mhurhangee/ep-ind-claims huggingface dataset:
Package comprising a packaging for storing and/or transporting radioactive materials and an assembly containing radioactive materials housed in a cavity of the packaging extending along a longitudinal axis of the packaging and being closed by a cover crossed by said axis, the package comprising a system for dampening impact of the assembly against the cover, the system comprising at least one plastically deformable dampening device and a loading device of said deformable dampening device, characterised in that one of the loading device and deformable dampening device is mounted moveable on the cover in a plane orthogonal to the axis of the packaging, and has means of self-centring relatively to the other of said two devices provided on said assembly containing the radioactive materials.
A cast and bandage protector which minimizes water pooling during use, said protector having a sealing ring, and comprising: a flexible sleeve of water proof material closed at one end and open at the other end; said open other end having a flexible and stretchable deformable rubber diaphragm with a control aperture, tightly stretched across said open other end of said flexible sleeve; characterised by a rigid seal ring unit having an inner ring and spaced apart outer ring; said flexible sleeve attached over the inner ring, and said rubber diaphragm attached to the seal ring unit above the top surface of said outer ring. a flexible sleeve of water proof material closed at one end and open at the other end; said open other end having a flexible and stretchable deformable rubber diaphragm with a control aperture, tightly stretched across said open other end of said flexible sleeve; characterised by a rigid seal ring unit having an inner ring and spaced apart outer ring; said flexible sleeve attached over the inner ring, and said rubber diaphragm attached to the seal ring unit above the top surface of said outer ring.
A semi-persistent scheduling method, comprising: determining, by a network device, a semi-persistent scheduling, SPS, configuration parameter, wherein the SPS configuration parameter comprises an SPS period length, symbol information, and an SPS activation command, wherein the SPS activation command is used to indicate a system frame number and a subframe number of a first time-frequency resource available for sending or receiving SPS data, and the symbol information is used to indicate a location of a symbol that is in a subframe and that is occupied by the first time-frequency resource; determining, by the network device based on the SPS period length, the symbol information, and the SPS activation command, resource locations of time-frequency resources available for sending or receiving the SPS data; and sending, by the network device, the SPS configuration parameter to a terminal device; characterized in that the SPS configuration parameter further comprises SPS priority information, and in that the method further comprises: when the time-frequency resource available for sending or receiving the SPS data partially or completely overlaps another SPS time-frequency resource, determining, by the network device based on the SPS priority information, a behavior of sending or receiving the SPS data. determining, by a network device, a semi-persistent scheduling, SPS, configuration parameter, wherein the SPS configuration parameter comprises an SPS period length, symbol information, and an SPS activation command, wherein the SPS activation command is used to indicate a system frame number and a subframe number of a first time-frequency resource available for sending or receiving SPS data, and the symbol information is used to indicate a location of a symbol that is in a subframe and that is occupied by the first time-frequency resource; determining, by the network device based on the SPS period length, the symbol information, and the SPS activation command, resource locations of time-frequency resources available for sending or receiving the SPS data; and sending, by the network device, the SPS configuration parameter to a terminal device; characterized in that the SPS configuration parameter further comprises SPS priority information, and in that the method further comprises: when the time-frequency resource available for sending or receiving the SPS data partially or completely overlaps another SPS time-frequency resource, determining, by the network device based on the SPS priority information, a behavior of sending or receiving the SPS data.
A pharmaceutical patch for transdermal administration of the pharmacologically active ingredient Tapentadol in form of its free base, the patch comprising a) a surface layer, b) an adhesive layer which comprises a pressure sensitive adhesive and at least a portion of the total amount of the pharmacologically active ingredient that is contained in the pharmaceutical patch, and c) a removable protective layer, wherein the adhesive layer is located between the surface layer and the removable protective layer; and wherein the adhesive layer comprises an acrylate-based pressure sensitive adhesive containing a polymer which is derived from a monomer composition comprising monomer units having at least one hydroxyl functional group. a) a surface layer, b) an adhesive layer which comprises a pressure sensitive adhesive and at least a portion of the total amount of the pharmacologically active ingredient that is contained in the pharmaceutical patch, and c) a removable protective layer,
A portable tracker tag comprising: a housing having a front cover and a back cover; Radio Frequency, RF, circuitry configured to operate within at least one of a Bluetooth, BT, frequency range and an Ultra-Wideband, UWB, frequency range; and a piezoelectric device having a first conductive plate and a second conductive plate; wherein the RF circuitry utilizes at least one of the front cover, the back cover, the first conductive plate, and the second conductive plate as one or more antennas; wherein the back cover includes a conductive material and is configured as a first antenna of the one or more antennas, and wherein the RF circuitry is configured to use the first antenna for BT communication; the portable tracker tag being characterized in that the second conductive plate is positioned adjacent to the front cover and is configured as a second antenna of the one or more antennas, and wherein the RF circuitry is further configured to use the second antenna for UWB communication. a housing having a front cover and a back cover; Radio Frequency, RF, circuitry configured to operate within at least one of a Bluetooth, BT, frequency range and an Ultra-Wideband, UWB, frequency range; and a piezoelectric device having a first conductive plate and a second conductive plate; wherein the RF circuitry utilizes at least one of the front cover, the back cover, the first conductive plate, and the second conductive plate as one or more antennas; wherein the back cover includes a conductive material and is configured as a first antenna of the one or more antennas, and wherein the RF circuitry is configured to use the first antenna for BT communication; the portable tracker tag being characterized in that the second conductive plate is positioned adjacent to the front cover and is configured as a second antenna of the one or more antennas, and wherein the RF circuitry is further configured to use the second antenna for UWB communication.
A power storage device comprising: a plurality of cells (110a, 110b) which are connected in series; a series resonance circuit configured to include a reactor and a capacitor; and a power storage control device configured to control a connection state of the cells and the series resonance circuit, wherein the power storage control device is configured to cause energy to be transferred between equal numbers of cells via the series resonance circuit, wherein the power storage control device is configured to switch connection of the series resonance circuit and the cells using a resonance frequency of the series resonance circuit, characterized in that the cells (110a, 110b) have a discharge characteristic that a change of a voltage is 0.25 V or lower in a series of sections spanning 50% or more of a section of a charge ratio of 0% to 100%, wherein the resonance frequency is ω 0 /2π with ω 0 = 1/(L×C) 1/2, wherein L represents a self-inductance of the reactor, and C represents an electrostatic capacitance of the capacitor. a plurality of cells (110a, 110b) which are connected in series; a series resonance circuit configured to include a reactor and a capacitor; and a power storage control device configured to control a connection state of the cells and the series resonance circuit, wherein the power storage control device is configured to cause energy to be transferred between equal numbers of cells via the series resonance circuit, wherein the power storage control device is configured to switch connection of the series resonance circuit and the cells using a resonance frequency of the series resonance circuit, characterized in that the cells (110a, 110b) have a discharge characteristic that a change of a voltage is 0.25 V or lower in a series of sections spanning 50% or more of a section of a charge ratio of 0% to 100%, wherein the resonance frequency is ω 0 /2π with ω 0 = 1/(L×C) 1/2, wherein L represents a self-inductance of the reactor, and C represents an electrostatic capacitance of the capacitor.
A method of processing media samples comprising: receiving one or more media samples individual ones of which have a timecode, the timecode comprising one or more time measure parameters and a frame number parameter; calculating a true time associated with one or more of the media samples in accordance with the following equation: time = x + (frame count * UPF + offset) / UPS, where: x is a measure of time associated with the media sample and ascertained from the one or more time measure parameters in the media sample's timecode; frame count is a value associated with a frame number of the media sample and ascertained from the frame number parameter in the media sample's timecode; UPS is a parameter indicating a number of basic units of time in a timebase per unit of time; UPF is a parameter indicating a number of basic units of time to be added for each frame count increment; and offset specifies a difference between the time represented by the timecode associated with the media sample and the true time, wherein said offset is selected as a function of true frame rate; and associating calculated true times with respective media samples to provide a reduced-drift time value associated with individual media samples. receiving one or more media samples individual ones of which have a timecode, the timecode comprising one or more time measure parameters and a frame number parameter; calculating a true time associated with one or more of the media samples in accordance with the following equation: time = x + (frame count * UPF + offset) / UPS, where: x is a measure of time associated with the media sample and ascertained from the one or more time measure parameters in the media sample's timecode; frame count is a value associated with a frame number of the media sample and ascertained from the frame number parameter in the media sample's timecode; UPS is a parameter indicating a number of basic units of time in a timebase per unit of time; UPF is a parameter indicating a number of basic units of time to be added for each frame count increment; and offset specifies a difference between the time represented by the timecode associated with the media sample and the true time, wherein said offset is selected as a function of true frame rate; and x is a measure of time associated with the media sample and ascertained from the one or more time measure parameters in the media sample's timecode; frame count is a value associated with a frame number of the media sample and ascertained from the frame number parameter in the media sample's timecode; UPS is a parameter indicating a number of basic units of time in a timebase per unit of time; UPF is a parameter indicating a number of basic units of time to be added for each frame count increment; and offset specifies a difference between the time represented by the timecode associated with the media sample and the true time, wherein said offset is selected as a function of true frame rate; and associating calculated true times with respective media samples to provide a reduced-drift time value associated with individual media samples.
A system for commanding a satellite, comprising: a data bus; a payload coupled to the data bus, the payload comprising a payload receiver; a primary receiver coupled to the data bus; a processor coupled to the data bus, the processor configured to: receive a first command from the primary receiver via the data bus; receive telemetry data from the payload via the data bus; detect a second command by processing the telemetry data received from the payload; and execute the detected second command. a data bus; a payload coupled to the data bus, the payload comprising a payload receiver; a primary receiver coupled to the data bus; a processor coupled to the data bus, the processor configured to: receive a first command from the primary receiver via the data bus; receive telemetry data from the payload via the data bus; detect a second command by processing the telemetry data received from the payload; and execute the detected second command.
An isolated polypeptide comprising a Human variant IgG Fc domain, wherein the human variant IgG Fc domain is selected from the group consisting of (a) a variant IgG Fc domain comprising a Phenylalanine amino acid at position 234; a Glutamine amino acid at position 235; and a Glutamine amino acid at position 322, (b) a variant IgG Fc domain comprising a Phenylalanine amino acid at position 234; a Glutamine amino acid at position 235; and a Glycine amino acid at position 331, and (c) a variant IgG Fc domain comprising a Phenylalanine amino acid at position 234; an Alanine amino acid at position 235; and a Glutamine amino acid at position 322, and which further comprises (d) a Tyrosine amino acid at position 252,; and (e) a Threonine amino acid at position 254; and (f) a Glutamic acid amino acid at position 256,, wherein the amino acid numbering is according to the EU index as in Kabat. (a) a variant IgG Fc domain comprising a Phenylalanine amino acid at position 234; a Glutamine amino acid at position 235; and a Glutamine amino acid at position 322, (b) a variant IgG Fc domain comprising a Phenylalanine amino acid at position 234; a Glutamine amino acid at position 235; and a Glycine amino acid at position 331, and (c) a variant IgG Fc domain comprising a Phenylalanine amino acid at position 234; an Alanine amino acid at position 235; and a Glutamine amino acid at position 322, and which further comprises (d) a Tyrosine amino acid at position 252,; and (e) a Threonine amino acid at position 254; and (f) a Glutamic acid amino acid at position 256,, wherein the amino acid numbering is according to the EU index as in Kabat.
An apparatus for cutting a duct which surrounds an active cable in a longitudinally extending underground conduit comprising a drive assembly and a cutting assembly, wherein the drive assembly is adapted to engage the duct and pull the duct out of the conduit without removing the cable from the conduit and without pulling the conduit out of the ground, and the cutting assembly is positioned to longitudinally cut the duct as the duct is being pulled by the drive assembly, characterised in that the duct is cut without cutting the active cable and that a split tube is positioned around the active cable to protect the active cable from the cutting assembly.
A process for producing capsules comprising an encapsulated composition, the process comprising a) providing - a first aqueous composition comprising proteins, and/or peptides and/or, polysaccharides and/or polyphenols; - a second composition comprising coffee oil; b) optionally, emulsifying the composition comprising coffee oil with an aqueous phase; c) mixing the first composition and the second composition at a pH below 7, providing an emulsion; d) optionally, concentrating the emulsion; e) raising the pH to 7 or above; f) optionally, drying the emulsion; and g) providing the capsule comprising an encapsulated composition. a) providing - a first aqueous composition comprising proteins, and/or peptides and/or, polysaccharides and/or polyphenols; - a second composition comprising coffee oil; - a first aqueous composition comprising proteins, and/or peptides and/or, polysaccharides and/or polyphenols; - a second composition comprising coffee oil; b) optionally, emulsifying the composition comprising coffee oil with an aqueous phase; c) mixing the first composition and the second composition at a pH below 7, providing an emulsion; d) optionally, concentrating the emulsion; e) raising the pH to 7 or above; f) optionally, drying the emulsion; and g) providing the capsule comprising an encapsulated composition.
A honeycomb filter comprising: a ceramic honeycomb substrate having a large number of cells placed longitudinally in parallel with one another with a cell wall interposed therebetween, each of the cells passing fluid therethrough and being sealed at either a fluid inlet end or a fluid outlet end of the cell; an auxiliary filter layer formed on a surface of said cell wall of the cell opened at the fluid inlet end and sealed at the fluid outlet end in the surface of said cell wall; and an SCR catalyst supported on a surface of the cell wall of the cell sealed at the fluid inlet end and opened at the fluid outlet end, in the cell wall on which said auxiliary filter layer is formed, wherein the honeycomb filter comprises a portion that satisfies a < b, given that an average pore diameter of pores of said auxiliary filter layer is a (μm), and an average particle diameter of particles constituting said SCR catalyst is b (μm), wherein said average pore diameter of pores of said auxiliary filter layer (a) and said average particle diameter of particles constituting said SCR catalyst (b) being determined as specified in the description, wherein said SCR catalyst is not supported on a surface of said auxiliary filter layer, wherein the portion that satisfies a < b is 20% or more of the entire honeycomb filter. a ceramic honeycomb substrate having a large number of cells placed longitudinally in parallel with one another with a cell wall interposed therebetween, each of the cells passing fluid therethrough and being sealed at either a fluid inlet end or a fluid outlet end of the cell; an auxiliary filter layer formed on a surface of said cell wall of the cell opened at the fluid inlet end and sealed at the fluid outlet end in the surface of said cell wall; and an SCR catalyst supported on a surface of the cell wall of the cell sealed at the fluid inlet end and opened at the fluid outlet end, in the cell wall on which said auxiliary filter layer is formed, wherein the honeycomb filter comprises a portion that satisfies a < b, given that an average pore diameter of pores of said auxiliary filter layer is a (μm), and an average particle diameter of particles constituting said SCR catalyst is b (μm), wherein said average pore diameter of pores of said auxiliary filter layer (a) and said average particle diameter of particles constituting said SCR catalyst (b) being determined as specified in the description, wherein said SCR catalyst is not supported on a surface of said auxiliary filter layer, wherein the portion that satisfies a < b is 20% or more of the entire honeycomb filter.
Device for controlling the performance of an active system, comprising: - at least one ignition system, - a first igniting device for the detonative initiation of a first charge, the first charge being configured as at least one detonating cord arranged in the region of the longitudinal axis and initiating the deflagration of a second charge, - a second igniting device for the detonative initiation of the second charge, characterized by an arrangement of the first and second igniting devices (Z1, Z2) in such a way that these igniting devices (Z1, Z2) lie directly adjacent, the second igniting device being arranged directly at the tail end of a casing enclosing the active system. - at least one ignition system, - a first igniting device for the detonative initiation of a first charge, the first charge being configured as at least one detonating cord arranged in the region of the longitudinal axis and initiating the deflagration of a second charge, - a second igniting device for the detonative initiation of the second charge,
A collective protection device, particularly for health facilities such as hospitals, private clinics, health centers and the like, comprising: - a base, which can be arranged above a component such as a bed, a stretcher, a cot and the like, on which a mattress for a patient is configured to be arranged; - a cover provided with hermetic coupling means to the perimetric edges of said base, said cover comprising closeable through openings in order to allow the entry of the hands of an operator in order to be able to intervene directly on a patient; - suction means, provided with a filtering unit, for establishing a one-way flow of the air that circulates inside the volume delimited between said base and said cover, characterized in that said cover has, at said closeable through openings, an interspace for the circulation of air, provided with closeable passages which are substantially aligned with respective said openings, said interspace limiting phenomena such as the onset of turbulence, the loss of pressure, the generation of load losses and the like. - a base, which can be arranged above a component such as a bed, a stretcher, a cot and the like, on which a mattress for a patient is configured to be arranged; - a cover provided with hermetic coupling means to the perimetric edges of said base, said cover comprising closeable through openings in order to allow the entry of the hands of an operator in order to be able to intervene directly on a patient; - suction means, provided with a filtering unit, for establishing a one-way flow of the air that circulates inside the volume delimited between said base and said cover,