mhurhangee/ep-ind-claims huggingface dataset:
A method, performed by a user equipment, UE, for supporting network - initiated quality of service, QoS, control for uplink traffic, for trusted wireless local area network, TWAN, access to an evolved packet core, EPC, said method comprising: receiving, from a trusted WLAN Access Gateway, TWAG, QoS control information, the QoS control information allowing the UE to associate uplink traffic flows from the UE, with TWAN access network connectivity QoS for uplink traffic, wherein the QoS control information includes first QoS control information associating uplink traffic flows with EPC connectivity QoS, and second QoS control information mapping the EPC connectivity QoS to the TWAN access network connectivity QoS for uplink traffic, wherein the EPC connectivity QoS includes a third generation partnership project, 3GPP, QoS class identifier parameter assigned to a 3GPP S2a dedicated bearer, wherein the TWAN access network connectivity QoS for uplink traffic includes a differentiated services code point, DSCP, parameter set by the UE in the internet protocol, IP, header of uplink IP packets, wherein mapping the EPC connectivity QoS to the TWAN access network connectivity QoS for uplink traffic includes mapping the 3GPP QoS class identifier assigned to the 3GPP S2a dedicated bearer to the DSCP parameter, sending, via the TWAG towards a PGW, the uplink traffic flows associated with an appropriate TWAN connectivity QoS for uplink traffic based on the QoS control information. receiving, from a trusted WLAN Access Gateway, TWAG, QoS control information, the QoS control information allowing the UE to associate uplink traffic flows from the UE, with TWAN access network connectivity QoS for uplink traffic, wherein the QoS control information includes first QoS control information associating uplink traffic flows with EPC connectivity QoS, and second QoS control information mapping the EPC connectivity QoS to the TWAN access network connectivity QoS for uplink traffic, wherein the EPC connectivity QoS includes a third generation partnership project, 3GPP, QoS class identifier parameter assigned to a 3GPP S2a dedicated bearer, wherein the TWAN access network connectivity QoS for uplink traffic includes a differentiated services code point, DSCP, parameter set by the UE in the internet protocol, IP, header of uplink IP packets, wherein mapping the EPC connectivity QoS to the TWAN access network connectivity QoS for uplink traffic includes mapping the 3GPP QoS class identifier assigned to the 3GPP S2a dedicated bearer to the DSCP parameter, sending, via the TWAG towards a PGW, the uplink traffic flows associated with an appropriate TWAN connectivity QoS for uplink traffic based on the QoS control information.
A method of balancing printing workload across multiple cells in a cellular printing environment, the method comprising: compiling a listing of a plurality of jobs and cells using a computer operable processor, wherein each of the plurality of jobs are to be produced by at least some of the plurality of cells, and each of the cells include at least one production device (110, 112); assigning the jobs to the cells using an earliest-completion-route algorithm by, for each job: enumerating all feasible routes in the cellular printing environment that have the minimum number of inter-cell hops; for each enumerated route, finding a schedule that uses only those cells identified by the route; and selecting the route and the corresponding schedule that finishes the job the earliest; and generating a job schedule for job production based on the results of the earliest-completion-route algorithm. compiling a listing of a plurality of jobs and cells using a computer operable processor, wherein each of the plurality of jobs are to be produced by at least some of the plurality of cells, and each of the cells include at least one production device (110, 112); assigning the jobs to the cells using an earliest-completion-route algorithm by, for each job: enumerating all feasible routes in the cellular printing environment that have the minimum number of inter-cell hops; for each enumerated route, finding a schedule that uses only those cells identified by the route; and selecting the route and the corresponding schedule that finishes the job the earliest; and enumerating all feasible routes in the cellular printing environment that have the minimum number of inter-cell hops; for each enumerated route, finding a schedule that uses only those cells identified by the route; and selecting the route and the corresponding schedule that finishes the job the earliest; and generating a job schedule for job production based on the results of the earliest-completion-route algorithm.
A method of operating a fuel cell or a fuel cell stack which fuel cell or fuel cell stack can output an electrical maximum power dependent on the operating temperature for a given fuel gas flow, and which exhibits aging in dependence on the operating duration which brings about an increase of the electrical internal resistance with progressive operating duration, characterized in that in the method, for a new fuel cell or for a new fuel cell stack, a starting value (T 0) of the operating temperature is predefined which is smaller than the maximum specified operating temperature (T max) for the fuel cell or the fuel cell stack and the fuel cell or the fuel cell stack is regulated such that the decrease of the electrical power output as a consequence of aging is partly or completely compensated in that the operating temperature of the fuel cell or of the fuel cell stack is increased with progressive aging.
A mixed-signal integrated circuit, comprising: an analog circuit comprising at least one digital block embedded in the analog circuit, the at least one digital block comprising a plurality of functional bits and a plurality of configuration bits, the plurality of functional bits providing for a functionality of the analog circuit according to a designed functionality and the plurality of configuration bits being usable for configuring a plurality of operational modes of the analog circuit; and a digital circuit comprising a scan chain configured to scan at least part of the functional bits of the digital block embedded in the analog circuit with respect to the designed functionality, wherein the scan chain is further configured to set at least part of the configuration bits of the digital block embedded in the analog circuit according to a selected operational mode of the plurality of operational modes of the analog circuit; wherein the scan chain is configured to scan the at least part of the functional bits of the digital block when the scan chain is in a Design-for-Test mode and to set the at least part of the configuration bits of the digital block when the scan chain is in a Functional-Scan mode; characterized in that in the Functional-Scan mode only the configuration bits are scanned and in the Design-for-Test mode both the functional bits and the configuration bits are scanned. an analog circuit comprising at least one digital block embedded in the analog circuit, the at least one digital block comprising a plurality of functional bits and a plurality of configuration bits, the plurality of functional bits providing for a functionality of the analog circuit according to a designed functionality and the plurality of configuration bits being usable for configuring a plurality of operational modes of the analog circuit; and a digital circuit comprising a scan chain configured to scan at least part of the functional bits of the digital block embedded in the analog circuit with respect to the designed functionality, wherein the scan chain is further configured to set at least part of the configuration bits of the digital block embedded in the analog circuit according to a selected operational mode of the plurality of operational modes of the analog circuit; wherein the scan chain is configured to scan the at least part of the functional bits of the digital block when the scan chain is in a Design-for-Test mode and to set the at least part of the configuration bits of the digital block when the scan chain is in a Functional-Scan mode; characterized in that in the Functional-Scan mode only the configuration bits are scanned and in the Design-for-Test mode both the functional bits and the configuration bits are scanned.
A method of managing an Ethernet access network comprising a head end, customer location equipment, and a connection medium connecting the head end and customer location equipment, wherein the Ethernet access network is adapted to provide Time Division Multiplexing, TDM, services and packet services, wherein the head end is located at an edge of said Ethernet access network and is adapted to interface customer location equipment with a core network, wherein customer location equipment is adapted to interface a customer, the method characterized by: defining a relationship providing a fixed mapping between TDM network interface ports of the head end adapted to provide TDM-based connections to core network and TDM service interface ports of the customer location equipment adapted to provide TDM-based connections to a customer; modeling the defined relationship between the TDM network interface ports and the TDM service interface ports as a cross connect system; managing the TDM services of the Ethernet access network by managing the cross connect system through a TDM operations support system, OSS, providing to the head end management instructions that are subsequently carried out on the Ethernet access network and receiving from the head end management data; and managing the packet services of the Ethernet access network through a packet OSS, providing to the head end management instructions that are subsequently carried out on the Ethernet access network and receiving from the head end management data. defining a relationship providing a fixed mapping between TDM network interface ports of the head end adapted to provide TDM-based connections to core network and TDM service interface ports of the customer location equipment adapted to provide TDM-based connections to a customer; modeling the defined relationship between the TDM network interface ports and the TDM service interface ports as a cross connect system; managing the TDM services of the Ethernet access network by managing the cross connect system through a TDM operations support system, OSS, providing to the head end management instructions that are subsequently carried out on the Ethernet access network and receiving from the head end management data; and managing the packet services of the Ethernet access network through a packet OSS, providing to the head end management instructions that are subsequently carried out on the Ethernet access network and receiving from the head end management data.
An oligomeric compound 15 to 30 monomeric subunits in length targeted to a miRNA, comprising a first region and a second region, wherein at least one region contains a modification, and wherein the oligomeric compound has at least 85% sequence complementarity to a target region within the miRNA, for use in therapy.
Roller shade including a flexible sheet member having opposite parallel first and second edges (11, 13), a roller shaft rotatable in each of two opposite directions of rotation, the flexible sheet member being attached along its first edge to the roller shaft in a longitudinal direction thereof, the second edge of the flexible sheet member being freely depending from the roller shaft, so as to define a raised position of the roller shade in which the flexible sheet member is fully wound about the roller shaft and a lowered position in which the flexible sheet member is fully unwound from the roller shaft, the roller shade further comprising a counterbalancing device for balancing a portion of the flexible sheet member that is unwound from the roller shaft, the counterbalancing device having means for storing a variable torque complementary to a variable weight of the portion of flexible sheet member that is depending from the roller shaft, wherein the variable torque stored in the means for storing variable torque prevents rotation of the roller shaft due to the variable weight of the portion of flexible sheet member depending from the roller shaft in any position between the fully wound and the fully unwound position and increases as the second edge of the flexible sheet member is lowered, and wherein the means for storing variable torque includes a helically wound tension spring; wherein the helically wound tension spring is operatively interposed between a stationary central rod and the roller shaft; wherein one end of the helically wound tension spring is keyed to the stationary central rod by a spring holder and is keyed at an opposite end to the roller shaft by a spring winder; wherein the stationary central rod extends axially through the spring winder; characterized in that the counterbalancing device further includes a screw threaded shaft connected axially to the stationary central rod, which screw threaded shaft is engaged by a female screw thread inside of the spring winder.
An inspection assembly (110, 210) for imaging the internal surface of a pipe or conduit comprising: - an elongate housing (116, 216); - a sideview camera within the housing and arranged to capture an image of a region within a field of view external to the housing (116, 216); and - a viewport element (114, 214) mounted in the housing (116, 216) and located such that light is transmitted through the viewport element (114, 214) and into said sideview camera, characterised in that the viewport element (114, 214) is diffusion bonded to a metal support (166, 266) around a circumferential edge of the viewport element (114, 214). - an elongate housing (116, 216); - a sideview camera within the housing and arranged to capture an image of a region within a field of view external to the housing (116, 216); and - a viewport element (114, 214) mounted in the housing (116, 216) and located such that light is transmitted through the viewport element (114, 214) and into said sideview camera,
Method for determining a thickness (d) of rolling stock, in particular a rolling strip or a metal plate, during rolling of the rolling stock by means of a rolling mill, wherein - a base measurement value for the thickness (d) is measured with the aid of a radiation measurement system in contactless fashion, in which case the radiation measurement system is integrated in the rolling mill, characterised in that - a reference measurement value for the thickness (d) is measured by means of an ultrasonic measurement head which is likewise integrated in the rolling mill, and - the reference measurement value is used in order to eliminate the influence of errors on the base measurement value. - a base measurement value for the thickness (d) is measured with the aid of a radiation measurement system in contactless fashion, in which case the radiation measurement system is integrated in the rolling mill, - a reference measurement value for the thickness (d) is measured by means of an ultrasonic measurement head which is likewise integrated in the rolling mill, and - the reference measurement value is used in order to eliminate the influence of errors on the base measurement value.
A computer-implemented method, comprising: detecting, by an application executing on a processor of a device, a tap of a contactless card to the device; wherein the application is an account application; receiving, by the application executing on a processor of a device from the contactless card, action data used to determine an action associated with the tap of the contactless card to the device; generating, by a machine learning model executing on the processor, a plurality of predicted actions based on the action data, wherein the ML model is trained based on training data describing a plurality of actions performed responsive to a plurality of taps of a plurality of contactless cards to a plurality of computing devices; computing, by the ML model, a respective score for each of the predicted actions, wherein each score reflects a respective likelihood that the corresponding predicted action is intended as the action; and selecting, by the ML model, a first predicted action of the plurality of predicted actions based on the score of the first predicted action being greater than the remaining scores;; and initiating, by the application, performance of the first predicted action. detecting, by an application executing on a processor of a device, a tap of a contactless card to the device; wherein the application is an account application; receiving, by the application executing on a processor of a device from the contactless card, action data used to determine an action associated with the tap of the contactless card to the device; generating, by a machine learning model executing on the processor, a plurality of predicted actions based on the action data, wherein the ML model is trained based on training data describing a plurality of actions performed responsive to a plurality of taps of a plurality of contactless cards to a plurality of computing devices; computing, by the ML model, a respective score for each of the predicted actions, wherein each score reflects a respective likelihood that the corresponding predicted action is intended as the action; and selecting, by the ML model, a first predicted action of the plurality of predicted actions based on the score of the first predicted action being greater than the remaining scores;; and initiating, by the application, performance of the first predicted action.
Method for manufacturing an electrode assembly for a battery cell, whereat an adhesive layer is applied on a continuous first separator sheet and on a continuous second separator sheet, segments (31, 32) of a first electrode (21, 22) are placed on said adhesive layer, between the continuous first separator sheet and the continuous second separator sheet; segments (31, 32) of the second electrode (21, 22) are placed on said adhesive layer, on an opposite side of the first separator sheet in respect of the segments (31, 32) of the first electrode (21, 22) and on an opposite side of the second separator sheet in respect of the segments (31, 32) of the first electrode (21, 22), alternately on the first separator sheet and on the second separator sheet such that a tape element is formed; and the tape element is folded such that the segments (31, 32) of the first electrode (21, 22) and the segments (31, 32) of the second electrode (21, 22) are aligned in a stacking direction (z), whereat the segments (31, 32) of the first electrode (21, 22) are laminated between the first separator sheet and the second separator sheet by using a heat pressing roll which presses on the first separator sheet or on the second separator sheet. segments (31, 32) of a first electrode (21, 22) are placed on said adhesive layer, between the continuous first separator sheet and the continuous second separator sheet; segments (31, 32) of the second electrode (21, 22) are placed on said adhesive layer, on an opposite side of the first separator sheet in respect of the segments (31, 32) of the first electrode (21, 22) and on an opposite side of the second separator sheet in respect of the segments (31, 32) of the first electrode (21, 22), alternately on the first separator sheet and on the second separator sheet such that a tape element is formed; and the tape element is folded such that the segments (31, 32) of the first electrode (21, 22) and the segments (31, 32) of the second electrode (21, 22) are aligned in a stacking direction (z), whereat the segments (31, 32) of the first electrode (21, 22) are laminated between the first separator sheet and the second separator sheet by using a heat pressing roll which presses on the first separator sheet or on the second separator sheet.
An electrocaloric module (10; 310), comprising a housing; an electrocaloric element in the housing, the electrocaloric element comprising an electrocaloric film, a first electrode on a first surface of the electrocaloric film, and a second electrode on a second surface of the electrocaloric film; a first thermal connection configured to connect to a first thermal flow path between the electrocaloric element and a heat sink; a second thermal connection configured to connect to a second thermal flow path between the electrocaloric element and a heat source; and a power connection connected to the electrodes configured to connect to a power source; characterized by an embedded electronic component (32, 34, 56) configured to perform an ancillary or secondary function associated with generation or transfer of heat energy so as to not be directly involved in the generation or transmission of heat energy, wherein the embedded electronic component is selected from a resistor, a diode, a Zener diode, an inductor, a capacitor, a piezoelectric element, a current sensor, a fusible link, or interdigitated electrodes. a housing; an electrocaloric element in the housing, the electrocaloric element comprising an electrocaloric film, a first electrode on a first surface of the electrocaloric film, and a second electrode on a second surface of the electrocaloric film; a first thermal connection configured to connect to a first thermal flow path between the electrocaloric element and a heat sink; a second thermal connection configured to connect to a second thermal flow path between the electrocaloric element and a heat source; and a power connection connected to the electrodes configured to connect to a power source; characterized by an embedded electronic component (32, 34, 56) configured to perform an ancillary or secondary function associated with generation or transfer of heat energy so as to not be directly involved in the generation or transmission of heat energy, wherein the embedded electronic component is selected from a resistor, a diode, a Zener diode, an inductor, a capacitor, a piezoelectric element, a current sensor, a fusible link, or interdigitated electrodes.
A package structure for a chemical system, comprising: a first substrate; a second substrate, opposing to the first substrate; an inner glue frame, disposed between the first substrate and the second substrate for forming an accommodating space, and a chemical system accommodated in the accommodating space; and a first outer glue frame, disposed between the first substrate and the second substrate, and located on an outer side of the inner glue frame; wherein the inner glue frame is selected from a thermosetting plastic and the first outer glue frame is selected from a thermoplastic characterized in that the package structure further comprises a second outer glue frame, disposed between the first substrate and the second substrate, located on an outer side of the first outer glue frame, and selected from the thermosetting plastic. a first substrate; a second substrate, opposing to the first substrate; an inner glue frame, disposed between the first substrate and the second substrate for forming an accommodating space, and a chemical system accommodated in the accommodating space; and a first outer glue frame, disposed between the first substrate and the second substrate, and located on an outer side of the inner glue frame; wherein the inner glue frame is selected from a thermosetting plastic and the first outer glue frame is selected from a thermoplastic characterized in that the package structure further comprises a second outer glue frame, disposed between the first substrate and the second substrate, located on an outer side of the first outer glue frame, and selected from the thermosetting plastic.