mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a wireless device for transmitting a random access preamble, the method comprising: receiving system information indicating a location within a time-frequency grid, wherein the system information comprises a system information block type 2, SIB2, wherein, for each of a given number of narrowband physical random access channel, NPRACH, bands, three bits in SIB2 indicate a tone index corresponding to the starting subcarrier of that NPRACH band, wherein each NPRACH band comprises a plurality of subcarriers and corresponds to a different coverage class; selecting one of the indicated tone indices based on a coverage class, wherein the selected tone index is associated with a first NPRACH band; determining a location within a frequency band for transmitting the random access preamble based on the selected tone index (S110); and causing transmission of a random access preamble using the determined location within the frequency band. receiving system information indicating a location within a time-frequency grid, wherein the system information comprises a system information block type 2, SIB2, wherein, for each of a given number of narrowband physical random access channel, NPRACH, bands, three bits in SIB2 indicate a tone index corresponding to the starting subcarrier of that NPRACH band, wherein each NPRACH band comprises a plurality of subcarriers and corresponds to a different coverage class; selecting one of the indicated tone indices based on a coverage class, wherein the selected tone index is associated with a first NPRACH band; determining a location within a frequency band for transmitting the random access preamble based on the selected tone index (S110); and causing transmission of a random access preamble using the determined location within the frequency band.
System for monitoring a fixing anchor - carrying cable combination comprising a fixing anchor attached to building walls or support structures for tensioned cables for street lighting or tensioned cables in the form of overhead lines, high-voltage lines or cable car carrying cables, comprising a device for detecting the relative position between a stationary fixing anchor attached to a support structure and a tensioned carrying cable attached to the fixing anchor at the end, comprising a position detection unit that is directly or indirectly attached to the fixing anchor or to the support structure and includes an incremental encoder as well as an arm element with two arm ends, whose one arm end is joined directly or indirectly to the incremental encoder and the other arm end is joined directly or indirectly to the carrying cable , wherein a power supply unit connected to the incremental encoder and a first data transmission unit are provided, which are combined jointly with the position detection unit in the form of a structural unit which is attached to the carrying structure or to the fixing anchor and a second data transmission unit as well as a control and evaluation unit are provided separately to the support structure which generates a signal on the basis of data transmitted by the first data transmission unit and a decision criterion.
A broadband amplifier comprising: a first transistor ; a second transistor ; and an impedance matching circuit , wherein the impedance matching circuit comprises: a first branch including: first parallel capacitors ; and a transmission line connected to an input terminal of the first transistor ; a second branch including: second parallel capacitors ; and a transmission line connected to an input terminal of the second transistor ; and a plurality of via holes , wherein one of the plurality of via holes is configured to connect an end of one of the first parallel capacitors and an end of one of the second parallel capacitors to a lower potential electrode in common, and another one of the plurality of via holes is configured to connect an end of another one of the first parallel capacitors and a source terminal or emitter of the first transistor to a lower potential electrode in common and a further one of the plurality of via holes is configured to connect another one of the second parallel capacitors and a source terminal or emitter of the second transistor to a lower potential electrode in common. a first transistor ; a second transistor ; and an impedance matching circuit , wherein the impedance matching circuit comprises: a first branch including: first parallel capacitors ; and a transmission line connected to an input terminal of the first transistor ; a second branch including: second parallel capacitors ; and a transmission line connected to an input terminal of the second transistor ; and a plurality of via holes , wherein one of the plurality of via holes is configured to connect an end of one of the first parallel capacitors and an end of one of the second parallel capacitors to a lower potential electrode in common, and another one of the plurality of via holes is configured to connect an end of another one of the first parallel capacitors and a source terminal or emitter of the first transistor to a lower potential electrode in common and a further one of the plurality of via holes is configured to connect another one of the second parallel capacitors and a source terminal or emitter of the second transistor to a lower potential electrode in common. a first branch including: first parallel capacitors ; and a transmission line connected to an input terminal of the first transistor ; a second branch including: second parallel capacitors ; and a transmission line connected to an input terminal of the second transistor ; and a plurality of via holes , wherein one of the plurality of via holes is configured to connect an end of one of the first parallel capacitors and an end of one of the second parallel capacitors to a lower potential electrode in common, and another one of the plurality of via holes is configured to connect an end of another one of the first parallel capacitors and a source terminal or emitter of the first transistor to a lower potential electrode in common and a further one of the plurality of via holes is configured to connect another one of the second parallel capacitors and a source terminal or emitter of the second transistor to a lower potential electrode in common.
An apparatus for evaluating brain health of a subject, the apparatus comprising: one or more electrodes (104, 108; 206, 208); one or more processors ; a computer-readable memory storing non-transient instructions that when executed by the one or more processors cause the apparatus to: provide, using the one or more electrodes (104, 108; 206, 208), electrical current to an ocular region of the subject; sense, using the one or more electrodes (104, 108; 206, 208), an electrical signal obtained from the ocular region of the subject, and determine a bioimpedance value of the subject from the electrical signal, wherein the bioimpedance value represents a bioimpedance for a conduction path that includes at least a portion of the ocular and brain regions of the subject; and determine a brain health indicator from the bioimpedance information. one or more electrodes (104, 108; 206, 208); one or more processors ; a computer-readable memory storing non-transient instructions that when executed by the one or more processors cause the apparatus to: provide, using the one or more electrodes (104, 108; 206, 208), electrical current to an ocular region of the subject; sense, using the one or more electrodes (104, 108; 206, 208), an electrical signal obtained from the ocular region of the subject, and determine a bioimpedance value of the subject from the electrical signal, wherein the bioimpedance value represents a bioimpedance for a conduction path that includes at least a portion of the ocular and brain regions of the subject; and determine a brain health indicator from the bioimpedance information. provide, using the one or more electrodes (104, 108; 206, 208), electrical current to an ocular region of the subject; sense, using the one or more electrodes (104, 108; 206, 208), an electrical signal obtained from the ocular region of the subject, and determine a bioimpedance value of the subject from the electrical signal, wherein the bioimpedance value represents a bioimpedance for a conduction path that includes at least a portion of the ocular and brain regions of the subject; and determine a brain health indicator from the bioimpedance information.
A dual PTGDR-1/PTGDR-2 antagonist for use for preventing and/or treating lupus nephritis.
A modular system for a body of a motor vehicle which comprises at least one electrically operable construction variant and a construction variant that can be operated by an internal combustion engine, having side sills common to the particular construction variants, which side sills have a hollow profile at least in a relevant length region, characterized in that in the case of the construction variant of the motor vehicle that can be operated by an internal combustion engine, each of the side sills has a hollow profile in the corresponding length region, and in that , in the electrically operable construction variant of the motor vehicle, in which a battery support frame can be fixed to the side sills by means of relevant fastening elements on associated fastening points of the side sills , wherein an associated reinforcing element specific to the structural variant is provided within each cavity of the corresponding side sill , which element extends between each of the side sill walls at least over the approximately entire width of the associated side sill .
A deep reach machining tool , comprising: a tool body ; and a swing arm cartridge that pivots relative to the tool body about an axis (T); characterised in that the deep reach machining tool further comprises: an open sensor that indicates that the swing arm cartridge is in an open position with respect to the tool body ; and a close sensor that indicates that the swing arm cartridge is in a closed position with respect to the tool body . a tool body ; and a swing arm cartridge that pivots relative to the tool body about an axis (T); characterised in that the deep reach machining tool further comprises: an open sensor that indicates that the swing arm cartridge is in an open position with respect to the tool body ; and a close sensor that indicates that the swing arm cartridge is in a closed position with respect to the tool body . an open sensor that indicates that the swing arm cartridge is in an open position with respect to the tool body ; and a close sensor that indicates that the swing arm cartridge is in a closed position with respect to the tool body .
An implantable device , comprising: a flexible cable comprising a lead-in part , a stimulation part and a connection part between the lead-in part and the stimulation part ; a circuit chip fixed to a surface of one side of the lead-in part and electrically connected to the lead-in part ; characterised by a fluid adhesion layer adhered to an outer side of the circuit chip and an outer side of the lead-in part ; and a vapor deposited layer directly deposited on an outer side of the fluid adhesion layer . a flexible cable comprising a lead-in part , a stimulation part and a connection part between the lead-in part and the stimulation part ; a circuit chip fixed to a surface of one side of the lead-in part and electrically connected to the lead-in part ; characterised by a fluid adhesion layer adhered to an outer side of the circuit chip and an outer side of the lead-in part ; and a vapor deposited layer directly deposited on an outer side of the fluid adhesion layer .
A scroll pump comprising: a scroll mechanism having an orbiting scroll and a fixed scroll ; a drive shaft having a concentric shaft portion and an eccentric shaft portion connected to the orbiting scroll, the shaft being arranged to be driven by a motor so that rotation of the shaft imparts an orbiting motion to the orbiting scroll relative to the fixed scroll for pumping fluid along a flow path from an inlet to an outlet of the scroll mechanism, and an axial lip seal located between the orbiting scroll and the fixed scroll for pressing against one of the scrolls with a sealing force characterised in that the sealing force is for resisting leakage of fluid from outside the scroll mechanism into the flow path and the lip seal is configured such that when there is an increase in pressure differential across the seal due to a reduction in pressure within the scroll pump the sealing force is increased.
A seal assembly for a gas turbine engine , the seal assembly comprising: a seal body coupled to an engine static structure of the gas turbine engine ; and a seal seat insert coupled to a radially extending portion of a shaft of the gas turbine engine ; wherein the seal body is configured to be biased into contact with the seal seat insert to provide a sealing pressure between the seal body and the seal seat insert , characterised by : the seal seat insert being made from a ceramic matrix composite including at least one of silicon carbide and silicon nitride; wherein the seal seat insert is retained within a recess defined by the shaft using an interference fit. a seal body coupled to an engine static structure of the gas turbine engine ; and a seal seat insert coupled to a radially extending portion of a shaft of the gas turbine engine ; wherein the seal body is configured to be biased into contact with the seal seat insert to provide a sealing pressure between the seal body and the seal seat insert , characterised by : the seal seat insert being made from a ceramic matrix composite including at least one of silicon carbide and silicon nitride; wherein the seal seat insert is retained within a recess defined by the shaft using an interference fit. the seal seat insert being made from a ceramic matrix composite including at least one of silicon carbide and silicon nitride; wherein the seal seat insert is retained within a recess defined by the shaft using an interference fit.
A method for transmitting feedback information by a terminal in a wireless communication system employing time division duplex, TDD, the method comprising: receiving data on a secondary cell, SCell; determining at least one subframe which is an uplink subframe in a primary cell, PCell, and the SCell based on a first TDD frame structure configuration of the PCell and a second TDD frame structure configuration of the SCell; identifying a third TDD frame structure configuration among a plurality of TDD frame structure configurations, whose set of uplink subframes consists of the determined at least one subframe; and transmitting ACK/NACK feedback information corresponding to the data received on the SCell, in an uplink subframe associated with the third TDD frame structure configuration on the PCell, by using a timing relationship between the data and the ACK/NACK feedback information according to the third TDD frame structure configuration, wherein the first TDD frame structure configuration and the second TDD frame structure configuration are different, and characterised in that ACK/NACK feedback information corresponding to a specific subframe which is an uplink subframe in the SCell within an ACK/ NACK bundling window according to the third TDD frame structure configuration, is not transmitted in the uplink subframe associated with the third TDD frame structure configuration. receiving data on a secondary cell, SCell; determining at least one subframe which is an uplink subframe in a primary cell, PCell, and the SCell based on a first TDD frame structure configuration of the PCell and a second TDD frame structure configuration of the SCell; identifying a third TDD frame structure configuration among a plurality of TDD frame structure configurations, whose set of uplink subframes consists of the determined at least one subframe; and transmitting ACK/NACK feedback information corresponding to the data received on the SCell, in an uplink subframe associated with the third TDD frame structure configuration on the PCell, by using a timing relationship between the data and the ACK/NACK feedback information according to the third TDD frame structure configuration, wherein the first TDD frame structure configuration and the second TDD frame structure configuration are different, and characterised in that ACK/NACK feedback information corresponding to a specific subframe which is an uplink subframe in the SCell within an ACK/ NACK bundling window according to the third TDD frame structure configuration, is not transmitted in the uplink subframe associated with the third TDD frame structure configuration.
An article of footwear comprising: a base plate including a forefoot region, a heel region, a longitudinal axis extending through the forefoot region and heel region , a forward edge , a rearward edge , a medial side , and a lateral side ; a first cleat disposed on the forefoot region of the base plate , the first cleat being disposed proximate the forward edge and the medial side , the first cleat including at least two straight segments forming an angle where the straight segments connect; a second cleat disposed on the heel region of the base plate , the second cleat being disposed proximate the rearward edge and the longitudinal axis of the base plate, the second cleat including at least two straight segments forming an angle where the straight segments connect; and a third cleat and a fourth cleat both disposed on the forefoot region , wherein the first cleat , the third cleat , and the fourth cleat are arranged so that the first cleat , the third cleat , and the fourth cleat are aligned with a perimeter of a circle that defines a portion of the forefoot region , wherein the straight segments of the first cleat meet at a first point and the first cleat is oriented so that the first point is directed in a direction between the forward edge and the medial side , characterized in that the third cleat and the fourth cleat include flat cleats each formed by a single segment. a base plate including a forefoot region, a heel region, a longitudinal axis extending through the forefoot region and heel region , a forward edge , a rearward edge , a medial side , and a lateral side ; a first cleat disposed on the forefoot region of the base plate , the first cleat being disposed proximate the forward edge and the medial side , the first cleat including at least two straight segments forming an angle where the straight segments connect; a second cleat disposed on the heel region of the base plate , the second cleat being disposed proximate the rearward edge and the longitudinal axis of the base plate, the second cleat including at least two straight segments forming an angle where the straight segments connect; and a third cleat and a fourth cleat both disposed on the forefoot region , wherein the first cleat , the third cleat , and the fourth cleat are arranged so that the first cleat , the third cleat , and the fourth cleat are aligned with a perimeter of a circle that defines a portion of the forefoot region , wherein the straight segments of the first cleat meet at a first point and the first cleat is oriented so that the first point is directed in a direction between the forward edge and the medial side , characterized in that the third cleat and the fourth cleat include flat cleats each formed by a single segment.
A solar cell module comprising: a solar cell panel including a front substrate , a plurality of solar cells , a rear substrate , a first sealing layer between the front substrate and the plurality of solar cells, and a second sealing layer between the plurality of solar cells and the rear substrate; a distribution box located on the rear surface of the solar cell panel and including wiring connected to the solar cell panel; and a light source , characterized in that the distribution box is provided with the light source with at least a portion of the light source being located at the distribution box, and the light source of the distribution box is configured to emit light to the front surface of the solar cell panel through the solar cell panel, if an error signal is detected. a solar cell panel including a front substrate , a plurality of solar cells , a rear substrate , a first sealing layer between the front substrate and the plurality of solar cells, and a second sealing layer between the plurality of solar cells and the rear substrate; a distribution box located on the rear surface of the solar cell panel and including wiring connected to the solar cell panel; and a light source , characterized in that the distribution box is provided with the light source with at least a portion of the light source being located at the distribution box, and the light source of the distribution box is configured to emit light to the front surface of the solar cell panel through the solar cell panel, if an error signal is detected.
Motor vehicle having a charging device for inductively charging a battery of a motor vehicle by means of a charging station , wherein the charging device has a secondary resonant circuit having a secondary capacitor (C s ) and a secondary coil (L s ), wherein a rectifier is connected between the secondary resonant circuit and the battery of the motor vehicle , wherein the battery (Bat) is charged in such a way that a primary resonant circuit of the charging station is charged and an AC voltage is transmitted to the secondary side by coupling a primary coil (L p ) to the secondary coil (L s ), wherein the charging device further comprises a measuring device designed to evaluate the time profile of the voltage amplitude of the secondary resonant circuit after an interruption of the excitation of the secondary resonant circuit by the primary resonant circuit in order detect a ferritic object between the primary coil (L P ) and the secondary coil (L s ), characterised in that the measuring device is designed to check whether the rectifier is blocking, wherein the measuring device is further designed to evaluate the time profile of the voltage amplitude of the secondary resonant circuit only when the rectifier is blocking. wherein the charging device has a secondary resonant circuit having a secondary capacitor (C s ) and a secondary coil (L s ), wherein a rectifier is connected between the secondary resonant circuit and the battery of the motor vehicle , wherein the battery (Bat) is charged in such a way that a primary resonant circuit of the charging station is charged and an AC voltage is transmitted to the secondary side by coupling a primary coil (L p ) to the secondary coil (L s ), wherein the charging device further comprises a measuring device designed to evaluate the time profile of the voltage amplitude of the secondary resonant circuit after an interruption of the excitation of the secondary resonant circuit by the primary resonant circuit in order detect a ferritic object between the primary coil (L P ) and the secondary coil (L s ), characterised in that the measuring device is designed to check whether the rectifier is blocking, wherein the measuring device is further designed to evaluate the time profile of the voltage amplitude of the secondary resonant circuit only when the rectifier is blocking.