mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving a sound signal at a hearing prosthesis system configured to deliver electrical and acoustic outputs to a recipient; identifying a plurality of components of the sound signal, wherein the plurality of components includes a tonal component and an atonal component; identifying a portion of the tonal component that is above a cross-over frequency, wherein the cross-over frequency corresponds to a frequency point below which the hearing prosthesis system delivers acoustic output to the recipient and above which the hearing prosthesis system delivers electrical output to the recipient; shifting the identified portion of the tonal component to a frequency range below the cross-over frequency; generating an acoustic stimulation signal based on the shifted and identified portion of the tonal component of the sound signal, wherein the acoustic stimulation signal is configured for application by a first stimulator to provide an acoustic output from the hearing prosthesis system; generating an electrical stimulation signal based on the atonal component of the sound signal, wherein the electrical stimulation signal is configured for application by a second stimulator to provide an electrical output from the hearing prosthesis system; applying, by the first stimulator, the acoustic stimulation signal to a recipient of the hearing prosthesis system; and applying, by the second stimulator, the electrical stimulation signal to a recipient of the hearing prosthesis system. receiving a sound signal at a hearing prosthesis system configured to deliver electrical and acoustic outputs to a recipient; identifying a plurality of components of the sound signal, wherein the plurality of components includes a tonal component and an atonal component; identifying a portion of the tonal component that is above a cross-over frequency, wherein the cross-over frequency corresponds to a frequency point below which the hearing prosthesis system delivers acoustic output to the recipient and above which the hearing prosthesis system delivers electrical output to the recipient; shifting the identified portion of the tonal component to a frequency range below the cross-over frequency; generating an acoustic stimulation signal based on the shifted and identified portion of the tonal component of the sound signal, wherein the acoustic stimulation signal is configured for application by a first stimulator to provide an acoustic output from the hearing prosthesis system; generating an electrical stimulation signal based on the atonal component of the sound signal, wherein the electrical stimulation signal is configured for application by a second stimulator to provide an electrical output from the hearing prosthesis system; applying, by the first stimulator, the acoustic stimulation signal to a recipient of the hearing prosthesis system; and applying, by the second stimulator, the electrical stimulation signal to a recipient of the hearing prosthesis system.
Sliding bearing arrangement of a rotary element on a bearing bolt, comprising a bearing bolt which has at least one lubricant channel which opens out on the outside of the bolt, a bearing sleeve which is arranged in a rotationally fixed manner on the said bearing bolt and has a first running surface which is formed on the outer periphery, and a rotary element which is rotatably mounted on the bearing sleeve and has a second running surface which is formed on the inner periphery and is mounted in a sliding manner on the first running surface, characterized in that the bearing sleeve has a radial groove, which is formed on the inner periphery and communicates with the radial lubricant channel, and at least one aperture which branches away radially from the said radial groove and is open in the direction of the rotary element, and in that the rotary element has a radial groove which is formed on the inner periphery and communicates with the aperture, wherein the first running surface is harder than the second running surface.
A method performed by a User Equipment, UE, configured to use Physical Uplink Control Channel, PUCCH, format 3 for Acknowledgement/Negative Acknowledgement, ACK/NACK, transmission in a Long Term Evolution, LTE, Time Division Duplex, TDD, wireless communication system, the method comprising: determining a PUCCH format for transmitting ACK/NACK information related with at least one of downlink transmission in a subframe set including M subframes, wherein the M is greater than 1; and transmitting the ACK/NACK information based on the PUCCH format, wherein the ACK/NACK information is transmitted based on PUCCH format 1a/1b when the ACK/NACK information is only related with one downlink transmission including one of: - a single Physical Downlink Shared Channel, PDSCH, received on a Primary Cell, PCell, and indicated by a corresponding Physical Downlink Control Channel, PDCCH, in which a Downlink Assignment Index, DAI, value in the PDCCH is equal to an initial value, - a single PDCCH indicating downlink Semi-Persistent Scheduling, SPS, release, received on the PCell and a DAI value in the single PDCCH is equal to the initial value, and - a single PDSCH without a corresponding PDCCH received on the PCell. determining a PUCCH format for transmitting ACK/NACK information related with at least one of downlink transmission in a subframe set including M subframes, wherein the M is greater than 1; and transmitting the ACK/NACK information based on the PUCCH format, wherein the ACK/NACK information is transmitted based on PUCCH format 1a/1b when the ACK/NACK information is only related with one downlink transmission including one of: - a single Physical Downlink Shared Channel, PDSCH, received on a Primary Cell, PCell, and indicated by a corresponding Physical Downlink Control Channel, PDCCH, in which a Downlink Assignment Index, DAI, value in the PDCCH is equal to an initial value, - a single PDCCH indicating downlink Semi-Persistent Scheduling, SPS, release, received on the PCell and a DAI value in the single PDCCH is equal to the initial value, and - a single PDSCH without a corresponding PDCCH received on the PCell. - a single Physical Downlink Shared Channel, PDSCH, received on a Primary Cell, PCell, and indicated by a corresponding Physical Downlink Control Channel, PDCCH, in which a Downlink Assignment Index, DAI, value in the PDCCH is equal to an initial value, - a single PDCCH indicating downlink Semi-Persistent Scheduling, SPS, release, received on the PCell and a DAI value in the single PDCCH is equal to the initial value, and - a single PDSCH without a corresponding PDCCH received on the PCell.
Projectile with an effector arrangement, the effector arrangement having a precursor charge and a main charge, the precursor charge and the main charge being spaced apart along a flight direction, and the precursor charge being arranged ahead of the main charge in the flight direction, the main charge being configured as a hollow charge, and the precursor charge being configured as a projectile-forming charge, with a housing, the effector arrangement being arranged in the housing, the housing having, in a region between the main charge and the precursor charge, openings for radial escape of a detonation pressure in the case of a detonation of the precursor charge, with a supporting structure which is arranged between the main charge and the precursor charge in the flight direction, the supporting structure spacing the main charge and the precursor charge apart in the flight direction, the supporting structure being configured to shield the main charge against a blast and/or splinter effect of the precursor charge, and to partially absorb loads and/or acceleration forces of the front projectile part which occur during firing of the projectile, and to relieve the housing. the effector arrangement having a precursor charge and a main charge, the precursor charge and the main charge being spaced apart along a flight direction, and the precursor charge being arranged ahead of the main charge in the flight direction, the main charge being configured as a hollow charge, and the precursor charge being configured as a projectile-forming charge, with a housing, the effector arrangement being arranged in the housing, the housing having, in a region between the main charge and the precursor charge, openings for radial escape of a detonation pressure in the case of a detonation of the precursor charge, with a supporting structure which is arranged between the main charge and the precursor charge in the flight direction, the supporting structure spacing the main charge and the precursor charge apart in the flight direction, the supporting structure being configured to shield the main charge against a blast and/or splinter effect of the precursor charge, and to partially absorb loads and/or acceleration forces of the front projectile part which occur during firing of the projectile, and to relieve the housing.
A method for fabricating a bioprosthetic heart valve; the method comprising: providing: a sheet of biological tissue; a sheet of a biocompatible material, and a stent, the stent having an upstream edge and a downstream edge as well as an inner surface and an outer surface, wherein the downstream edge of the stent is scalloped, the scalloped edge defining a plurality of posts with concave sections therebetween; attaching the biological tissue to the biocompatible material along a suture line; folding the biocompatible material to form a tubular structure with the attached biological tissue located on the inner surface of the tubular structure, the biological tissue forming the leaflets of the heart valve; securing the stent around the outer surface of the tubular structure such that the tubular structure extends in an upstream direction beyond the upstream edge of the stent and in a downstream direction beyond the downstream edge of the stent; cutting a region of the biocompatible material located in between each of the concave portions to form a flap of biocompatible material at the inner surface of each post of the stent; folding the biocompatible material at the cut region away from the biological tissue and around the downstream edge of the stent and securing it to the outer surface of the stent; and folding and attaching the biocompatible material at the upstream end of the tubular structure around the upstream edge of the stent so that the inner and outer surfaces of the stent are covered with no more than a single layer of the biocompatible material. providing: a sheet of biological tissue; a sheet of a biocompatible material, and a stent, the stent having an upstream edge and a downstream edge as well as an inner surface and an outer surface, wherein the downstream edge of the stent is scalloped, the scalloped edge defining a plurality of posts with concave sections therebetween; attaching the biological tissue to the biocompatible material along a suture line; folding the biocompatible material to form a tubular structure with the attached biological tissue located on the inner surface of the tubular structure, the biological tissue forming the leaflets of the heart valve; securing the stent around the outer surface of the tubular structure such that the tubular structure extends in an upstream direction beyond the upstream edge of the stent and in a downstream direction beyond the downstream edge of the stent; cutting a region of the biocompatible material located in between each of the concave portions to form a flap of biocompatible material at the inner surface of each post of the stent; folding the biocompatible material at the cut region away from the biological tissue and around the downstream edge of the stent and securing it to the outer surface of the stent; and folding and attaching the biocompatible material at the upstream end of the tubular structure around the upstream edge of the stent so that the inner and outer surfaces of the stent are covered with no more than a single layer of the biocompatible material.
A portable terminal comprising: a first antenna formed in an interior of the portable terminal; and a metal frame constructed as part of a case frame forming an exterior of the portable terminal, and divided into at least one first part and at least one second part electrically separated from the at least one first part characterized in that at least first part is electrically connected to the first antenna. a first antenna formed in an interior of the portable terminal; and a metal frame constructed as part of a case frame forming an exterior of the portable terminal, and divided into at least one first part and at least one second part electrically separated from the at least one first part characterized in that at least first part is electrically connected to the first antenna.
A steam boiler for municipal waste incineration comprising a combustion chamber comprising a combustion chamber cavity surrounded by combustion chamber walls, at least one or more consecutive flue-gas ducts (2, 14, 20) interconnected by openings for flue gas flow further connected the combustion chamber by means of an opening for flue gas flow, where each flue-gas duct (2, 14, 20) comprises a flue-gas duct cavity surrounded by flue-gas duct walls, where the steam boiler further comprises at least one evaporator for steam production, a feed pump connected to a water source, a steam drum, at least one heater (6, 15, 21) having an inlet connected through the feed pump to the water source, at least one heater (6, 15, 21) having an outlet connected to the steam drum, from which a steam piping of saturated steam extends, characterized in that the feed pump has two pumping parts, a low-pressure part for pressure 0.2 to 5.0 MPa, and a high-pressure part for pressure 5 to 17 MPa, wherein the low-pressure part has the inlet connected to the water source and the outlet connected to the inlet of at least one heater (6, 15) and the high-pressure part is provided between the outlet of at least one heater (6, 15) and the steam drum, and also in that the walls of the combustion chamber are completely or at least partially formed by heat exchange surfaces of the heater and/or evaporating surfaces. and further, all in the steam boiler included evaporators that are connected to the high-pressure part of the feed pump are located in the flue-gas ducts (2, 14, 20) and have inlet and outlet connected to the steam drum, and also in that the steam boiler contains no steam superheater.
An apparatus comprising: an aircraft wing (102, 104); a support linkage; a flap (112, 116) coupled to the aircraft wing via the support linkage; a sensor coupled to the flap at a location proximate to the support linkage, the sensor configured to generate vibration data for the location; and a detector communicatively coupled to the sensor, the detector configured to generate spectral data based on the vibration data and detect a skew condition based on a comparison of the spectral data to predetermined spectral data, wherein detecting the skew condition includes detecting a shift in a peak of the spectral data relative to a peak in the predetermined spectral data. an aircraft wing (102, 104); a support linkage; a flap (112, 116) coupled to the aircraft wing via the support linkage; a sensor coupled to the flap at a location proximate to the support linkage, the sensor configured to generate vibration data for the location; and a detector communicatively coupled to the sensor, the detector configured to generate spectral data based on the vibration data and detect a skew condition based on a comparison of the spectral data to predetermined spectral data, wherein detecting the skew condition includes detecting a shift in a peak of the spectral data relative to a peak in the predetermined spectral data.
A radio frequency identification, RFID, transponder, comprising: an active load modulation unit adapted to perform an active load modulation on transmitted signals by actively transmitting signals to an external device; an energy harvesting unit coupled to the active load modulation unit and adapted to harvest RF energy from an ambient environment, to convert the RF energy into DC energy, and to store the DC energy in an energy storage unit comprised in the energy harvesting unit, wherein the energy storage unit is adapted to supply the DC energy to the active load modulation unit, wherein the energy storage unit is further adapted to supply the DC energy to one or more other components of the RFID transponder, characterized in that the energy storage unit is adapted to supply the DC energy to the active load modulation unit and to the one or more other components based on a preset energy supply rule defining when and how the active load modulation unit and the one or more other components are charged by the energy storage unit, wherein, according to the preset energy supply rule, a priority order is used for the energy storage unit to supply the DC energy to the active load modulation unit and to the one or more other components. an active load modulation unit adapted to perform an active load modulation on transmitted signals by actively transmitting signals to an external device; an energy harvesting unit coupled to the active load modulation unit and adapted to harvest RF energy from an ambient environment, to convert the RF energy into DC energy, and to store the DC energy in an energy storage unit comprised in the energy harvesting unit, wherein the energy storage unit is adapted to supply the DC energy to the active load modulation unit, wherein the energy storage unit is further adapted to supply the DC energy to one or more other components of the RFID transponder, characterized in that the energy storage unit is adapted to supply the DC energy to the active load modulation unit and to the one or more other components based on a preset energy supply rule defining when and how the active load modulation unit and the one or more other components are charged by the energy storage unit, wherein, according to the preset energy supply rule, a priority order is used for the energy storage unit to supply the DC energy to the active load modulation unit and to the one or more other components.
A system for providing fault tolerance to a primary instance, the system comprising: a receiver operative to receive a copy of a first input transmitted to the primary instance; an input forwarder coupled with the receiver and operative to forward the copy of the first input to a backup instance, the backup instance being operative to generate a first backup result based on the forwarded copy of the first input; a fault detector coupled with the receiver and the primary instance and operative to wait, in response to the receiving of the copy of the first input, for the primary instance to transmit a first primary result based on the first input, characterised in that the fault detector is further operative to determine, based on a time-out thresholds, that the first primary result is not likely to be transmitted; and the system further comprising: a transaction inhibitor coupled with the fault detector and operative to prevent, based on the determination that the first primary result is not likely to be transmitted, the primary instance from completing a transaction that the primary instance is supposed to complete to continue operating; and a transmitter coupled with the backup instance and the fault detector and operative to transmit the first backup result when the first primary result is not likely to be transmitted. a receiver operative to receive a copy of a first input transmitted to the primary instance; an input forwarder coupled with the receiver and operative to forward the copy of the first input to a backup instance, the backup instance being operative to generate a first backup result based on the forwarded copy of the first input; a fault detector coupled with the receiver and the primary instance and operative to wait, in response to the receiving of the copy of the first input, for the primary instance to transmit a first primary result based on the first input, a transaction inhibitor coupled with the fault detector and operative to prevent, based on the determination that the first primary result is not likely to be transmitted, the primary instance from completing a transaction that the primary instance is supposed to complete to continue operating; and a transmitter coupled with the backup instance and the fault detector and operative to transmit the first backup result when the first primary result is not likely to be transmitted.
A system for degaussing a magnetized structure, the system comprising: a first circuit that provides a differential alternating current signal that decays from an upper level to a lower level over a predetermined amount of time; a first electrical coil coupled to the first circuit, wherein the first electrical coil circumscribes the magnetized structure, wherein the first electrical coil induces a decaying magnetic field on the magnetized structure in response to the differential AC signal to convert the magnetized structure into a degaussed structure; and a second electrical coil that is positioned in an interior portion of the magnetized structure, wherein a direct current signal is provided to the second electrical coil to induce an offset magnetic field on the degaussed structure. a first circuit that provides a differential alternating current signal that decays from an upper level to a lower level over a predetermined amount of time; a first electrical coil coupled to the first circuit, wherein the first electrical coil circumscribes the magnetized structure, wherein the first electrical coil induces a decaying magnetic field on the magnetized structure in response to the differential AC signal to convert the magnetized structure into a degaussed structure; and a second electrical coil that is positioned in an interior portion of the magnetized structure, wherein a direct current signal is provided to the second electrical coil to induce an offset magnetic field on the degaussed structure.