mhurhangee/ep-ind-claims huggingface dataset:
A medical apparatus for a patient comprising: an external system configured to transmit one or more transmission signals, each transmission signal comprising at least power or data, and the external system comprising an external device; and an implantable system configured to receive the one or more transmission signals from the external system; wherein the implantable system comprises an implantable device comprising an antenna, a power management assembly, an energy storage assembly, a pulse generator, and at least one functional element, wherein the power management assembly is configured to store energy in the energy storage assembly and provide energy to the implantable system, wherein the energy storage assembly is configured to provide power for the pulse generator, and the pulse generator is configured to deliver stimulation energy to the at least one functional element, wherein the at least one functional element comprises at least one energy delivery element, and wherein the power management assembly comprises a rectifier to produce an output voltage, a boost converter configured to boost the rectifier's output voltage to charge the energy storage assembly, and a regulator, the power management assembly being configured to control the current at which the boost converter charges the energy storage assembly to prevent the output voltage from falling below a threshold in order to optimize efficiency of the boost converter. an external system configured to transmit one or more transmission signals, each transmission signal comprising at least power or data, and the external system comprising an external device; and an implantable system configured to receive the one or more transmission signals from the external system; wherein the implantable system comprises an implantable device comprising an antenna, a power management assembly, an energy storage assembly, a pulse generator, and at least one functional element, wherein the power management assembly is configured to store energy in the energy storage assembly and provide energy to the implantable system, wherein the energy storage assembly is configured to provide power for the pulse generator, and the pulse generator is configured to deliver stimulation energy to the at least one functional element, wherein the at least one functional element comprises at least one energy delivery element, and wherein the power management assembly comprises a rectifier to produce an output voltage, a boost converter configured to boost the rectifier's output voltage to charge the energy storage assembly, and a regulator, the power management assembly being configured to control the current at which the boost converter charges the energy storage assembly to prevent the output voltage from falling below a threshold in order to optimize efficiency of the boost converter.
A closure assembly for securing an elongate stabilization element in a receiving part of a bone anchoring device, the closure assembly (7a, 7b, 7c, 7d, 7e) including a first closure member (70a, 70b, 70c, 70d, 70e) having an axis of rotation and an outer surface, a central passage axially located in and passing through the first closure member, an internal surface of the passage comprising an internal thread in at least a portion thereof; wherein the first closure member is configured to be received between a pair of legs (55, 56) of the receiving part of the bone anchoring device; a second closure member (700a, 700b, 700c, 700d, 700e) having an axis of rotation and an outer surface comprising an external thread configured to cooperate with the internal thread of the first closure member; characterized in that the external thread includes a multi-start thread comprising at least two starts (704, 707).
A method for transmitting system information, comprising: acquiring (101, 201), by a base station, a preset modification period of enhanced system information, wherein the enhanced system information is system information on which enhanced transmission needs to be performed, and wherein enhanced transmission refers to that information that needs to be transmitted to a terminal and that needs to be transmitted in multiple subframes for multiple times; the modification period of the enhanced system information is an integer multiple of a modification period of non-enhanced system information; and the non-enhanced system information is system information that is transmitted, based on scheduling by using a control channel, in a system information window; and transmitting (102, 202) the enhanced system information in an enhanced transmission manner in the modification period of the enhanced system information according to a configured time-sequence location, and wherein two adjacent transmission periods of the enhanced system information are separated by multiple transmission periods of the non-enhanced system information. acquiring (101, 201), by a base station, a preset modification period of enhanced system information, wherein the enhanced system information is system information on which enhanced transmission needs to be performed, and wherein enhanced transmission refers to that information that needs to be transmitted to a terminal and that needs to be transmitted in multiple subframes for multiple times; the modification period of the enhanced system information is an integer multiple of a modification period of non-enhanced system information; and the non-enhanced system information is system information that is transmitted, based on scheduling by using a control channel, in a system information window; and transmitting (102, 202) the enhanced system information in an enhanced transmission manner in the modification period of the enhanced system information according to a configured time-sequence location, and wherein two adjacent transmission periods of the enhanced system information are separated by multiple transmission periods of the non-enhanced system information.
Method for operating an automatic transmission of a motor vehicle, in particular a multi-stage automatic transmission, wherein the automatic transmission has at least five shift elements, wherein at least three shift elements are closed for the transmission of torque or transmission of power in each forward and reverse gear ratio, and wherein, in a neutral position of the automatic transmission, in order to safeguard the latter against an undesired torque-transmitting or power-transmitting connection, at least one of the shift elements that is closed in the respective forward gear ratio or reverse gear ratio is fully opened, characterized in that, in the neutral position of the automatic transmission, a first of the shift elements that is closed in the respective forward gear ratio or reverse gear ratio is fully opened, a second of the shift elements that is closed in the respective forward gear ratio or reverse gear ratio is partially filled such that it transmits no torque or approximately no torque, and a third of the shift elements that is closed in the respective forward gear ratio or reverse gear ratio is closed.
A method of fault prediction of a cyclically moving machine component, wherein each cycle of a plurality of cycles of a motion of the component generates a data distribution of values of measurable movement characteristics during a duration of each cycle, the method comprising, for each cycle; determining said data distribution of the movement characteristics, calculating a measure of central tendency of the values in the data distribution, calculating a quantified measure of a shape of the data distribution over the duration of each cycle, associating the measure of central tendency with said quantified measure of the shape as a coupled set of condition parameters, the method being characterized by the further steps of determining a degree of dispersion of a plurality of coupled sets of condition parameters associated with the plurality of cycles of a motion of the cyclically moving component, and comparing the degree of dispersion with a dispersion threshold value, or determining a trend of the degree of dispersion over time, for said fault prediction.
Set for affixing an element to a first surface of dentine, tooth enamel, bone tissue, or a corresponding substitute material, the set comprising the element to be affixed and a pre-treatment preparation, wherein the element comprises element surfaces to be brought into contact with said first surface and a first thermoplastic material constituting at least part of said element surfaces, wherein the pre-treatment preparation comprises solid bodies, the solid bodies being particles or fibers or being combined in a flat item and comprising a second thermoplastic material, wherein the pre-treatment preparation is in a liquid or paste-like condition and further comprises a curable component suitable for attaching the solid bodies to said first surface, and wherein the first and the second thermoplastic materials are capable to be welded together.
An apparatus for generating random numbers, comprising: a detection device sensitive to the pass-through of muons (μ) and suitable to provide a first detection signal (S md) representing at least one parameter associated with the pass-through of a single muon; a processing device configured to receive the first detection signal (S md) and to generate at least one random number as a function of a mathematical rule and of said at least one parameter wherein said at least one parameter associated with the first detection signal (S md1) comprises a first instant of time of the pass-through of a first muon (μ 1); the detection device being configured to provide a second detection signal (S md2) representing a second instant of time of the pass-through of a second muon (μ 2), delayed with respect to the first muon; and wherein the processing device is configured to determine a time difference (ΔT) between the first and the second instant of time and to generate the at least one random number as a function of the time difference. a detection device sensitive to the pass-through of muons (μ) and suitable to provide a first detection signal (S md) representing at least one parameter associated with the pass-through of a single muon; a processing device configured to receive the first detection signal (S md) and to generate at least one random number as a function of a mathematical rule and of said at least one parameter wherein said at least one parameter associated with the first detection signal (S md1) comprises a first instant of time of the pass-through of a first muon (μ 1); the detection device being configured to provide a second detection signal (S md2) representing a second instant of time of the pass-through of a second muon (μ 2), delayed with respect to the first muon; and wherein the processing device is configured to determine a time difference (ΔT) between the first and the second instant of time and to generate the at least one random number as a function of the time difference.
A GaAs single-crystal of uniformly-high crystal-quality -oriented GaAs plane-family having Δx not smaller than 0.3 cm -1 and not greater than 30 cm -1 which is expressed in an expression 2 below, where x k represents a Raman shift of a peak attributed to oscillation of a transverse optical phonon of GaAs in a Raman spectrum measured at a kth point in measurement of Raman spectra at t points in at least one plane of a plane and a plane equivalent to the plane, x BL represents a Raman shift of an emission line peak of neon, and k and t are each a natural number greater than 0 Δ x 2 = ∑ k = 1 t x k − x BL t and the GaAs single-crystal being an n-type GaAs single-crystal for an optical device.
A method of automated grouping of client devices for a user-defined network, UDN, the method comprising, at an access provider (120, 335): receiving, from a first client device (105, 305), an authentication request to join an access provider network, wherein the authentication request includes a unique identifier of the first client device for a federation-based network; transmitting the unique identifier to a UDN cloud; transmitting the authentication request to an identity provider (130, 350); receiving, responsive to the identity provider authenticating the authentication request, a list of one or more UDNs, from the UDN cloud, that are associated with the unique identifier; and joining, using the list of one or more UDNs, the first client device with one or more other client devices present on the access provider network listing a same UDN in which the first client device is included. receiving, from a first client device (105, 305), an authentication request to join an access provider network, wherein the authentication request includes a unique identifier of the first client device for a federation-based network; transmitting the unique identifier to a UDN cloud; transmitting the authentication request to an identity provider (130, 350); receiving, responsive to the identity provider authenticating the authentication request, a list of one or more UDNs, from the UDN cloud, that are associated with the unique identifier; and joining, using the list of one or more UDNs, the first client device with one or more other client devices present on the access provider network listing a same UDN in which the first client device is included.
A turbopump machine comprising: a housing; a shaft rotatably supported in the housing on a set of bearings (32a; 32b); an axial pump coupled with the shaft; a circumferential discharge volute fluidly coupled with the axial pump; a turbine coupled with the shaft, and a cooling passage disposed between the housing and the shaft about the set of bearings (32a; 32b), the cooling passage having a cooling passage discharge fluidly coupled with the circumferential discharge volute; characterised by: the turbine including a blade row disposed in an axial turbine flowpath having an axial turbine flowpath discharge that is fluidly coupled with the circumferential discharge volute; the cooling passage discharge being adjacent the axial turbine flowpath discharge; and a seal isolating the cooling passage discharge from the axial turbine flowpath discharge. a housing; a shaft rotatably supported in the housing on a set of bearings (32a; 32b); an axial pump coupled with the shaft; a circumferential discharge volute fluidly coupled with the axial pump; a turbine coupled with the shaft, and a cooling passage disposed between the housing and the shaft about the set of bearings (32a; 32b), the cooling passage having a cooling passage discharge fluidly coupled with the circumferential discharge volute; the turbine including a blade row disposed in an axial turbine flowpath having an axial turbine flowpath discharge that is fluidly coupled with the circumferential discharge volute; the cooling passage discharge being adjacent the axial turbine flowpath discharge; and a seal isolating the cooling passage discharge from the axial turbine flowpath discharge.
A quantum interference device comprising a superconducting loop (251, 351) interrupted by a normal conductor segment (252, 352), and an interferometer (255, 355) connected to the normal conductor segment wherein the superconducting loop comprises a plurality of turns and wherein the plurality of turns comprises a plurality of nested loops.
A blower for a positive airway pressure device, comprising: a housing including an inlet and an outlet; a stationary component provided to the housing; an impeller positioned between the inlet of the housing and the stationary component; and a motor adapted to drive the impeller, wherein the motor includes a rotor to which the impeller is coupled, the rotor including at least one annular groove, and the rotor is supported by a pair of bearings (552, 554), characterized in that the at least one groove is adapted to be positioned between the bearings. a housing including an inlet and an outlet; a stationary component provided to the housing; an impeller positioned between the inlet of the housing and the stationary component; and a motor adapted to drive the impeller, wherein the motor includes a rotor to which the impeller is coupled, the rotor including at least one annular groove, and the rotor is supported by a pair of bearings (552, 554), characterized in that the at least one groove is adapted to be positioned between the bearings.
A sound attenuating cell, comprising: a first sound attenuating cavity (212a, 412a, 512a) defined between a first sidewall (230, 430, 530) and a second sidewall (232, 432, 532), the first sidewall opposite the second sidewall, the first sidewall including a first undulating surface and the second sidewall including a second undulating surface, with a deflector (270, 270') coupled to the first undulating surface, the deflector extending from the first undulating surface toward the second undulating surface, wherein the sound attenuating cell has a longitudinal axis and wherein the first undulating surface is axially misaligned with or offset from the second undulating surface to define a tortuous path between the first sidewall and the second sidewall, the first sound attenuating cavity having a first end and a second end, the first end opposite the second end, with an inlet and an outlet of the first sound attenuating cavity defined at the first end; and a second sound attenuating cavity (212b, 412b, 512b) nested within the inner perimeter of the first sound attenuating cavity. a first sound attenuating cavity (212a, 412a, 512a) defined between a first sidewall (230, 430, 530) and a second sidewall (232, 432, 532), the first sidewall opposite the second sidewall, the first sidewall including a first undulating surface and the second sidewall including a second undulating surface, with a deflector (270, 270') coupled to the first undulating surface, the deflector extending from the first undulating surface toward the second undulating surface, wherein the sound attenuating cell has a longitudinal axis and wherein the first undulating surface is axially misaligned with or offset from the second undulating surface to define a tortuous path between the first sidewall and the second sidewall, the first sound attenuating cavity having a first end and a second end, the first end opposite the second end, with an inlet and an outlet of the first sound attenuating cavity defined at the first end; and a second sound attenuating cavity (212b, 412b, 512b) nested within the inner perimeter of the first sound attenuating cavity.
A method of imaging the Earth's subsurface using passive seismic emissions, comprising: (a) detecting seismic signals originating from within the Earth's subsurface over a selected time period using an array of seismic sensors deployed proximate the Earth's surface; and (b) determining hypocenters of seismic events in the subsurface from the detected signals; characterized in that the method further comprises: (c) cross-correlating seismic signals detected at selected ones of the seismic sensors to signals detected at other selected ones of the seismic sensors; (d) determining a reflectivity series at a geodetic position of each of the selected ones of the seismic sensors from the cross correlated seismic signals; and (e) determining a spatial distribution of at least one seismic property in the subsurface using the determined hypocenters and the reflectivity series. (a) detecting seismic signals originating from within the Earth's subsurface over a selected time period using an array of seismic sensors deployed proximate the Earth's surface; and (b) determining hypocenters of seismic events in the subsurface from the detected signals; characterized in that the method further comprises: (c) cross-correlating seismic signals detected at selected ones of the seismic sensors to signals detected at other selected ones of the seismic sensors; (d) determining a reflectivity series at a geodetic position of each of the selected ones of the seismic sensors from the cross correlated seismic signals; and (e) determining a spatial distribution of at least one seismic property in the subsurface using the determined hypocenters and the reflectivity series.
Tank for storing a cryogenic liquid comprising: at least one collection container with an upper area and a lower area for containing the cryogenic liquid; at least one means for the inlet and outlet of liquids; and at least one means for the inlet and outlet of gases; wherein the tank further comprises a frame structure of a thermally insulating material, characterised in that the frame structure comprises a frame with a transverse rib and a film of thermally insulating material, wherein the film is sewn onto a fabric and the fabric is enclosed on both sides by the film. at least one collection container with an upper area and a lower area for containing the cryogenic liquid; at least one means for the inlet and outlet of liquids; and at least one means for the inlet and outlet of gases; wherein the tank further comprises a frame structure of a thermally insulating material, characterised in that the frame structure comprises a frame with a transverse rib and a film of thermally insulating material, wherein the film is sewn onto a fabric and the fabric is enclosed on both sides by the film.
An internally hollow cylindrical rotational body having a cylinder jacket that is at least partially wound using a fiber-reinforced composite, also having a cylinder axis as the axis of rotation and having open cylinder base surfaces (12, 13), whereby the cylinder jacket, with its inside facing the axis of rotation and with its outside oriented in the opposite direction, has a length parallel to the axis of rotation of more than twice the outer diameter of the rotational body, and it has a wall thickness that is less than 15% of the outer diameter, whereby the fiber-reinforced composite of the cylinder jacket has a layered structure in the radial direction comprising several helical layers of fibers which extend along the axis of rotation and whose orientation along the helical fiber angle is less than 35° relative to the axis of rotation, and comprising several circumferential layers which are arranged tangentially thereto over the length of the cylinder jacket and which consist of fibers whose orientation along the circumferential fiber angle is greater than 80° relative to the axis of rotation, whereby the helical layers and the circumferential layers are arranged alternatingly one above the other, whereby the helical fiber angles are between 15° and 30°, the helical fiber angles (FWH, FWH1, FWH2, FWH3) of the various helical layers (H, H1, H2, H3) differ, and they increase in the radial direction from one helical layer (H, H1, H2, H3) to the next helical layer (H, H1, H2, H3) as the distance from the axis of rotation increases.