mhurhangee/ep-ind-claims huggingface dataset:
A method by a user equipment, UE, for a device to device, D2D, communication, the method comprising: transmitting (602, 201) an attach request message to a mobility management entity, MME; and receiving a response message corresponding to the attach request message from the MME, wherein the attach request message includes UE capability information for proximity service, ProSe. transmitting (602, 201) an attach request message to a mobility management entity, MME; and receiving a response message corresponding to the attach request message from the MME, wherein the attach request message includes UE capability information for proximity service, ProSe.
A method for manufacturing a deposited film, comprising: accelerating conductor particles by ejecting the conductor particles together with gas, wherein the entire surface of each of the conductor particles is covered with a dielectric film; fixing the conductor particles to a substrate by colliding the conductor particles with the substrate to form said deposited film, characterised in that the conductor particles are plastically deformed during collision with the substrate to such a degree that the dielectric film formed on the surface of the conductor particles is not fractured such that the entire surface of the conductor particles remains covered with the dielectric film. accelerating conductor particles by ejecting the conductor particles together with gas, wherein the entire surface of each of the conductor particles is covered with a dielectric film; fixing the conductor particles to a substrate by colliding the conductor particles with the substrate to form said deposited film, characterised in that the conductor particles are plastically deformed during collision with the substrate to such a degree that the dielectric film formed on the surface of the conductor particles is not fractured such that the entire surface of the conductor particles remains covered with the dielectric film.
A method for obtaining synchronization by a device to device, D2D, UE in a wireless communication system, comprising the steps of: measuring at least one D2D synchronization signal reception power of a specific sequence, said D2D synchronization signal reception power corresponds to a correlation result value of a point at which a peak occurs while a D2D synchronization signal and predetermined sequences are correlated with each other; calculating D2D synchronization signal reception quality using the measured D2D synchronization signal reception power; selecting the best D2D synchronization signal having the best quality among received D2D synchronization signals based on the D2D synchronization signal reception quality; and obtaining synchronization from the selected D2D synchronization signal, wherein the D2D synchronization signal reception quality corresponds to X/Y, wherein, X is the measured D2D synchronization signal reception power, and Y is a difference between total reception power and the measured D2D synchronization signal reception power if there is only a specific sequence ID which identifies the specific sequence, wherein if there is a plurality of sequence IDs, Y is determined as a reception power of sequences having the remaining sequence IDs excluding the specific sequence ID among the plurality of sequence IDs. measuring at least one D2D synchronization signal reception power of a specific sequence, said D2D synchronization signal reception power corresponds to a correlation result value of a point at which a peak occurs while a D2D synchronization signal and predetermined sequences are correlated with each other; calculating D2D synchronization signal reception quality using the measured D2D synchronization signal reception power; selecting the best D2D synchronization signal having the best quality among received D2D synchronization signals based on the D2D synchronization signal reception quality; and obtaining synchronization from the selected D2D synchronization signal, wherein the D2D synchronization signal reception quality corresponds to X/Y, wherein, X is the measured D2D synchronization signal reception power, and Y is a difference between total reception power and the measured D2D synchronization signal reception power if there is only a specific sequence ID which identifies the specific sequence, wherein if there is a plurality of sequence IDs, Y is determined as a reception power of sequences having the remaining sequence IDs excluding the specific sequence ID among the plurality of sequence IDs.
Aqueous composition comprising at least one reducing agent for NOx or a precursor of a reducing agent for NOx, at least one paraffin and at least one additive chosen from: - mono- or polyalkylene glycol hydrocarbyl ethers, - polyol hydrocarbyl ethers, - mono- or polyalkylene glycol fatty acid esters, - mono- or polyglycerol fatty acid esters, - the mixtures of these compounds, characterized in that the percentage by weight of C 20 -C 36 paraffins represents at least 90% by weight, with respect to the total weight of paraffins in the composition. - mono- or polyalkylene glycol hydrocarbyl ethers, - polyol hydrocarbyl ethers, - mono- or polyalkylene glycol fatty acid esters, - mono- or polyglycerol fatty acid esters, - the mixtures of these compounds,
Portable vacuum apparatus with a suction channel opening into a suction nozzle and with a housing, a container for the suction material and a suction unit for generating a suction flow which provides a suction vacuum applied to the suction nozzle, with a separating unit which is capable of separating the suction flow drawn in via the suction nozzle into an exhaust air flow flowing out of the vacuum apparatus and into suction material in the form of particles and/or fluid particles, wherein the separated particles or fluid particles are collected in the container for the suction material, wherein a suction material guideway is provided between the suction channel and the container for the suction material, through which the suction material passes into the container for the suction material when the vacuum apparatus is used as intended, characterized in that the geometric boundary of the suction material guideway is embodied in several parts and is formed at least by a separate shell component.
A dose counter for counting doses of medicament dispensed by or remaining in a metered-dose inhaler, the dose counter comprising: a rotatably mounted first gear wheel having a circular arrangement of ratchet teeth; a display coupled to the first gear wheel, the display having a visible array of dose counting indicia indexable in response to rotary motion of the first gear wheel; and an actuator mechanism having a first ratchet drive pawl for engaging the ratchet teeth of the first gear wheel in response to the dispensation of a medicament dose, wherein the actuator mechanism further comprises a second ratchet drive pawl for engaging the ratchet teeth of a second gear wheel coupled to the display, and wherein the actuator mechanism is configured such that, when counting a single dispensed dose, a first ratchet tooth of the first gear wheel is engaged and rotatably driven by the first ratchet drive pawl, wherein this engagement rotatably drives the first gear wheel and the second gear wheel such that the rotation of the second gear wheel causes the second ratchet drive pawl to be displaced away from the second gear wheel, and then a ratchet tooth of the second gear wheel coupled to the display is engaged and rotatably driven by the second ratchet drive pawl; and wherein the second gear wheel arranged for engagement by the second ratchet drive pawl is a different gear wheel to the first gear wheel. a rotatably mounted first gear wheel having a circular arrangement of ratchet teeth; a display coupled to the first gear wheel, the display having a visible array of dose counting indicia indexable in response to rotary motion of the first gear wheel; and an actuator mechanism having a first ratchet drive pawl for engaging the ratchet teeth of the first gear wheel in response to the dispensation of a medicament dose, wherein the actuator mechanism further comprises a second ratchet drive pawl for engaging the ratchet teeth of a second gear wheel coupled to the display, and wherein the actuator mechanism is configured such that, when counting a single dispensed dose, a first ratchet tooth of the first gear wheel is engaged and rotatably driven by the first ratchet drive pawl, wherein this engagement rotatably drives the first gear wheel and the second gear wheel such that the rotation of the second gear wheel causes the second ratchet drive pawl to be displaced away from the second gear wheel, and then a ratchet tooth of the second gear wheel coupled to the display is engaged and rotatably driven by the second ratchet drive pawl; and wherein the second gear wheel arranged for engagement by the second ratchet drive pawl is a different gear wheel to the first gear wheel.
Labeling device for bottles, comprising a strip, characterized in that the strip is in the shape of a spiral and in that it is configured to have a variable geometry between two end positions: - a first position in the general shape of a disc, when the device is placed on a flat surface, such as a table, - a second position in the general shape of a coil, when the device is fitted onto the body of the bottle from the neck, the inner edge surface of the spiral then being in contact with the body of the bottle. - a first position in the general shape of a disc, when the device is placed on a flat surface, such as a table, - a second position in the general shape of a coil, when the device is fitted onto the body of the bottle from the neck, the inner edge surface of the spiral then being in contact with the body of the bottle.
A electrical power generating system comprising a fluid-tight chamber, - an electricity production assembly arranged in the chamber, the electricity production assembly comprising a fuel cell for generating power by means of an oxidation-reduction reaction between an oxidizer and a fuel, and a supply system (12, 14, 16) for supplying oxidizer and fuel to the fuel cell, - a power storage device positioned inside the chamber to provide or store electricity, and - a power converter positioned inside the chamber and configured to exchange electricity with the fuel cell, a power storage device, a thermoelectric module and/or a power grid, the electrical power generating system also including a heat-control system including a cold source and a hot source, and a heat-transport fluid circuit that is configured to control the temperature of the electricity production assembly by exchanging heat with the cold source and the hot source. - an electricity production assembly arranged in the chamber, the electricity production assembly comprising a fuel cell for generating power by means of an oxidation-reduction reaction between an oxidizer and a fuel, and a supply system (12, 14, 16) for supplying oxidizer and fuel to the fuel cell, - a power storage device positioned inside the chamber to provide or store electricity, and - a power converter positioned inside the chamber and configured to exchange electricity with the fuel cell, a power storage device, a thermoelectric module and/or a power grid, the electrical power generating system also including a heat-control system including a cold source and a hot source, and a heat-transport fluid circuit that is configured to control the temperature of the electricity production assembly by exchanging heat with the cold source and the hot source.
A sintered magnet (1, 1a, 1b) made by sintering a magnetic material, wherein the sintered magnet is a ferrite sintered magnet, wherein a thickness of the sintered magnet (1, 1a, 1b) is more than 2.5 mm and not more than 3.5 mm in the position of the center of gravity thereof and a surface roughness Rz of the sintered magnet (1, 1a, 1b) is 0.1 μm or more and not more than 1.6 μm, or wherein a thickness of the sintered magnet (1, 1a, 1b) is more than 2.0 mm and not more than 2.5 mm in the position of the center of gravity thereof and a surface roughness Rz of the sintered magnet (1, 1a, 1b) is 0.1 μm or more and not more than 1.9 μm, or wherein a thickness of the sintered magnet (1, 1a, 1b) is more than 1.5 mm and not more than 2.0 mm in the position of the center of gravity thereof and a surface roughness Rz of the sintered magnet (1, 1a, 1b) is 0.1 μm or more and not more than 2.2 μm, or wherein a thickness of the sintered magnet (1, 1a, 1b) is more than 1.0 mm and not more than 1.5 mm in the position of the center of gravity thereof and a surface roughness Rz of the sintered magnet (1, 1a, 1b) is 0.1 μm or more and not more than 2.4 μm, or wherein a thickness of the sintered magnet (1, 1a, 1b) is 1.0 mm or less in the position of the center of gravity thereof and a surface roughness Rz of the sintered magnet (1, 1a, 1b) is 0.1 μm or more and not more than 2.75 μm.
A method for protecting a power system, comprising: tripping a generator (106, 202) in response to identifying a current on the generator (106, 202) that is greater than a first current threshold for a first time delay; tripping the generator (106, 202) in response to identifying the current on the generator (106, 202) that is greater than a second current threshold for a second time delay, wherein the first current threshold is larger than the second current threshold and the first time delay is shorter than the second time delay, characterised in selecting a shorter time delay for the first time delay in response to identifying a manual reset of a fault in the power system (102, 200); and otherwise selecting a longer time delay for the first time delay, wherein the longer time delay is longer than the shorter time delay..
A method of operating a last level clock driver, the method comprising: in a first stage, fully and simultaneously turning on a pull-up transistor and a pull-down transistor of the last level clock driver to enable the last level clock driver to store energy in an inductor-capacitor, LC, tank; and in a second stage, fully or partially disabling the last level clock driver and recirculating the energy stored in the LC tank into a clock distribution network. in a first stage, fully and simultaneously turning on a pull-up transistor and a pull-down transistor of the last level clock driver to enable the last level clock driver to store energy in an inductor-capacitor, LC, tank; and in a second stage, fully or partially disabling the last level clock driver and recirculating the energy stored in the LC tank into a clock distribution network.
A drive system for a pumping apparatus comprising: a first housing defining an internal pressure chamber; wherein the internal pressure chamber is configured to be filled with and charged by a working fluid; a reciprocating member disposed within the first housing; a first pulling member attached to the reciprocating member and to a first fluid displacement member, the first pulling member configured to draw the first fluid displacement member through a suction stroke and to not exert a pushing force on the fluid displacement member during a pressure stroke of the fluid displacement member, characterized in that the first pulling member is movable relative to the reciprocating member. a first housing defining an internal pressure chamber; wherein the internal pressure chamber is configured to be filled with and charged by a working fluid; a reciprocating member disposed within the first housing; a first pulling member attached to the reciprocating member and to a first fluid displacement member, the first pulling member configured to draw the first fluid displacement member through a suction stroke and to not exert a pushing force on the fluid displacement member during a pressure stroke of the fluid displacement member, characterized in that the first pulling member is movable relative to the reciprocating member.
A racquet identification system comprising a plurality of a head cards each configured to be coupled to a head portion of a respective racquet, wherein each head card comprises a body portion and a projection arranged at a spatial orientation relative to the body portion, and wherein the spatial orientation of the body portion and projection of at least two head cards is different.
A drug delivery device configured to receive a cartridge containing a drug, the drug delivery device comprising: - a mechanical content display for displaying information related to one of the cartridge (21, 21a, 21b) and a drug contained in the cartridge (21, 21a, 21b), wherein the content display is configured to selectively display at least two different pieces of information (30a, 30b) and wherein the content display is configured to be adjusted mechanically to display one of the pieces of information (30a, 30b), - a main body, characterized by - a mountable element (2, 2a, 2b) comprising an actuating member (26a, 26b), the drug delivery device having an unmounted state, in which the mountable element (2, 2a, 2b) is not mounted to the main body, and a mounted state, in which the mountable element (2, 2a, 2b) is mounted to the main body, wherein the mountable element (2, 2a, 2b) is one of a cartridge (21, 21a, 21b) and a cartridge retaining part, - wherein the content display comprises an adjustment member operable by the actuating member (26a, 26b) and wherein the content display is adjustable to display one of the pieces of information (30a, 30b) by operating the adjustment member with the actuating member (26a, 26b). - a mechanical content display for displaying information related to one of the cartridge (21, 21a, 21b) and a drug contained in the cartridge (21, 21a, 21b), wherein the content display is configured to selectively display at least two different pieces of information (30a, 30b) and wherein the content display is configured to be adjusted mechanically to display one of the pieces of information (30a, 30b), - a main body, characterized by - a mountable element (2, 2a, 2b) comprising an actuating member (26a, 26b), the drug delivery device having an unmounted state, in which the mountable element (2, 2a, 2b) is not mounted to the main body, and a mounted state, in which the mountable element (2, 2a, 2b) is mounted to the main body, wherein the mountable element (2, 2a, 2b) is one of a cartridge (21, 21a, 21b) and a cartridge retaining part, - wherein the content display comprises an adjustment member operable by the actuating member (26a, 26b) and wherein the content display is adjustable to display one of the pieces of information (30a, 30b) by operating the adjustment member with the actuating member (26a, 26b).
Method for encoding a video signal at an encoder, wherein the method comprises, via computer processing hardware: generating a sequence of absolute residual values as respective differences between a sequence of spans and a corresponding sequence of predictions at the same level of quality as the sequence of spans, the sequence of predictions being generated by upsampling simulated decodings of corresponding spans at a lower level of quality, the levels of quality corresponding to spatial resolutions, the sequence of spans representing a sequence of two-dimensional video frames for the video signal, each span comprising a combination of frames of the video signal within a given sampling position and a given time duration and being defined by a sampling position within the video signal, a time duration within the video signal, and a picture number within the video signal at a highest level of quality; producing a first support plane as a weighted average, or statistical mode, of said sets of absolute residual values; encoding the first support plane and reconstructing a rendition of the first support plane; generating sets of relative residuals corresponding to said first support plane, each of said sets corresponding to a specific span in the sequence of spans, the sets of relative residuals being generated as the difference between the sets of absolute residuals and the reconstructed rendition of the first support plane; encoding the sets of relative residuals; and encoding data allowing generation of the sequence of predictions. generating a sequence of absolute residual values as respective differences between a sequence of spans and a corresponding sequence of predictions at the same level of quality as the sequence of spans, the sequence of predictions being generated by upsampling simulated decodings of corresponding spans at a lower level of quality, the levels of quality corresponding to spatial resolutions, the sequence of spans representing a sequence of two-dimensional video frames for the video signal, each span comprising a combination of frames of the video signal within a given sampling position and a given time duration and being defined by a sampling position within the video signal, a time duration within the video signal, and a picture number within the video signal at a highest level of quality; producing a first support plane as a weighted average, or statistical mode, of said sets of absolute residual values; encoding the first support plane and reconstructing a rendition of the first support plane; generating sets of relative residuals corresponding to said first support plane, each of said sets corresponding to a specific span in the sequence of spans, the sets of relative residuals being generated as the difference between the sets of absolute residuals and the reconstructed rendition of the first support plane; encoding the sets of relative residuals; and encoding data allowing generation of the sequence of predictions.
A solid curable, transparent, rubber composition that once cured has a haze of less than 30% and a total light transmission of more than 80%, both measured according to ASTM D1003-13, comprising: • Component (a): from 35-60 wt.% of one or more synthetic isoprene polymers having a refractive index of between 1.500 to 1.525 at 23°C; • Component (b): from 35-60 wt.% of one or more transparent polymers different from isoprene polymers wherein the difference between the refractive indices of component (a) and (b) is 0.100 or less; • Components (c) and (d): from 0.05-8.0 wt.% of a curing agent, optionally with a co-agent, and • Component (e): from 0.01-20 wt.% of additives that do not influence the transparency, characterized in that the composition further comprises: • Component (f): from 1-4 wt.% of one or more polyalkenamers, wherein all amounts are in percentages by weight based on the total composition. • Component (a): from 35-60 wt.% of one or more synthetic isoprene polymers having a refractive index of between 1.500 to 1.525 at 23°C; • Component (b): from 35-60 wt.% of one or more transparent polymers different from isoprene polymers wherein the difference between the refractive indices of component (a) and (b) is 0.100 or less; • Components (c) and (d): from 0.05-8.0 wt.% of a curing agent, optionally with a co-agent, and • Component (e): from 0.01-20 wt.% of additives that do not influence the transparency, • Component (f): from 1-4 wt.% of one or more polyalkenamers, wherein all amounts are in percentages by weight based on the total composition.