mhurhangee/ep-ind-claims huggingface dataset:
A time delay and integration, TDI, scanner comprising: a dynamically programmable focal plane array including a two-dimensional array of detectors arranged in a plurality of columns and a plurality of rows, the array of detectors being divided into a plurality of banks (210, 220, 230, 240) separated from one another by gap regions, each bank (210, 220, 230, 240) including a plurality of sub-banks (272, 274), and each sub-bank (272, 274) including at least one row of detectors; a read-out integrated circuit, ROIC, coupled to the focal plane array, the ROIC being configured to combine in a TDI process outputs from detectors in each column of detectors in each sub-bank (272, 274) to provide, for each sub-bank (272, 274), a plurality of column output values; and a controller configured to program the focal plane array to selectively and dynamically set characteristics of the focal plane array, the characteristics including a size and a location within the two-dimensional array of each of the plurality of sub-banks (272, 274), the size corresponding to a number of rows of detectors included in the respective sub-bank (272, 274), and locations of the gap regions within the two-dimensional array, wherein detectors within the two-dimensional array corresponding to the gap regions are inactive in the TDI process and are shunted to ground. a dynamically programmable focal plane array including a two-dimensional array of detectors arranged in a plurality of columns and a plurality of rows, the array of detectors being divided into a plurality of banks (210, 220, 230, 240) separated from one another by gap regions, each bank (210, 220, 230, 240) including a plurality of sub-banks (272, 274), and each sub-bank (272, 274) including at least one row of detectors; a read-out integrated circuit, ROIC, coupled to the focal plane array, the ROIC being configured to combine in a TDI process outputs from detectors in each column of detectors in each sub-bank (272, 274) to provide, for each sub-bank (272, 274), a plurality of column output values; and a controller configured to program the focal plane array to selectively and dynamically set characteristics of the focal plane array, the characteristics including a size and a location within the two-dimensional array of each of the plurality of sub-banks (272, 274), the size corresponding to a number of rows of detectors included in the respective sub-bank (272, 274), and locations of the gap regions within the two-dimensional array, wherein detectors within the two-dimensional array corresponding to the gap regions are inactive in the TDI process and are shunted to ground.
A nucleic acid comprising a promoter operably linked to a polynucleotide that encodes a chimeric protein, wherein the chimeric protein comprises a) a membrane targeting region; b) an FKBP multimeric ligand binding region; and c) a CD40 polypeptide cytoplasmic region wherein the CD40 polypeptide does not have a functional extracellular domain. a) a membrane targeting region; b) an FKBP multimeric ligand binding region; and c) a CD40 polypeptide cytoplasmic region wherein the CD40 polypeptide does not have a functional extracellular domain.
Electric shaver, comprising an elongated housing receiving an electric motor and/or an electric power source, a working head attached to said housing, wherein said housing includes an elongated base element and a cover element closing said base element and surrounding a connection connecting said electric motor and/or said electric power source to said working head, wherein said cover element is sealed to said base element and/or to said connection by at least one seal, wherein said at least one seal is integrally molded onto said cover element, said seal and said cover element forming an integral one-piece structure made from a soft-material component forming the seal and a hard-material component forming the cover element characterized in that said seal includes at least two sealing elements (401, 402) positioned on opposite end portions of said cover element, each of said sealing elements (401, 402) being integrally molded onto the cover element to form an integral one-piece structure thereof made from a soft-material component forming the sealing elements and a hard-material component forming the cover element.
A bearing arrangement with housing part, wherein a shaft is mounted in the housing part by means of a bearing, wherein the bearing is received in a continuous stepped bore in the housing part, wherein a cover part closes the stepped bore, wherein the cover part is connected non-positively to the housing part, wherein the cover part is received in the stepped bore, wherein a surface portion of the outside of the cover part is arranged in alignment with a step of the stepped bore, wherein a securing ring is arranged in a radially directed annular groove of the stepped bore axially between the bearing and the cover part, wherein the securing ring is spaced apart from the cover part, wherein the cover part is embodied in a pot shape, wherein the cover part has a base portion and a wall portion, and characterised in that a spacer ring is arranged axially between the securing ring and an outer ring of the bearing, the securing ring together with the spacer ring axially delimiting the outer ring of the bearing, and in that the wall thickness of the wall portion increases monotonically towards the base portion.
A method performed by a Network Data Analytics Function, NWDAF, the method comprising: determining to collect data for a slice attribute of a network slice, the slice attribute comprising a number of user equipment devices using the network slice and/or a number of data sessions using the network slice; requesting a first collecting network function to report first usage data for the network slice according to the slice attribute, the first usage data comprising a number of roaming user equipment devices using the network slice and/or a number of data sessions of roaming user equipment devices using the network slice; requesting a second collecting network function to report second usage data for the network slice according to the slice attribute, the second usage data comprising a number of non-roaming user equipment devices using the network slice and/or a number of data sessions of non-roaming user equipment devices using the network slice; determining whether a quota associated with the slice attribute is reached using the first usage data and second usage data; and notifying a network function in response to the quota being met, wherein the network function performs an enforcement action. determining to collect data for a slice attribute of a network slice, the slice attribute comprising a number of user equipment devices using the network slice and/or a number of data sessions using the network slice; requesting a first collecting network function to report first usage data for the network slice according to the slice attribute, the first usage data comprising a number of roaming user equipment devices using the network slice and/or a number of data sessions of roaming user equipment devices using the network slice; requesting a second collecting network function to report second usage data for the network slice according to the slice attribute, the second usage data comprising a number of non-roaming user equipment devices using the network slice and/or a number of data sessions of non-roaming user equipment devices using the network slice; determining whether a quota associated with the slice attribute is reached using the first usage data and second usage data; and notifying a network function in response to the quota being met, wherein the network function performs an enforcement action.
Aircraft automatic braking system, comprising means for acquiring deceleration rates (Rd) suitable for being imparted to the aircraft by the automatic braking system, and separate functional modules comprising: - a first functional module arranged in order to implement a state machine that includes a first branch comprising first states corresponding to a landing of the aircraft, a second branch comprising second states corresponding to a rejected take-off of the aircraft, and transitions between the first states and the second states, the first states, the second states and the transitions being defined independently of the deceleration rates; - a second functional module arranged in order to define a target deceleration (Td) of the aircraft on the basis of at least the deceleration rates and a current state of the state machine, said current state being either one of the first states or one of the second states; - a third functional module arranged in order to define, on the basis of at least the current state and the target deceleration, an automatic braking command (Comm) in order to control actuators of wheel brakes of the aircraft. - a first functional module arranged in order to implement a state machine that includes a first branch comprising first states corresponding to a landing of the aircraft, a second branch comprising second states corresponding to a rejected take-off of the aircraft, and transitions between the first states and the second states, the first states, the second states and the transitions being defined independently of the deceleration rates; - a second functional module arranged in order to define a target deceleration (Td) of the aircraft on the basis of at least the deceleration rates and a current state of the state machine, said current state being either one of the first states or one of the second states; - a third functional module arranged in order to define, on the basis of at least the current state and the target deceleration, an automatic braking command (Comm) in order to control actuators of wheel brakes of the aircraft.
A method for receiving, by a user equipment, UE, extended access barring, EAB, parameters in a wireless communication system, the method comprising: receiving, by a radio resource control, RRC, layer of the UE, an EAB parameter via a system information block -14, SIB-14, message; receiving, by the RRC layer of the UE, an EAB parameter modification, which indicates that the EAB parameter is to be modified, via a paging message, wherein the received EAB parameter is invalidated upon receiving the EAB parameter modification; receiving, by the RRC layer of the UE, a request for initiation of a RRC connection establishment from a non-access stratum, NAS, layer of the UE; waiting, by the RRC layer of the UE, for receiving a modified EAB parameter; receiving, by the RRC layer of the UE, the modified EAB parameter via the SIB-14 message; and applying, by the RRC layer of the UE, EAB for the RRC connection establishment according to the modified EAB parameter. receiving, by a radio resource control, RRC, layer of the UE, an EAB parameter via a system information block -14, SIB-14, message; receiving, by the RRC layer of the UE, an EAB parameter modification, which indicates that the EAB parameter is to be modified, via a paging message, wherein the received EAB parameter is invalidated upon receiving the EAB parameter modification; receiving, by the RRC layer of the UE, a request for initiation of a RRC connection establishment from a non-access stratum, NAS, layer of the UE; waiting, by the RRC layer of the UE, for receiving a modified EAB parameter; receiving, by the RRC layer of the UE, the modified EAB parameter via the SIB-14 message; and applying, by the RRC layer of the UE, EAB for the RRC connection establishment according to the modified EAB parameter.
An electrochemical deposition apparatus for the deposition of a metal on a substrate, the apparatus comprising a plating tank holding a plating electrolyte and a refreshing tank in fluidic connection (200/210) to the plating tank for refreshing the plating electrolyte, wherein the plating tank comprises an inert electrode electrically connected to the substrate by a rectifier, and wherein the refreshing tank comprises a first compartment and a second compartment, the compartments (410/420) are separated from each other by a semi permeable separation means, wherein the first compartment comprises at least one soluble anode of a metal to be deposited on the substrate and the second compartment comprises at least one inert electrode, the inert electrode and the soluble anode are electrically connected to a rectifier, characterized in that the at least one soluble anode is at least during operation of the apparatus in liquid state and that the electrical conductivity between the electrolyte in the plating tank and electrolyte in the refreshing tank is ≤ 1*10 -4 S, wherein the apparatus comprises a drop section within the fluidic connection between plating tank and the refreshing tank.
An aerosol-generating article comprising: an aerosol-forming substrate; and a hollow tubular support element disposed immediately downstream of the aerosol-forming substrate, the hollow tubular support element comprising fibrous filtration material, wherein the hollow tubular support element defines an opening for aerosol to flow from the aerosol-forming substrate towards the mouth end of the article, and wherein at least a portion of the material of the hollow tubular support element inwardly projects into the opening to define one or more internal projections. an aerosol-forming substrate; and a hollow tubular support element disposed immediately downstream of the aerosol-forming substrate, the hollow tubular support element comprising fibrous filtration material, wherein the hollow tubular support element defines an opening for aerosol to flow from the aerosol-forming substrate towards the mouth end of the article, and wherein at least a portion of the material of the hollow tubular support element inwardly projects into the opening to define one or more internal projections.
An apparatus for quality control of a superconducting tape comprising (a) at least two rolls (41, 42, 43, 43) contacting the superconducting tape and being suitable for injecting an electric current into the superconducting tape and (b) at least two measuring contacts (82, 83, 84, 85) contacting the superconducting tape and being suitable for measuring an electric voltage along the superconducting tape and (c) a cooling section suitable for cooling the superconducting tape below its critical temperature, wherein the at least two rolls and the at least two measuring contacts are located inside the cooling section and wherein the cooling section is suitable for keeping the at least two rolls at a first temperature and the at least two measuring contacts at a second temperature, wherein the first temperature is lower than the second temperature. (a) at least two rolls (41, 42, 43, 43) contacting the superconducting tape and being suitable for injecting an electric current into the superconducting tape and (b) at least two measuring contacts (82, 83, 84, 85) contacting the superconducting tape and being suitable for measuring an electric voltage along the superconducting tape and (c) a cooling section suitable for cooling the superconducting tape below its critical temperature, wherein the at least two rolls and the at least two measuring contacts are located inside the cooling section and wherein the cooling section is suitable for keeping the at least two rolls at a first temperature and the at least two measuring contacts at a second temperature, wherein the first temperature is lower than the second temperature.
Sensor assembly for force or pressure measurement for installation in a device, in particular in a fuel injector for needle closing time detection, comprising at least one sensor element (1, 1a, 1b) made of a piezoelectric material and having two end faces lying parallel to each other, each of which forms or accommodates an electrode, characterized in that the sensor element (1, 1a, 1b) is surrounded by a cage (3, 3a, 3b, 3c, 3d, 3e) in the region of its side faces, and underneath one end face of the sensor element there is arranged an electrode, which is firmly connected to the cage (3, 3a, 3b), wherein underneath the electrode there is arranged a force distribution plate fabricated from an insulating material with high rigidity, and the material of the cage (3, 3a, 3b, 3c, 3d, 3e) is plastic, wherein the sensor element has metallizations (2aa, 2ab) at the front, and the electrode is arranged underneath the metallization and is connected to a busbar.
A method of forming a power semiconductor module, the method comprising: providing a substrate of planar sheet metal; forming channels in an upper surface of the substrate that partially extend through a thickness of the substrate and define a plurality of islands in the substrate; mounting a first semiconductor die on a first one of the islands; forming a molded body of encapsulant that covers the substrate, fills the channels, and encapsulates the semiconductor die; characterized by forming a hole in the molded body and a recess in the upper surface of the substrate beneath the hole in a single process step that completely penetrates the molded body and subsequently partially penetrates the substrate, and arranging a press-fit connector in the hole and forming a mechanical and electrical connection between an interior end of the press-fit connector and the substrate. providing a substrate of planar sheet metal; forming channels in an upper surface of the substrate that partially extend through a thickness of the substrate and define a plurality of islands in the substrate; mounting a first semiconductor die on a first one of the islands; forming a molded body of encapsulant that covers the substrate, fills the channels, and encapsulates the semiconductor die; characterized by forming a hole in the molded body and a recess in the upper surface of the substrate beneath the hole in a single process step that completely penetrates the molded body and subsequently partially penetrates the substrate, and arranging a press-fit connector in the hole and forming a mechanical and electrical connection between an interior end of the press-fit connector and the substrate.
A vibrotactile display comprising plurality of vibrotactile actuators arranged in a predetermined array on a wearable item, wherein the array of vibrotactile actuators is a linear pattern, the wearable item configured to be worn by an individual on a predetermined portion of the body, the vibrotactile display further comprising an actuator controller coupled to the plurality of vibrotactile actuators and programmed to actuate the plurality of vibrotactile actuators to: impart a vibrotactile sensation to the individual that indicates a progress of the transfer of information from a first electronic device to a second electronic device by activating by activating the vibrotactile actuators sequentially, and impart a vibrotactile sensation to the individual that indicates a completion of the transfer of information from the first electronic device to the second electronic device. impart a vibrotactile sensation to the individual that indicates a progress of the transfer of information from a first electronic device to a second electronic device by activating by activating the vibrotactile actuators sequentially, and impart a vibrotactile sensation to the individual that indicates a completion of the transfer of information from the first electronic device to the second electronic device. impart a vibrotactile sensation to the individual that indicates a completion of the transfer of information from the first electronic device to the second electronic device.
Air purification device (1, 21), consisting of a housing (2, 22) having at least one inlet opening (2, 23) for supply of an air flow (9, 29) and at least one outlet opening (4, 24) for discharge of the air flow (9, 29) supplied by way of the inlet opening (3, 23), wherein at least one air purifying unit (5, 25) and at least one lighting unit (6, 26) are arranged in the housing (2, 22), wherein the at least one air purifying unit (5, 25) and the at least one lighting unit (6, 26) are arranged opposite one another in the housing (2, 22), the at least one air purifying unit (5, 25) has at least one photocatalytically active surface region (7, 27) and the air flow (9, 29) is guided in the housing (2, 22) at least partially along the at least one photocatalytically active surface region (7, 27) of the at least one air purifying unit (5, 25), wherein the at least one photocatalytically active surface region (7, 27) of the at least one air purifying unit (5, 25) can be irradiated with light by the at least one lighting unit (6, 26) and the at least one photocatalytically active surface region is coated at least partly with titanium dioxide (TiO 2) or doped with titanium dioxide ions (TiO 2 ions), characterised in that the at least one air purifying unit (5, 25) consists of two air purifying units (5, 25) arranged opposite one another at the inner walls of the housing (2, 22), wherein the at least one lighting unit (6, 26) is arranged in the housing (2, 22) in the centre of the housing (2, 22) to traverse this in a plane so that the light emitted by the at least one lighting unit (6, 26) is incident almost in its entirety on the two air purifying units (5, 25), wherein the two air purifying units are shaped on the side having the catalytically active surface region (7, 27) with a conical, pleated, cylindrical, frusto-conical, frusto-pyramidal, spherical or hemispherical geometric form or are spiny and the at least one lighting unit (6, 26) has the form of a circuitboard having a plurality of light-emitting diodes arranged in rows and at an equidistant spacing from one another, wherein the circuitboard has a plurality of rows of light-emitting diodes on the upper side and on the lower side, and wherein air guide elements (8, 28) which deflect the air flow (9, 29) onto the at least one photocatalytically active surface region (7, 27) of the at least one air purifying unit (5, 25) are arranged in the housing (2, 22).
A computer-implemented method of generating a respiratory status classifier, the method comprising: segmenting collected respiratory signals into respiratory cycles, wherein a respiratory cycle is a cycle in which a person inhales and exhales; acquiring data pairs of a power spectrum of frequency components and a designated respiratory status indication value for each of respiratory signals corresponding to a plurality of selected respiratory cycles among the segmented cycle-specific respiratory signals; selecting specific frequency components from among the frequency components; and training a respiratory status classifier using data pairs of a power spectrum value of the selected specific frequency components and the designated respiratory status indication value. segmenting collected respiratory signals into respiratory cycles, wherein a respiratory cycle is a cycle in which a person inhales and exhales; acquiring data pairs of a power spectrum of frequency components and a designated respiratory status indication value for each of respiratory signals corresponding to a plurality of selected respiratory cycles among the segmented cycle-specific respiratory signals; selecting specific frequency components from among the frequency components; and training a respiratory status classifier using data pairs of a power spectrum value of the selected specific frequency components and the designated respiratory status indication value.