from the gas distributor to the primary head , and - provided with a passing-through opening which is smaller than an opening in the tube portion ; and • wherein the primary head is arranged on the reduction piece . • a cylindrical casing which is open from below for the flow of combustion air; • a combustion primary head with axial main performance fuel nozzles , which primary head is arranged in the axis of the cylindrical casing ; • an income tube portion in front of the primary head divided into a plurality of tubes arranged in a circle, • a gas distributor , the income tube portion leading into the gas distributor , • a tube portion leading from the gas distributor to the primary head , • other fuel nozzles of the plurality of fuel tubes - arranged on the output of the casing, and - being orientated into a gas burner output - arranged on the output of the casing, and - being orientated into a gas burner output • a swirler , the primary head being provided with the swirler ; • radial stabilization nozzles around the circumference of the primary head provided in front of the swirler in the direction of the gas burner output; • a reduction piece - arranged on the tube portion leading from the gas distributor to the primary head , and - provided with a passing-through opening which is smaller than an opening in the tube portion ; and - arranged on the tube portion leading from the gas distributor to the primary head , and - provided with a passing-through opening which is smaller than an opening in the tube portion ; and • wherein the primary head is arranged on the reduction piece .
Method for transmitting a data stream (DS) between a mobile data carrier and a playback device for the transmitted data, wherein authentication data (A) for setting up a second transmission channel (K2) from the data carrier to the playback device is transmitted via a first transmission channel (K1) which is set up between the data carrier and the playback device by means of an electromagnetic field (EF) emitted by the playback device via electromagnetic induction in the mobile data carrier , and following verification (V) of the authentication data (A), the second transmission channel (K2) is set up between the data carrier and the playback device , via which channel the data stream (DS) is transmitted from the data carrier to the playback device by means of a radio signal from a transmitting antenna of the data carrier , characterized in that the power supply to the transmitting antenna of the second transmission channel (K2) is provided via the first transmission channel (K1), and the second transmission channel (K2) is maintained only as long as the first transmission channel (K1), whose maintenance depends on the spatial distance between the data carrier and the playback device , is maintained.
A plasma compression system comprising: a plasma containment vessel comprising a vessel wall; and an annular rotating core containing a liquid medium and rotatable inside the vessel to circulate the liquid medium and form a liquid liner with a cavity , the rotating core comprising an outer surface spaced from an inner surface of the vessel wall to define an annular gap , and a plurality of implosion drivers each comprising a pusher bore with a pusher piston slideable therein, each pusher bore extending through the rotating core and having a proximal end in fluid communication with the annular gap and a distal end in fluid communication with the liquid medium; a plurality of compression drivers each in fluid communication with the annular gap and operable to create a pressure pulse in the annular gap that moves the pusher pistons , and wherein the pusher pistons are operable, as the rotating core rotates, to push the liquid medium inwards to collapse the liquid liner and compress a plasma in the cavity . a plasma containment vessel comprising a vessel wall; and an annular rotating core containing a liquid medium and rotatable inside the vessel to circulate the liquid medium and form a liquid liner with a cavity , the rotating core comprising an outer surface spaced from an inner surface of the vessel wall to define an annular gap , and a plurality of implosion drivers each comprising a pusher bore with a pusher piston slideable therein, each pusher bore extending through the rotating core and having a proximal end in fluid communication with the annular gap and a distal end in fluid communication with the liquid medium; a plurality of compression drivers each in fluid communication with the annular gap and operable to create a pressure pulse in the annular gap that moves the pusher pistons , and wherein the pusher pistons are operable, as the rotating core rotates, to push the liquid medium inwards to collapse the liquid liner and compress a plasma in the cavity .
A method for a control device configured for controlling a media playback system , the media playback system comprising a plurality of playback zones each comprising at least one respective playback device , the method comprising: in response to a single user input to a graphical user interface comprising an indication of a first zone, the graphical user interface displayed on the control device, the single user input indicating a command to cause the first zone to form a zone group with at least one second zone and to play back target media in synchrony with the at least one second zone, the second zone to be determined by the control device from among a plurality of additional zones; determining the at least one second zone from among a plurality of potential zones that are playing back media, based on at least one of: a detected signal strength corresponding to each of the plurality of potential zones; and a most recent user interaction time of each of the plurality of potential zones, the user interaction time representing a time when any playback device within the zone last received user input or provided playback of media, or a time when the playback queue of the zone was last updated; and causing the first zone to form the zone group with the second zone and to play back the target media in synchrony, wherein the target media is media being played back by one of the first and second zones, before the first zone is caused to form the zone group with the second zone. in response to a single user input to a graphical user interface comprising an indication of a first zone, the graphical user interface displayed on the control device, the single user input indicating a command to cause the first zone to form a zone group with at least one second zone and to play back target media in synchrony with the at least one second zone, the second zone to be determined by the control device from among a plurality of additional zones; determining the at least one second zone from among a plurality of potential zones that are playing back media, based on at least one of: a detected signal strength corresponding to each of the plurality of potential zones; and a most recent user interaction time of each of the plurality of potential zones, the user interaction time representing a time when any playback device within the zone last received user input or provided playback of media, or a time when the playback queue of the zone was last updated; and a detected signal strength corresponding to each of the plurality of potential zones; and a most recent user interaction time of each of the plurality of potential zones, the user interaction time representing a time when any playback device within the zone last received user input or provided playback of media, or a time when the playback queue of the zone was last updated; and causing the first zone to form the zone group with the second zone and to play back the target media in synchrony, wherein the target media is media being played back by one of the first and second zones, before the first zone is caused to form the zone group with the second zone.
A polyimide-based polymer thick film composition comprising; (a) a non-fluorinated polyimide polymer with the structure I wherein X is O-Ph-C(CH 3 ) 2 -Ph-O; wherein Y is a diamine component selected from the group consisting of 2,2-bis[4-(4-aminophenoxyphenyl)]propane (BAPP) and 1,3-bis(3-aminophenoxy) benzene (APB-133); and (b) an organic solvent comprising one or more components selected from the group with structure IV: wherein R1 = CH 3 , R2 = OCH 3 and R3 = H; R1 = CH 3 , R2 = OCH 3 and R3 = CH 3 ; or R1 = CH 3 , R2 = C(O)OCH 3 and R3 = H. (a) a non-fluorinated polyimide polymer with the structure I wherein X is O-Ph-C(CH 3 ) 2 -Ph-O; wherein Y is a diamine component selected from the group consisting of 2,2-bis[4-(4-aminophenoxyphenyl)]propane (BAPP) and 1,3-bis(3-aminophenoxy) benzene (APB-133); and wherein X is O-Ph-C(CH 3 ) 2 -Ph-O; wherein Y is a diamine component selected from the group consisting of 2,2-bis[4-(4-aminophenoxyphenyl)]propane (BAPP) and 1,3-bis(3-aminophenoxy) benzene (APB-133); and (b) an organic solvent comprising one or more components selected from the group with structure IV:
A method for configuring a semiconductor manufacturing process, the method comprising: providing an initial prediction model comprising a plurality of model parameters to one or more remote locations ; training the initial prediction model with local data at the one or more remote locations such that at least one model parameter is updated ; receiving the at least one updated model parameter from the one or more remote locations: determining aggregated model parameters based on the at least one updated model parameter received from the one or more remote locations; and adjusting the initial prediction model based on the aggregated model parameters, the adjusted prediction model being operable to configure the semiconductor manufacturing process. providing an initial prediction model comprising a plurality of model parameters to one or more remote locations ; training the initial prediction model with local data at the one or more remote locations such that at least one model parameter is updated ; receiving the at least one updated model parameter from the one or more remote locations: determining aggregated model parameters based on the at least one updated model parameter received from the one or more remote locations; and adjusting the initial prediction model based on the aggregated model parameters, the adjusted prediction model being operable to configure the semiconductor manufacturing process.
A bridge cascade system comprising at least one phase unit and a driving unit for the phase unit, wherein: the phase unit comprises N bridge topologies cascaded on alternating current AC sides of the bridge topologies, where N is an integer greater than 1; characterized in that : the driving unit comprises one driving power supply circuit (Vcc), a plurality of bootstrap power supply circuits and 2N driving circuits (Dr1, Dr2, Dr3, Dr4); in the phase unit, the driving power supply circuit (Vcc) powers the driving circuits directly or through corresponding bootstrap power supply circuits; and the driving circuits are configured to provide driving signals for corresponding switch transistors in the phase unit. the phase unit comprises N bridge topologies cascaded on alternating current AC sides of the bridge topologies, where N is an integer greater than 1; characterized in that : the driving unit comprises one driving power supply circuit (Vcc), a plurality of bootstrap power supply circuits and 2N driving circuits (Dr1, Dr2, Dr3, Dr4); in the phase unit, the driving power supply circuit (Vcc) powers the driving circuits directly or through corresponding bootstrap power supply circuits; and the driving circuits are configured to provide driving signals for corresponding switch transistors in the phase unit. the driving unit comprises one driving power supply circuit (Vcc), a plurality of bootstrap power supply circuits and 2N driving circuits (Dr1, Dr2, Dr3, Dr4); in the phase unit, the driving power supply circuit (Vcc) powers the driving circuits directly or through corresponding bootstrap power supply circuits; and the driving circuits are configured to provide driving signals for corresponding switch transistors in the phase unit.
A method for securing transmission of digital data in a communication network (Net), the network comprising a central station (CST) and at least a first device and a second device (D1, D2, D3) monitored by the central station via the network, the first and second device each comprising a secure non-volatile memory and being configured to communicate with each other, the first device being configured to produce and to transmit a digital data stream to the central station, the method comprising: receiving information specific to the first device, and storing said information into the secure non-volatile memory of the first device; providing the device specific information of the first device to the second device; providing device specific information of the second device to the first device; storing, by each of the first and second device, the device specific information of the first and second device in the secure non-volatile memory of the first and second device; forming, by the first device, a data block based on at least the device specific information stored in the secure non-volatile memory of the first device; merging, by the first device, additional data with the digital data stream produced by said device, the additional data comprising at least the previously formed data block, obtaining a modified digital data stream; and transmitting, by the first device, the modified digital data stream to the central station. receiving information specific to the first device, and storing said information into the secure non-volatile memory of the first device; providing the device specific information of the first device to the second device; providing device specific information of the second device to the first device; storing, by each of the first and second device, the device specific information of the first and second device in the secure non-volatile memory of the first and second device; forming, by the first device, a data block based on at least the device specific information stored in the secure non-volatile memory of the first device; merging, by the first device, additional data with the digital data stream produced by said device, the additional data comprising at least the previously formed data block, obtaining a modified digital data stream; and transmitting, by the first device, the modified digital data stream to the central station.
Pack for preparing a food or beverage product from one or more ingredients, the pack comprising an insert and a container ; the container being configured by at least one flexible sheet folded in such a way to configure a container where one or more ingredients can be stored; the pack being characterized in that the at least one flexible sheet is arranged overwrapping and matching the shape of the insert in its entirety except for the part of the insert in direct communication with the inner volume of the container , with a gap or clearance existing between the at least one flexible sheet and the insert in an outlet delivery area wrapped with flexible sheet giving access to the dispensing outlet . the container being configured by at least one flexible sheet folded in such a way to configure a container where one or more ingredients can be stored; the pack being characterized in that the at least one flexible sheet is arranged overwrapping and matching the shape of the insert in its entirety except for the part of the insert in direct communication with the inner volume of the container , with a gap or clearance existing between the at least one flexible sheet and the insert in an outlet delivery area wrapped with flexible sheet giving access to the dispensing outlet .
A fan rotor for a turbomachine, this rotor having an axis of rotation and comprising: - a fan disc , - fan blades comprising roots press-fitted in sockets in the periphery of said disc , each blade comprising an intrados, an extrados, a leading edge and a trailing edge , - platforms interposed between the fan blades and fixed to the periphery of the disc , each platform comprising an aerodynamic surface extending along said axis substantially from the leading edges to the trailing edges of the blades between which this platform is mounted, characterized in that said aerodynamic surface comprises an upstream longitudinal portion located on the side of the leading edges of the blades and a downstream longitudinal portion , independent of the upstream longitudinal portion, located on the side of the trailing edges of the blades , the upstream longitudinal portion being supported by a first member of the platform which is fixed to said disc and the downstream longitudinal portion being supported by a second member of the platform which is independent of said first member and which is fixed to said disc . - a fan disc , - fan blades comprising roots press-fitted in sockets in the periphery of said disc , each blade comprising an intrados, an extrados, a leading edge and a trailing edge , - platforms interposed between the fan blades and fixed to the periphery of the disc , each platform comprising an aerodynamic surface extending along said axis substantially from the leading edges to the trailing edges of the blades between which this platform is mounted, characterized in that said aerodynamic surface comprises an upstream longitudinal portion located on the side of the leading edges of the blades and a downstream longitudinal portion , independent of the upstream longitudinal portion, located on the side of the trailing edges of the blades , the upstream longitudinal portion being supported by a first member of the platform which is fixed to said disc and the downstream longitudinal portion being supported by a second member of the platform which is independent of said first member and which is fixed to said disc .
A method of making a radio-frequency identification, RFID, tag , the method comprising: providing a thermoplastic substrate component with a first side and a second side; forming an RFID antenna structure on the first side of the thermoplastic substrate component ; coupling an RFID chip to the RFID antenna structure ; and wherein the method is characterized by the steps of: placing the second side of the thermoplastic substrate component over an aperture; heating the thermoplastic substrate component to soften the thermoplastic substrate component; applying a vacuum to the thermoplastic substrate component ; pulling material from the thermoplastic substrate component into the aperture; and forming a blister with the RFID antenna structure on the blister. providing a thermoplastic substrate component with a first side and a second side; forming an RFID antenna structure on the first side of the thermoplastic substrate component ; coupling an RFID chip to the RFID antenna structure ; and wherein the method is characterized by the steps of: placing the second side of the thermoplastic substrate component over an aperture; heating the thermoplastic substrate component to soften the thermoplastic substrate component; applying a vacuum to the thermoplastic substrate component ; pulling material from the thermoplastic substrate component into the aperture; and forming a blister with the RFID antenna structure on the blister. placing the second side of the thermoplastic substrate component over an aperture; heating the thermoplastic substrate component to soften the thermoplastic substrate component; applying a vacuum to the thermoplastic substrate component ; pulling material from the thermoplastic substrate component into the aperture; and forming a blister with the RFID antenna structure on the blister.
Method for detaching a material layer from a material web comprising multiple material layers , having the following method steps: - a multi-ply laminate is peeled off of the outermost material layer of the material web at a peel-off angle of approximately 130 to 170 degrees, preferably of approximately 150 to 170 degrees, - the outermost material layer continues on in the plane of the web. - a multi-ply laminate is peeled off of the outermost material layer of the material web at a peel-off angle of approximately 130 to 170 degrees, preferably of approximately 150 to 170 degrees, - the outermost material layer continues on in the plane of the web.