mhurhangee/ep-ind-claims huggingface dataset:
A method in a user equipment (16, 22, 300, 400) for a wireless communications network, comprising: receiving a configuration message from a base station (12, 14) for the wireless communications network, the configuration message indicating that data to be transmitted between the user equipment (16, 22, 300, 400) and the wireless communications network is to be duplicated; and determining the presence of data to be transmitted; determining an identity of a logical channel to which the data belongs; determining whether the logical channel is configured for duplication; and responsive to a determination that the logical channel is configured for duplication, generating a first and a second data units, each comprising the data to be transmitted; transmitting said first data unit and said second data unit to the wireless communications network, wherein the second data unit is a duplicate of the first data unit, and wherein the first data unit is transmitted using first radio resources, and the second data unit is transmitted using second radio resources that are different than the first radio resources. receiving a configuration message from a base station (12, 14) for the wireless communications network, the configuration message indicating that data to be transmitted between the user equipment (16, 22, 300, 400) and the wireless communications network is to be duplicated; and determining the presence of data to be transmitted; determining an identity of a logical channel to which the data belongs; determining whether the logical channel is configured for duplication; and responsive to a determination that the logical channel is configured for duplication, generating a first and a second data units, each comprising the data to be transmitted; transmitting said first data unit and said second data unit to the wireless communications network, wherein the second data unit is a duplicate of the first data unit, and wherein the first data unit is transmitted using first radio resources, and the second data unit is transmitted using second radio resources that are different than the first radio resources.
An apparatus for immersion-based preparation of a perovskite thin film, comprising a sealed cavity, wherein the sealed cavity is internally provided with at least one semi-enclosed reactor device, the semi-enclosed reactor device comprises a lower heating and sublimation device and an upper heating station, a container with an opening facing upward is provided at the top of the lower heating and sublimation device, the container contains a reactant precursor, a substrate frame is provided directly above the container the substrate frame covers an opening of the container, a substrate frame support platform is provided at a side surface of the container, the substrate frame is disposed on the substrate frame support platform, a substrate to be deposited is provided at a lower bottom surface of the substrate frame, the substrate is located directly above the container, one surface of the substrate to be deposited of directly faces the reactant precursor in the container, the upper heating station is disposed on the substrate frame to heat the substrate, and the reactant precursor is evaporated and deposited onto the surface of the substrate; and an vacuum pressure in the sealed cavity is controlled, and heating temperatures of the upper heating station and the lower heating and sublimation device are controlled.
A process for the production of a three-dimensional green body by a three-dimensional printing process employing at least one feedstock, a built chamber and a three-dimensional extrusion printer (3D printer) containing at least one nozzle, the process comprising the following steps a) to e): a) feeding the at least one feedstock into the 3D printer containing the at least one nozzle, wherein the at least one feedstock comprises at least one binder and at least one inorganic powder, and wherein the at least one binder comprises at least one polyoxymethylene, b) heating the at least one feedstock inside the 3D printer, c) extruding the at least one heated feedstock obtained in step b) through the at least one nozzle in order to obtain at least one extruded strand, d) forming the three-dimensional green body layer by layer from the at least one extruded strand obtained in step c) on a base plate located in the build chamber, wherein the base plate comprises the at least one binder and optionally the at least one inorganic powder, and e) removing the three-dimensional green body and the base plate from the build chamber, wherein the three-dimensional green body is attached to the base plate. a) feeding the at least one feedstock into the 3D printer containing the at least one nozzle, wherein the at least one feedstock comprises at least one binder and at least one inorganic powder, and wherein the at least one binder comprises at least one polyoxymethylene, b) heating the at least one feedstock inside the 3D printer, c) extruding the at least one heated feedstock obtained in step b) through the at least one nozzle in order to obtain at least one extruded strand, d) forming the three-dimensional green body layer by layer from the at least one extruded strand obtained in step c) on a base plate located in the build chamber, wherein the base plate comprises the at least one binder and optionally the at least one inorganic powder, and e) removing the three-dimensional green body and the base plate from the build chamber, wherein the three-dimensional green body is attached to the base plate.
A method to confer, enhance, improve or modify the odor properties of a perfuming composition or of a perfumed article, which method comprises adding to said composition or article an effective amount of a composition of matter comprising: - at least 85% w/w of -4,8-dimethyl-2,7-nonadien-4-ol; and - at most 15% w/w of -4,8-dimethyl-2,7-nonadien-4-ol; the percentage being relative to the total weight of the composition of matter. - at least 85% w/w of -4,8-dimethyl-2,7-nonadien-4-ol; and - at most 15% w/w of -4,8-dimethyl-2,7-nonadien-4-ol;
A composition, comprising: a. an inorganic filler, b. a copolymer comprising a repeating unit derived from at least a monomer represented by formula: and c. a polyester, wherein the fraction derived from the monomer represented by formula of the copolymer is between 1 % and 70 % in weight relative to the composition. a. an inorganic filler, b. a copolymer comprising a repeating unit derived from at least a monomer represented by formula: and c. a polyester, wherein the fraction derived from the monomer represented by formula of the copolymer is between 1 % and 70 % in weight relative to the composition.
Bundle forming device for elongated workpieces, in particular wood parts, comprising at least two bundle forming units with at least one transport device for the wood parts and at least one bundle forming station with at least one support for the bundle to be formed, which is part of a lifting device which is adjustable in the vertical direction, wherein at least one bundle forming unit is adjustable in the longitudinal direction of the workpieces, characterized in that the bundle forming station has at least one support unit for the workpieces, which is adjustable transversely to the longitudinal direction of the workpieces and which is provided with at least one tongue, which is adjustable under the stacked bundle formed in each case.
An electromagnetic radiation detection device including multiple elementary detectors (32, 320, 62, 82, 92) grouped into one or more sub-assemblies (300, 300', 600), each including several elementary detectors, where each elementary detector (32, 320, 62, 82, 92) is connected by an interconnection (301, 302, 66, 85) to an impedance-matching device (33, 33', 63, 83, 93) adapted for making the impedance-matching between said elementary detector and a capture and shaping circuit, characterised in that: the impedance-matching device (33, 33', 63, 83, 93) is common to all the elementary detectors (32, 320, 62, 82, 92) of a single sub-assembly (300, 300', 600), in each sub-assembly (300, 300', 600) the interconnections (301, 302, 66, 85) have a roughly identical resistance value. the impedance-matching device (33, 33', 63, 83, 93) is common to all the elementary detectors (32, 320, 62, 82, 92) of a single sub-assembly (300, 300', 600), in each sub-assembly (300, 300', 600) the interconnections (301, 302, 66, 85) have a roughly identical resistance value.
Method for automatically processing a carcass (1, 10, 30) of a slaughtered animal comprising the steps: a) providing a carcass of a slaughtered animal; b) suspending the carcass from the hind legs; c) splitting the pubic bone of the carcass with an automatically handled cleaving knife (23, 32); d) arranging a cut in the abdominal wall close to the hind legs substantially in the plane of symmetry of the carcass with an automatically handled rotating cutting blade; and e) holding the intestines clear of the belly wall during step d), wherein at the moment that the automatically handled rotating cutting blade (20, 35) that is used in processing step d) is making contact with the carcass the cleaving knife that is used in processing step c) is still in contact with the same carcass. a) providing a carcass of a slaughtered animal; b) suspending the carcass from the hind legs; c) splitting the pubic bone of the carcass with an automatically handled cleaving knife (23, 32); d) arranging a cut in the abdominal wall close to the hind legs substantially in the plane of symmetry of the carcass with an automatically handled rotating cutting blade; and e) holding the intestines clear of the belly wall during step d),
A base station for use in a wireless telecommunications system, configured to selectively operate at multiple coverage enhancement, CE, modes for communication with a terminal device, the base station comprising: a transceiver (400, 410) configured to perform wireless communication with a terminal device; and a controller configured to: control the transceiver (400, 410) to send a wireless paging signal to the terminal device, the paging signal comprising information defining an allocation of a communications resource for use by the terminal device to send a connection request message to the base station, and to send multiple paging signals at different respective CE modes, each paging signal defining a respective communications resource for use by the terminal device, and each of the multiple CE modes corresponding to a different respective number of repetitions of wireless data signals transmitted to or received from the terminal device via the respective communications resources defined by the respective paging signal; and control the transceiver (400, 410) to establish wireless communication with the terminal device by receiving the connection request message using the allocated communications resource. a transceiver (400, 410) configured to perform wireless communication with a terminal device; and a controller configured to: control the transceiver (400, 410) to send a wireless paging signal to the terminal device, the paging signal comprising information defining an allocation of a communications resource for use by the terminal device to send a connection request message to the base station, and to send multiple paging signals at different respective CE modes, each paging signal defining a respective communications resource for use by the terminal device, and each of the multiple CE modes corresponding to a different respective number of repetitions of wireless data signals transmitted to or received from the terminal device via the respective communications resources defined by the respective paging signal; and control the transceiver (400, 410) to establish wireless communication with the terminal device by receiving the connection request message using the allocated communications resource. control the transceiver (400, 410) to send a wireless paging signal to the terminal device, the paging signal comprising information defining an allocation of a communications resource for use by the terminal device to send a connection request message to the base station, and to send multiple paging signals at different respective CE modes, each paging signal defining a respective communications resource for use by the terminal device, and each of the multiple CE modes corresponding to a different respective number of repetitions of wireless data signals transmitted to or received from the terminal device via the respective communications resources defined by the respective paging signal; and control the transceiver (400, 410) to establish wireless communication with the terminal device by receiving the connection request message using the allocated communications resource.
Method for producing a fluid enriched with carbon dioxide from a waste gas of a ferrous-metallurgy unit containing carbon dioxide and carbon monoxide wherein at least one portion of the waste gas is compressed in a first compressor, optionally the dried waste gas is separated, the waste gas is separated, optionally dried, by means of an adsorption method in an adsorption unit in order to produce a gas enriched with carbon dioxide and depleted of carbon monoxide and a gas depleted of carbon dioxide and enriched with carbon monoxide, the gas enriched with carbon dioxide is separated in a separation unit, in order to produce a fluid enriched with carbon dioxide and a recirculation gas containing carbon monoxide, the fluid enriched with carbon dioxide exits as a product, the recirculation gas is recirculated from the separation unit toward the adsorption unit at the input pressure of the adsorption unit and at least one portion of the gas depleted of carbon dioxide is sent to the ferrous-metallurgy unit or another ferrous-metallurgy unit, optionally without having been mixed with another fluid and preferably after having heated it, during a first step, which is a nominal step, the waste gas compressed in the first compressor has a first pressure at the outlet of the compressor between 8 and 15 bars abs, a first flow rate and a first concentration in carbon monoxide and during a second step, which is a reduced load step for the ferrous-metallurgy unit, the waste gas compressed in the first compressor has a second pressure at the outlet of the compressor between 3 and 7 bars abs, a second flow rate less than the first flow rate and a second concentration in carbon monoxide less than the first concentration and the second pressure and optionally the first pressure are maintained constant by adjusting the output pressure of the first compressor.
Aircraft gas turbine engine having an engine cowling which surrounds a core engine in a tubular manner, at least one inflow-side part of the engine cowling being of tubular or partially tubular configuration and being displaced telescopically counter to the flow direction, the displaceable part comprising the outer engine cowling as far as a thrust reversal element and the inner engine cowling as far as a bypass flow fan housing, the inner engine cowling comprising a component for acoustic damping and a transition region between the component and the bypass flow fan housing, the transition region being formed by way of a region of the bypass flow fan housing, which region is extended counter to the flow direction, and by way of an extension of the component, the extended region having a radially outwardly directed lip, the extension being situated radially within the extended region, and a seal being arranged between the extended region and the extension, characterized in that a radially outer face of the extension is configured with a spherical contour, in order to form a gimballed, joint-like construction.
Beads for blood processing comprising porous beads and a polymer supported on the surfaces of the porous beads, wherein: the porous beads are composed of at least one resin selected from the group consisting of acrylic-based resins, styrene-based resins and cellulose-based resins, and the polymer includes, as a monomer unit, a monomer represented by following formula: where R 1 is -CH 3, R 2 is -CH 2 (CH 2) q OCH 3 or -CH 2 C m H 2m+1, q is 1 to 5 and m is 0 to 17. the porous beads are composed of at least one resin selected from the group consisting of acrylic-based resins, styrene-based resins and cellulose-based resins, and the polymer includes, as a monomer unit, a monomer represented by following formula: where R 1 is -CH 3, R 2 is -CH 2 (CH 2) q OCH 3 or -CH 2 C m H 2m+1, q is 1 to 5 and m is 0 to 17.
A method for finishing work pieces ready to use, the work pieces including rotation symmetrical or non-rotation symmetrical, centric or eccentrical circumferential surfaces and adjacent side surfaces, wherein the work pieces are in particular crank shafts, wherein - directly after chipping coarse machining and subsequent optional partial hardening, the circumferential surfaces are fine machined as follows: - after a first fine machining step with a defined edge (7, 7') a second fine machining step through dry grinding or fine dry grinding is performed, - the first fine machining step and the second fine machining step are performed in the same machine and in the same clamping of the work piece characterized in that the - a third fine machining step is performed after the dry grinding through finishing or electro chemical etching, - thereafter a fine completion step is performed by introducing cavities into the work piece through. - directly after chipping coarse machining and subsequent optional partial hardening, the circumferential surfaces are fine machined as follows: - after a first fine machining step with a defined edge (7, 7') a second fine machining step through dry grinding or fine dry grinding is performed, - the first fine machining step and the second fine machining step are performed in the same machine and in the same clamping of the work piece - a third fine machining step is performed after the dry grinding through finishing or electro chemical etching, - thereafter a fine completion step is performed by introducing cavities into the work piece through.
A method for manufacturing an organic semiconductor layer formed of a mixture of a first and of a second organic semiconductor materials, the method comprising: ▪ forming a porous solid volume formed of the first semiconductor material, of intercommunicating porosity and capable of receiving a second semiconductor material; ▪ depositing, at least on an external surface of the porous solid volume, a liquid comprising the second semiconductor material dissolved or dispersed in a solvent, the solvent being inert with respect to the first semiconductor material and having an evaporation temperature lower than the evaporation temperature of the second semiconductor material; and ▪ once the porous solid volume has been at least partially impregnated with the liquid, evaporating the solvent by heating up to a temperature higher than the evaporation temperature of said solvent and lower than the evaporation temperature of the first and of the second semiconductor materials, characterized in that the forming of the porous solid comprises introducing gas bubbles into a solution of first semiconductor material dissolved or dispersed in a solvent (B'), followed by the evaporating of said solvent (B'), the temperature of said solvent (B') being lower than the gas evaporation temperature. ▪ forming a porous solid volume formed of the first semiconductor material, of intercommunicating porosity and capable of receiving a second semiconductor material; ▪ depositing, at least on an external surface of the porous solid volume, a liquid comprising the second semiconductor material dissolved or dispersed in a solvent, the solvent being inert with respect to the first semiconductor material and having an evaporation temperature lower than the evaporation temperature of the second semiconductor material; and ▪ once the porous solid volume has been at least partially impregnated with the liquid, evaporating the solvent by heating up to a temperature higher than the evaporation temperature of said solvent and lower than the evaporation temperature of the first and of the second semiconductor materials,
An apparatus for improving resolution and/or sectioning ability of an imaging system, comprising: at least one wave splitter for splitting an input wave carrying information relating to an object to be imaged; an interferometer arrangement (60, 64, 66, 62, 68) arranged to receive the split input waves and which includes at least one wave transformer which produces a relative difference between the waves travelling through the interferometer arrangement (60, 64, 66, 62, 68) by applying one or more transformation to one or more of said waves, wherein said at least one wave transformer is arranged to apply an image co-ordinate inversion of at least one co-ordinate in image space as said one or more transformation, the interferometer arrangement being further arranged to output a first and a second output wave, wherein the first and second output waves are formed in the interferometer arrangement (60, 64, 66, 62, 68) downstream of the one or more transformation being applied to the split input waves, the first output wave being produced by constructive interference of the split input waves and the second output wave being produced by destructive interference of the split input waves, wherein those parts of the first and second output waves which are due to an emitter located on the optical axis: i) constructively interfere in the first output wave; and ii) destructively interfere in the second output wave; and imaging means (74, 138; 70,136) arranged to produce a corresponding first image using the first output wave and a corresponding second image using the second output wave, and to produce a single output image in dependence on at least the first image and the second image; wherein a change of detected emissions from the emitter improves the resolution and/or sectioning ability of imaging of the object. at least one wave splitter for splitting an input wave carrying information relating to an object to be imaged; an interferometer arrangement (60, 64, 66, 62, 68) arranged to receive the split input waves and which includes at least one wave transformer which produces a relative difference between the waves travelling through the interferometer arrangement (60, 64, 66, 62, 68) by applying one or more transformation to one or more of said waves, wherein said at least one wave transformer is arranged to apply an image co-ordinate inversion of at least one co-ordinate in image space as said one or more transformation, the interferometer arrangement being further arranged to output a first and a second output wave,
Ophthalmic apparatus comprising at least one frame and at least one spectacle ophthalmic device (20, 30, 40), said at least one ophthalmic device being characterized in that it comprises an edged ophthalmic lens (25, 35, 45) mounted in said at least one frame and a plurality of electronic components placed to form at least one strip (10, 12, 13, 14) in contact with and peripherally on said ophthalmic lens, the electronic components having been placed beforehand on a carrier in order to form said strip, said carrier then being deposited in contact with said ophthalmic lens so that the strip comprising said electronic components is peripherally fastened to the ophthalmic lens and partially or completely masked by a portion of said at least one frame.
Composition in form of a gel for the virucidal disinfection of mammalian skin comprising 85 to 95 wt-% of ethanol, 0,01 to 1 wt-% thickener, and wherein the composition has a viscosity range of from 5000 to 9000 mPas measured at 20°C with spindle LV3 at a speed of 2.5 rpm. 85 to 95 wt-% of ethanol, 0,01 to 1 wt-% thickener, and wherein the composition has a viscosity range of from 5000 to 9000 mPas measured at 20°C with spindle LV3 at a speed of 2.5 rpm.