mhurhangee/ep-ind-claims huggingface dataset:
Method for providing a mobile terminal device with an authentication certificate, comprising: generating the authentication certificate, Cert A, for authentication of a user by means of the mobile terminal device, wherein the authentication certificate, Cert A, is generated by an identity manager in dependence on a first certificate, Cert 1, and a second certificate, Cert 2, wherein the first certificate, Cert 1, is based on secure information of a physical identity, wherein the physical identity is allocated to the user by the identity manager and uniquely identifies the user against third parties and wherein the second certificate, Cert 2, is based on secure information of a secure environment of the mobile terminal device; and storing the authentication certificate, Cert A, in the secure environment of the mobile terminal device; wherein the second certificate, Cert 2, is generated in the secure environment of the mobile terminal device. generating the authentication certificate, Cert A, for authentication of a user by means of the mobile terminal device, wherein the authentication certificate, Cert A, is generated by an identity manager in dependence on a first certificate, Cert 1, and a second certificate, Cert 2, wherein the first certificate, Cert 1, is based on secure information of a physical identity, wherein the physical identity is allocated to the user by the identity manager and uniquely identifies the user against third parties and wherein the second certificate, Cert 2, is based on secure information of a secure environment of the mobile terminal device; and storing the authentication certificate, Cert A, in the secure environment of the mobile terminal device; wherein the second certificate, Cert 2, is generated in the secure environment of the mobile terminal device.
A method of beam failure recovery in a wireless communications system, comprising: detecting (705; 1110), by a user equipment, UE (104, 164, 182; 204; 304; 504; 704; 804; 904), a beam failure of a first downlink beam received at the UE from a base station (102, 180; 222; 302; 502; 702; 802; 902); sending (730; 805, 820; 905, 920; 1005, 1020; 1120), by the UE to the base station, a random access channel, RACH, request identifying one or more candidate downlink beams received at the UE from the base station; and receiving (735; 810, 825; 910, 925; 1010, 1025; 1130), at the UE from the base station, a response to the RACH request, the response identifying a second downlink beam from the one or more candidate downlink beams to replace the first downlink beam and indicating a type of beam recovery associated with the second downlink beam for which the base station has reserved downlink beam resources; wherein the type of beam recovery is indicated by an identification of a different control resource set, CORESET, for each of a primary cell, PCell, recovery and a secondary cell, SCell, recovery; or wherein the type of beam recovery is indicated by an identification of the same CORESET scrambled with a different radio network temporary identifier, RNTI, for each of the PCell recovery and the SCell recovery; or wherein the type of beam recovery is indicated by the same CORESET, the same downlink control information, DCI, and different additional bits to distinguish the PCell recovery and the SCell recovery. detecting (705; 1110), by a user equipment, UE (104, 164, 182; 204; 304; 504; 704; 804; 904), a beam failure of a first downlink beam received at the UE from a base station (102, 180; 222; 302; 502; 702; 802; 902); sending (730; 805, 820; 905, 920; 1005, 1020; 1120), by the UE to the base station, a random access channel, RACH, request identifying one or more candidate downlink beams received at the UE from the base station; and receiving (735; 810, 825; 910, 925; 1010, 1025; 1130), at the UE from the base station, a response to the RACH request, the response identifying a second downlink beam from the one or more candidate downlink beams to replace the first downlink beam and indicating a type of beam recovery associated with the second downlink beam for which the base station has reserved downlink beam resources; wherein the type of beam recovery is indicated by an identification of the same CORESET scrambled with a different radio network temporary identifier, RNTI, for each of the PCell recovery and the SCell recovery; or wherein the type of beam recovery is indicated by the same CORESET, the same downlink control information, DCI, and different additional bits to distinguish the PCell recovery and the SCell recovery.
A modular power distribution system (10, 110) comprising: (a) a chassis; (b) a backplane including a plurality of module connection locations and a power input (26, 27); (c) a plurality of modules (14, 114) removably mounted in the chassis, each module mounted to a module connection location of the backplane, at least one of the plurality of modules including: (i) a circuit protection device operable at a plurality of selectable trip levels; (ii) a microprocessor configured to control the circuit protection device, to monitor outgoing current over time, to set a breaker trip level for a given load based on a learning algorithm, to calculate a margin of error, and to add the margin of error to create a load dependent trip level for each module (14, 114); (iii) an OR-ing diode configured to support redundant, dual feed, applications, wherein the heat dissipated by the OR-ing diode is evenly distributed in the chassis, thereby preventing a localized hot spot; and (iv) a port assembly (18, 118) configured to output power trough a single power output connector or a plurality of separate power output connectors. (a) a chassis; (b) a backplane including a plurality of module connection locations and a power input (26, 27); (c) a plurality of modules (14, 114) removably mounted in the chassis, each module mounted to a module connection location of the backplane, at least one of the plurality of modules including: (i) a circuit protection device operable at a plurality of selectable trip levels; (ii) a microprocessor configured to control the circuit protection device, to monitor outgoing current over time, to set a breaker trip level for a given load based on a learning algorithm, to calculate a margin of error, and to add the margin of error to create a load dependent trip level for each module (14, 114); (iii) an OR-ing diode configured to support redundant, dual feed, applications, wherein the heat dissipated by the OR-ing diode is evenly distributed in the chassis, thereby preventing a localized hot spot; and (iv) a port assembly (18, 118) configured to output power trough a single power output connector or a plurality of separate power output connectors. (i) a circuit protection device operable at a plurality of selectable trip levels; (ii) a microprocessor configured to control the circuit protection device, to monitor outgoing current over time, to set a breaker trip level for a given load based on a learning algorithm, to calculate a margin of error, and to add the margin of error to create a load dependent trip level for each module (14, 114); (iii) an OR-ing diode configured to support redundant, dual feed, applications, wherein the heat dissipated by the OR-ing diode is evenly distributed in the chassis, thereby preventing a localized hot spot; and (iv) a port assembly (18, 118) configured to output power trough a single power output connector or a plurality of separate power output connectors.
A control apparatus for a vehicle including an internal combustion engine capable of controlling an engine load, and a continuously variable transmission coupled to an output side of the internal combustion engine and capable of controlling an output speed of the internal combustion engine, the control apparatus comprising: exhaust purifying means, disposed in an exhaust system of the internal combustion engine, for purifying an exhaust gas while consuming a fuel; and operating state specifying means (B3, B4, S11, S12) for placing the internal combustion engine in an operating state that enables generation of a required torque while giving higher priority to reduction in an amount of a pollutant in the exhaust gas than to reduction in a fuel consumption amount when the exhaust purifying device is not effectively functioning, and placing the internal combustion engine in an operating state that enables generation of a required torque while giving higher priority to reduction in the fuel consumption amount to reduction in the amount of the pollutant in the exhaust gas when the exhaust purifying device is effectively functioning, wherein the exhaust purifying means functions effectively if the amount of the pollutant is reduced such that, for each output of the engine, the amount of the pollutant is equal to or smaller than a target amount. exhaust purifying means, disposed in an exhaust system of the internal combustion engine, for purifying an exhaust gas while consuming a fuel; and operating state specifying means (B3, B4, S11, S12) for placing the internal combustion engine in an operating state that enables generation of a required torque while giving higher priority to reduction in an amount of a pollutant in the exhaust gas than to reduction in a fuel consumption amount when the exhaust purifying device is not effectively functioning, and placing the internal combustion engine in an operating state that enables generation of a required torque while giving higher priority to reduction in the fuel consumption amount to reduction in the amount of the pollutant in the exhaust gas when the exhaust purifying device is effectively functioning, wherein the exhaust purifying means functions effectively if the amount of the pollutant is reduced such that, for each output of the engine, the amount of the pollutant is equal to or smaller than a target amount.
An antenna comprising: a first radiating arm connected to an antenna feed, the first radiating arm configured to resonate at a first frequency; a second radiating arm, wherein the second radiating arm and the first radiating arm are electrically connectable by a filter network, and configured to resonate at a second frequency lower than the first frequency, wherein the first radiating arm and the second radiating arm are of different widths; and wherein the filter network comprises a bandstop filter providing frequency filtering in a high frequency range and a bandpass filter, wherein the filter network is filtering an electrical connection between the first radiating arm and the second radiating arm, the filter network configured to: electrically isolate the first radiating arm from the second radiating arm at the first frequency, and electrically connect the first radiating arm and the second radiating arm at the second frequency. a first radiating arm connected to an antenna feed, the first radiating arm configured to resonate at a first frequency; a second radiating arm, wherein the second radiating arm and the first radiating arm are electrically connectable by a filter network, and configured to resonate at a second frequency lower than the first frequency, wherein the first radiating arm and the second radiating arm are of different widths; and wherein the filter network comprises a bandstop filter providing frequency filtering in a high frequency range and a bandpass filter, wherein the filter network is filtering an electrical connection between the first radiating arm and the second radiating arm, the filter network configured to: electrically isolate the first radiating arm from the second radiating arm at the first frequency, and electrically connect the first radiating arm and the second radiating arm at the second frequency. electrically isolate the first radiating arm from the second radiating arm at the first frequency, and electrically connect the first radiating arm and the second radiating arm at the second frequency.
A method for assessing the degree of hepatic fibrosis in a patient comprising: a) subjecting a reagent-free blood serum sample from said patient to infrared spectroscopy; b) comparing the resulting spectrum with reference spectra of stages of hepatic fibrosis; and, c) assigning the resulting spectrum to a reference spectrum, thereby detecting or/and staging hepatic fibrosis, wherein the resulting spectrum is measured in the infrared range from 400 to 4000 cm -1 or sub-regions thereof, and wherein the degree of hepatic fibrosis is selected from no hepatic fibrosis or non-significant hepatic fibrosis or severe hepatic fibrosis. a) subjecting a reagent-free blood serum sample from said patient to infrared spectroscopy; b) comparing the resulting spectrum with reference spectra of stages of hepatic fibrosis; and, c) assigning the resulting spectrum to a reference spectrum, thereby detecting or/and staging hepatic fibrosis,
An assembly for a drug delivery device, the assembly comprising at least one feedback feature being configured to indicate an end of a dispense operation to a user by giving an audible and/or tactile feedback and comprising an enhancement feature being configured to enhance the feedback of the feedback feature, characterised in that the at least one feedback feature comprises at least one snap feature which is configured to snap through when it is compressed above a certain load,thereby giving a feedback to a user, and wherein the feedback feature comprises the shape of a dome or the shape of an arched disc.
A system for data enrichment on insulated appliances, the system comprising: an appliance for performing knowledge mining in a disconnected state, wherein the appliance is operative to: ingest data of a first type from a first data source (164, 166, 168) coupled to the appliance; enrich at least a first portion of the ingested data, when in the disconnected state, with at least one of the cognitive functions (112, 113, 114, 115, 116, 117, 118) of the plurality of containerized cognitive functions; identify at least a second portion of the ingested data for enrichment by a cognitive function that is not within the plurality of containerized cognitive functions; store the enriched data in an index; determine whether the enriched data corresponds to any data items within a watch list; triage the ingested data and the enriched data in the index for uploading comprising prioritizing enriched data corresponding to items within the watch list; upload the triaged data when reconnected to a network; and import an updated plurality of containerized cognitive functions when reconnected. an appliance for performing knowledge mining in a disconnected state, wherein the appliance is operative to: ingest data of a first type from a first data source (164, 166, 168) coupled to the appliance; enrich at least a first portion of the ingested data, when in the disconnected state, with at least one of the cognitive functions (112, 113, 114, 115, 116, 117, 118) of the plurality of containerized cognitive functions; identify at least a second portion of the ingested data for enrichment by a cognitive function that is not within the plurality of containerized cognitive functions; store the enriched data in an index; ingest data of a first type from a first data source (164, 166, 168) coupled to the appliance; enrich at least a first portion of the ingested data, when in the disconnected state, with at least one of the cognitive functions (112, 113, 114, 115, 116, 117, 118) of the plurality of containerized cognitive functions; identify at least a second portion of the ingested data for enrichment by a cognitive function that is not within the plurality of containerized cognitive functions; store the enriched data in an index; determine whether the enriched data corresponds to any data items within a watch list; triage the ingested data and the enriched data in the index for uploading comprising prioritizing enriched data corresponding to items within the watch list; upload the triaged data when reconnected to a network; and import an updated plurality of containerized cognitive functions when reconnected. upload the triaged data when reconnected to a network; and import an updated plurality of containerized cognitive functions when reconnected.
A method of analyzing a cardiovascular disorder in an individual in need thereof, comprising: (a) obtaining a magnified image of a population of circulating endothelial cells (CECs) isolated from a blood sample obtained from the individual; and (b) comparing two or more morphological features of the population of circulating endothelial cells in the magnified image to a same morphological feature of a control or standard, wherein the morphological feature is: cellular area, nuclear area, ratio of cellular area to nuclear area, cell shape, nuclei shape, number of nuclei, number of circulating endothelial cells, or a combination thereof. (a) obtaining a magnified image of a population of circulating endothelial cells (CECs) isolated from a blood sample obtained from the individual; and (b) comparing two or more morphological features of the population of circulating endothelial cells in the magnified image to a same morphological feature of a control or standard, wherein the morphological feature is: cellular area, nuclear area, ratio of cellular area to nuclear area, cell shape, nuclei shape, number of nuclei, number of circulating endothelial cells, or a combination thereof.
An apparatus, comprising: one or more processing elements configured to: determine a respective wireless transmission energy budget for each of a plurality of time periods, wherein the wireless transmission energy budget for at least a first period is based on an amount of unused energy budget in a previous period; schedule wireless transmissions for the plurality of time periods based on the respective energy budgets; blank one or more scheduled transmissions in at least one of the time periods in response to a battery signal; and cause at least a portion of the scheduled wireless transmissions to be performed for the plurality of time periods, wherein a subset of the portion of the scheduled wireless transmissions are transmitted during a second period using a power back-off in response to a determination that a wireless transmission energy budget for the second period is within a threshold of a required power for the subset of the portion of the scheduled wireless transmissions. determine a respective wireless transmission energy budget for each of a plurality of time periods, wherein the wireless transmission energy budget for at least a first period is based on an amount of unused energy budget in a previous period; schedule wireless transmissions for the plurality of time periods based on the respective energy budgets; blank one or more scheduled transmissions in at least one of the time periods in response to a battery signal; and cause at least a portion of the scheduled wireless transmissions to be performed for the plurality of time periods, wherein a subset of the portion of the scheduled wireless transmissions are transmitted during a second period using a power back-off in response to a determination that a wireless transmission energy budget for the second period is within a threshold of a required power for the subset of the portion of the scheduled wireless transmissions.
A method for preparing a pre-exfoliated layered material, the method comprising mixing a natural or synthetic, modified or unmodified layered material with one or more plastics additives selected from the group consisting of ultraviolet light absorbers, hindered amine light stabilizers, antioxidants, colorants, flame retardants, antimicrobials and fatty acid additives and extruding the mixture; wherein the fatty acid additives are selected from alkali metal salts and alkaline earth metal salts of fatty acids; wherein the weight:weight ratio of said modified or unmodified layered material to said plastics additives is from about 10:90 to about 90:10.
An article comprising at least one non-transitory machine-readable storage medium comprising instructions executable by a processing resource of a device for memory space management to: receive, from a host, a space management request that identifies a virtual page address, wherein the virtual page address is associated with a compressed page that includes a compression metadata having a reference count that indicates a number of virtual pages of data in the compressed page; look up a virtual page table entry associated with the virtual page address in a virtual page table, wherein the virtual page table entry identifies the compressed page; mark the virtual page table entry as invalid without updating the reference count; determine whether each virtual page table entry that identifies the compressed page is marked invalid; based on the determination that each virtual page table entry that identifies the compressed page is invalid, update a free space bitmap entry for the compressed page to indicate that the compressed page is free. receive, from a host, a space management request that identifies a virtual page address, wherein the virtual page address is associated with a compressed page that includes a compression metadata having a reference count that indicates a number of virtual pages of data in the compressed page; look up a virtual page table entry associated with the virtual page address in a virtual page table, wherein the virtual page table entry identifies the compressed page; mark the virtual page table entry as invalid without updating the reference count; determine whether each virtual page table entry that identifies the compressed page is marked invalid; based on the determination that each virtual page table entry that identifies the compressed page is invalid, update a free space bitmap entry for the compressed page to indicate that the compressed page is free.
A battery module housing for a battery module (14, 16) of an electrical energy storage device having at least one battery cell, wherein the at least one battery cell undergoes a change in volume in accordance with a cell state, comprising at least one module frame which forms at least one pressure-regulating device, a first receiving region for the at least one battery cell and a second receiving region for the at least one pressure-regulating device of the battery module housing, wherein the pressure-regulating device can be at least partially in contact with the at least one battery cell in the assembled state of the battery module (14, 16) and is designed to adjust a predetermined pressure value on the battery cell in accordance with the change in volume, wherein the pressure-regulating device has at least one first tube-like and flexible pressure body and a separate second tube-like and flexible pressure body, wherein a movable intermediate pressure plate which is at least partially in contact with the first pressure body and the second pressure body is formed between the first pressure body and the second pressure body, wherein the first pressure body and/or the second pressure body has a reinforcement at respective edge regions and/or corner regions, characterized in that the first pressure body and/or the second pressure body are formed from a rubber-like material. the pressure-regulating device has at least one first tube-like and flexible pressure body and a separate second tube-like and flexible pressure body, wherein a movable intermediate pressure plate which is at least partially in contact with the first pressure body and the second pressure body is formed between the first pressure body and the second pressure body, wherein the first pressure body and/or the second pressure body has a reinforcement at respective edge regions and/or corner regions, characterized in that the first pressure body and/or the second pressure body are formed from a rubber-like material.