mhurhangee/ep-ind-claims huggingface dataset:
A quantum cascade laser manufacturing method comprising: a first step of preparing a mother stamper with a predetermined first groove pattern formed on a surface of a substrate; a second step of pressing the mother stamper against a resin film having flexibility to transfer the first groove pattern to the resin film and making a resin stamper with a second groove pattern formed on the resin film, the second groove pattern having an inverted asperity of the first groove pattern; a third step of making a wafer with an active layer formed on a semiconductor substrate, the active layer having a cascade structure in which a unit layered structure including a quantum well light emitting layer and an injection layer is stacked in multiples to alternately stack the quantum well light emitting layer and the injection layer; a fourth step of forming a resist film on a surface on the active layer side of the wafer; a fifth step of pressing the resin stamper against the resist film by air pressure to transfer the second groove pattern to the resist film and forming on the resist film a third groove pattern having an inverted asperity of the second groove pattern; and a sixth step of etching the wafer with the resist film serving as a mask to form a diffraction grating on a surface of the wafer. a first step of preparing a mother stamper with a predetermined first groove pattern formed on a surface of a substrate; a second step of pressing the mother stamper against a resin film having flexibility to transfer the first groove pattern to the resin film and making a resin stamper with a second groove pattern formed on the resin film, the second groove pattern having an inverted asperity of the first groove pattern; a third step of making a wafer with an active layer formed on a semiconductor substrate, the active layer having a cascade structure in which a unit layered structure including a quantum well light emitting layer and an injection layer is stacked in multiples to alternately stack the quantum well light emitting layer and the injection layer; a fourth step of forming a resist film on a surface on the active layer side of the wafer; a fifth step of pressing the resin stamper against the resist film by air pressure to transfer the second groove pattern to the resist film and forming on the resist film a third groove pattern having an inverted asperity of the second groove pattern; and a sixth step of etching the wafer with the resist film serving as a mask to form a diffraction grating on a surface of the wafer.
Metering device for metering and supply of media (31a, 31b, 31c) via a fluid line to a plurality of target devices (13a, 13b), in particular to a plurality of commercial textile washing machines, wherein the metering device is connected to at least one container (14a, 14b, 14c), which is filled with a medium, and wherein a control unit is assigned to the metering device, said control unit carrying out a metering process after receiving a request signal from one of the target devices, wherein the metering device has at least one junction point of the fluid line, which provides a plurality of line branches (17a, 17b, 17c), wherein the junction point is formed by a region of the fluid line, in which a section of the fluid line is divided over at least two fluid line branches, and wherein the metering device has a plurality of inlets (41a, 41b, 41c), which can each be switchably brought into communicative connection with the junction point by means of the control unit with the aid of an actuator, wherein each inlet (41a, 41b, 41c) is connected to a container (14a, 14b, 14c) and wherein a plurality of containers are provided, which are filled with different media, wherein each line branch connects the junction point to a target device, wherein one pump (22a, 22b, 22c), which can be activated by the control unit of the metering device, is assigned to each line branch, and wherein the control unit, to carry out the metering process, by means of activating and operating the respective pump (22a, 22b, 22c) draws a previously-determined volume of medium from a determined container and delivers this volume to the respective target device.
A rubber composition comprising: a rubber component; a tetrazine compound represented by Formula or a salt thereof: wherein X 1 and X 2 each represent an optionally substituted heterocyclic group; and a processing aid, wherein the rubber component contains a diene rubber obtained by polymerization of monomers including 1,3-butadiene monomer, the diene rubber being present in an amount of 40 parts by mass or more, per 100 parts by mass of the rubber component, and wherein the tetrazine compound or a salt thereof is present in an amount of 0.1 to 10 parts by mass, per 100 parts by mass of the rubber component, and wherein the processing aid is at least one member selected from the group consisting of fatty acid metal salts having 8 or more carbon atoms, fatty acid amides having 8 or more carbon atoms, and fatty acid hydrazides having 8 or more carbon atoms. a rubber component; a tetrazine compound represented by Formula or a salt thereof: wherein X 1 and X 2 each represent an optionally substituted heterocyclic group; and a processing aid, wherein the rubber component contains a diene rubber obtained by polymerization of monomers including 1,3-butadiene monomer, the diene rubber being present in an amount of 40 parts by mass or more, per 100 parts by mass of the rubber component, and wherein the tetrazine compound or a salt thereof is present in an amount of 0.1 to 10 parts by mass, per 100 parts by mass of the rubber component, and wherein the processing aid is at least one member selected from the group consisting of fatty acid metal salts having 8 or more carbon atoms, fatty acid amides having 8 or more carbon atoms, and fatty acid hydrazides having 8 or more carbon atoms.
An intraocular lens (10,30,42,64), comprising an optic having an anterior surface and a posterior surface, said optic having a central refractive region for providing one refractive focusing power, and a diffractive region disposed on one of said surfaces so as to provide a near and a far diffractive focusing powers, wherein the diffractive region comprises a plurality of diffractive zones separated from one another by a plurality of steps, characterized in that the first innermost step differs in height from the second and subsequent step heights, which are of substantially uniform step height, so as to alter the phase of the central refractive region to provide increased light to the refractive focusing power.
A system for determining when an object detected by a collision avoidance sensor on one member (12 or 14) of an articulated vehicle comprises another member (14 or 12) of the vehicle, comprising: a collision avoidance sensor disposed on a first member (12 or 14) of the vehicle, the collision avoidance sensor configured to detect an object within a field of view of the sensor on a side of the first member (12 or 14) of the vehicle; characterized by a controller configured to determine an articulation angle between the first member (12 or 14) of the vehicle and a second member (14 or 12) of the vehicle; and, determine, in response to the articulation angle, whether the second member (14 or 12) of the vehicle is the object within the field of view of the collision avoidance sensor on the first member (12 or 14) of the vehicle. a collision avoidance sensor disposed on a first member (12 or 14) of the vehicle, the collision avoidance sensor configured to detect an object within a field of view of the sensor on a side of the first member (12 or 14) of the vehicle; characterized by a controller configured to determine an articulation angle between the first member (12 or 14) of the vehicle and a second member (14 or 12) of the vehicle; and, determine, in response to the articulation angle, whether the second member (14 or 12) of the vehicle is the object within the field of view of the collision avoidance sensor on the first member (12 or 14) of the vehicle. determine an articulation angle between the first member (12 or 14) of the vehicle and a second member (14 or 12) of the vehicle; and, determine, in response to the articulation angle, whether the second member (14 or 12) of the vehicle is the object within the field of view of the collision avoidance sensor on the first member (12 or 14) of the vehicle.
A radiation curable composition for use in barrier stacks for protection of sensitive devices against moisture, comprising; hydrophilic nanoparticles being selected from metal, metal oxide, metalloid, metalloid oxide, metal carbide, metalloid carbide, metal halide, metal salts, metal perchlorate, metal nitride, metalloid nitride, metal oxygen nitride, metalloid oxygen nitride, metal oxygen boride or metalloid oxygen boride particles; a curable material comprising at least one mono-functional and/or multifunctional monomer, the mono-functional and/or multifunctional groups being selected from acrylate or methacrylate groups and at least one radiation-active initiator; wherein the proportion of hydrophilic nanoparticles is in the range of 0.01 wt% to 0.2 wt% of the weight of the curable material. hydrophilic nanoparticles being selected from metal, metal oxide, metalloid, metalloid oxide, metal carbide, metalloid carbide, metal halide, metal salts, metal perchlorate, metal nitride, metalloid nitride, metal oxygen nitride, metalloid oxygen nitride, metal oxygen boride or metalloid oxygen boride particles; a curable material comprising at least one mono-functional and/or multifunctional monomer, the mono-functional and/or multifunctional groups being selected from acrylate or methacrylate groups and at least one radiation-active initiator;
A cyclic siloxane compound represented by Formula below: wherein, in Formula, R 1 and R 2 are each independently a luminescent monovalent group, a charge-transporting monovalent group, or another substituent group; at least one of R 1 and R 2 is the luminescent monovalent group; and n is an integer of 2 to 100; wherein the luminescent monovalent group is obtained by substituting a hydrogen atom of a phosphorescent compound with a linking group X, and is linked to a Si atom in Formula via the linking group X.
Method for operating a power plant which is composed substantially of a gas turbine group, a steam turbine, a compressed-air accumulator, and an air turbine equipped with at least one generator, wherein the gas turbine group, the steam turbine and the air turbine are arranged with in each case one generator and one compressor on a common shaft train, wherein switchable couplings are provided between the respective power machine (1, 3, 2) and the generator and between the compressor and the generator, and wherein, in an exhaust-gas flow path of the gas turbine group, there is arranged a flow distributor with a flap which enables the exhaust gas of the gas turbine group to be conducted selectively to a steam generator for the steam turbine or to a gas/air heat exchanger, wherein the compressed air extracted from the compressed-air accumulator is conducted through, and is thermally treated in, the gas/air heat exchanger which acts at the outflow side of the gas turbine group, which compressed air subsequently impinges on the air turbine, and wherein, in the event of a "blackout" or other stoppage of operation of the power plant, the electrical energy that can be obtained by means of the thermally treated compressed air in the air turbine is, via an electrical line, used directly for setting the gas turbine group in operation, characterized in that, in times of high power demand, the compressor and the steam turbine are shut down, and the exhaust-gas flap in the flow distributor is set such that the exhaust gas flows through the gas/air heat exchanger.
A method of making a bioabsorbable stent comprising: providing a bioabsorbable polymer which is PLLA (poly(L-lactide); selecting a desired minimum patency time for a bioabsorbable implanted stent scaffolding to provide at an implant site; determining an Mn at loss of radial strength of the bioabsorbable stent scaffolding made from the bioabsorbable polymer; determining Mn of the stent scaffolding made from the bioabsorbable polymer that provides an Mn at the desired minimum patency time equal to the Mn at loss of radial strength, wherein the determined Mn is determined from a degradation kinetic model of the bioabsorbable polymer which has the form Mn(t) / Mn = exp (-kt), wherein t is the time of degradation, Mn(t) is the Mn as a function of time, and k is the degradation rate constant, and making a stent scaffolding from the bioabsorbable polymer, wherein the stent scaffolding has an Mn greater than or equal to the determined Mn. providing a bioabsorbable polymer which is PLLA (poly(L-lactide); selecting a desired minimum patency time for a bioabsorbable implanted stent scaffolding to provide at an implant site; determining an Mn at loss of radial strength of the bioabsorbable stent scaffolding made from the bioabsorbable polymer; determining Mn of the stent scaffolding made from the bioabsorbable polymer that provides an Mn at the desired minimum patency time equal to the Mn at loss of radial strength, wherein the determined Mn is determined from a degradation kinetic model of the bioabsorbable polymer which has the form Mn(t) / Mn = exp (-kt), wherein t is the time of degradation, Mn(t) is the Mn as a function of time, and k is the degradation rate constant, and making a stent scaffolding from the bioabsorbable polymer, wherein the stent scaffolding has an Mn greater than or equal to the determined Mn.
A connection including an exhaust manifold, a turbocharger housing, and a connector coupling the exhaust manifold with the turbocharger housing, which connector comprises: a manifold coupling part coupled with the exhaust manifold; a housing coupling part integrally coupled with an end of the manifold coupling part and coupled with the turbocharger housing; and a plurality of exhaust gas paths penetrating through the manifold coupling part and the housing coupling part, wherein an end of the housing coupling part is formed to an outer edge more protruding outwards than the exhaust gas path, wherein an inner stepped surface is disposed between the exhaust gas path and the outer edge, and wherein the inner stepped surface is provided with at least two exhaust gas paths which are spaced apart from each other. a manifold coupling part coupled with the exhaust manifold; a housing coupling part integrally coupled with an end of the manifold coupling part and coupled with the turbocharger housing; and a plurality of exhaust gas paths penetrating through the manifold coupling part and the housing coupling part, wherein an end of the housing coupling part is formed to an outer edge more protruding outwards than the exhaust gas path, wherein an inner stepped surface is disposed between the exhaust gas path and the outer edge, and wherein the inner stepped surface is provided with at least two exhaust gas paths which are spaced apart from each other.
A compound of the following general formula: wherein: - R 1, R 2, R 3, R 4, R 6 and R 7, independently represent a hydrogen atom or a methyl group; - R 5 represents a hydrogen atom or a saturated linear C 1 -C 5 alkyl group; - R 4 and R 5 may together form a cyclopentyl group; - the total number of carbon atoms being strictly greater than 9. - R 1, R 2, R 3, R 4, R 6 and R 7, independently represent a hydrogen atom or a methyl group; - R 5 represents a hydrogen atom or a saturated linear C 1 -C 5 alkyl group; - R 4 and R 5 may together form a cyclopentyl group; - the total number of carbon atoms being strictly greater than 9.
A neurostimulation device capable of being placed between a stimulation state and an electromagnetic interference protection state, comprising: a plurality of electrical terminals configured for being respectively coupled to a plurality of stimulation electrodes; stimulation output circuitry configured for being selectively activated during the stimulation state to output a plurality of stimulation pulses to the plurality of electrical terminals electromagnetic protection circuitry configured for being selectively activated during the EMI protection state to prevent at least a portion of the electrical current induced on at least one of the electrical terminals by an electromagnetic field from entering the stimulation output circuitry; and characterized by further comprising a controller configured for automatically defaulting the neurostimulation device to the EMI protection state in response to a non-user initiated event selected from the group consisting of a drop in a power supply output below a predetermined level, and a termination of a system test. a plurality of electrical terminals configured for being respectively coupled to a plurality of stimulation electrodes; stimulation output circuitry configured for being selectively activated during the stimulation state to output a plurality of stimulation pulses to the plurality of electrical terminals electromagnetic protection circuitry configured for being selectively activated during the EMI protection state to prevent at least a portion of the electrical current induced on at least one of the electrical terminals by an electromagnetic field from entering the stimulation output circuitry; and characterized by further comprising a controller configured for automatically defaulting the neurostimulation device to the EMI protection state in response to a non-user initiated event selected from the group consisting of a drop in a power supply output below a predetermined level, and a termination of a system test.
A suspension carrying console for attachment to a vehicle chassis, wherein the console carries forces of the wheel holder over reaction stays or suspension elements into the chassis, comprising a bracket body for a truck, characterized in - that the bracket body is formed by casting which at least partly forms a cavity in its middle region for storing a fluid, wherein the cavity is adapted to store pressurized air as fluid, - wherein the bracket body is at least partially integrated in a casing surrounding the cavity, and the bracket body constitutes the casing, - wherein the console with the casing is in its mounted position arranged between two wheel holders on one side of the vehicle frame. - that the bracket body is formed by casting which at least partly forms a cavity in its middle region for storing a fluid, wherein the cavity is adapted to store pressurized air as fluid, - wherein the bracket body is at least partially integrated in a casing surrounding the cavity, and the bracket body constitutes the casing, - wherein the console with the casing is in its mounted position arranged between two wheel holders on one side of the vehicle frame.
A resonance based contactless power transfer system comprising: a first coil coupled to a power source; a second coil coupled to a load; and a field-focusing element including a plurality of resonator coils disposed between the first coil and the second coil in such a manner that the field-focusing element can be placed closer to the first coil or closer to the second coil, the field-focusing element and comprising a dielectric material, wherein the dielectric material comprises an oxide material comprising (Mg 1-x Sr x) y TiO (2+y), wherein 0≤x≤1, and y=0, 1, or 2. a first coil coupled to a power source; a second coil coupled to a load; and a field-focusing element including a plurality of resonator coils disposed between the first coil and the second coil in such a manner that the field-focusing element can be placed closer to the first coil or closer to the second coil, the field-focusing element and comprising a dielectric material, wherein the dielectric material comprises an oxide material comprising (Mg 1-x Sr x) y TiO (2+y), wherein 0≤x≤1, and y=0, 1, or 2.
A glass article comprising: a first major surface, a second major surface opposing the first major surface, a minor surface connecting the first major surface and the second major surface defining a thickness (t) (millimeters); a compressive stress region extending from the first major surface to a depth of compression, the CS region comprising a maximum CS magnitude (CS max) of 900 MPa or greater and a CS magnitude of 750 MPa or greater at a depth of 5 micrometers; and a central tension region having a maximum CT magnitude (CT max) disposed at a depth from the first major surface in a range from 0.25t to 0.75t, wherein the CS region and the CT region define a stress profile along the thickness. a first major surface, a second major surface opposing the first major surface, a minor surface connecting the first major surface and the second major surface defining a thickness (t) (millimeters); a compressive stress region extending from the first major surface to a depth of compression, the CS region comprising a maximum CS magnitude (CS max) of 900 MPa or greater and a CS magnitude of 750 MPa or greater at a depth of 5 micrometers; and a central tension region having a maximum CT magnitude (CT max) disposed at a depth from the first major surface in a range from 0.25t to 0.75t, wherein the CS region and the CT region define a stress profile along the thickness.
A user equipment comprising: a higher layer processor that acquires information which identifies a first subframe where a physical downlink control channel, PDCCH, with downlink control information, DCI, format 1C with a cyclic redundancy check, CRC, scrambled by enhanced interference management and traffic adaption-radio network temporary identifier, eIMTA-RNTI, is to be monitored, and a receiver unit that decodes the PDCCH in the first subframe, wherein a first uplink-downlink configuration is configured through system information, a second uplink-downlink configuration is configured through dedicated RRC signaling, the second uplink-downlink configuration is restricted based on the first uplink-downlink configuration, the PDCCH carries a third uplink-downlink configuration, the second uplink-downlink configuration identifies a second subframe as one of a downlink subframe, an uplink subframe, or a special subframe, and in a case that the second subframe is indicated as an uplink subframe or a special subframe by the second uplink-downlink configuration, the receiver unit does not receive a PDCCH including the third uplink-downlink configuration which identifies the second subframe as a downlink subframe. a higher layer processor that acquires information which identifies a first subframe where a physical downlink control channel, PDCCH, with downlink control information, DCI, format 1C with a cyclic redundancy check, CRC, scrambled by enhanced interference management and traffic adaption-radio network temporary identifier, eIMTA-RNTI, is to be monitored, and a receiver unit that decodes the PDCCH in the first subframe, wherein a first uplink-downlink configuration is configured through system information, a second uplink-downlink configuration is configured through dedicated RRC signaling, the second uplink-downlink configuration is restricted based on the first uplink-downlink configuration, the PDCCH carries a third uplink-downlink configuration, the second uplink-downlink configuration identifies a second subframe as one of a downlink subframe, an uplink subframe, or a special subframe, and in a case that the second subframe is indicated as an uplink subframe or a special subframe by the second uplink-downlink configuration, the receiver unit does not receive a PDCCH including the third uplink-downlink configuration which identifies the second subframe as a downlink subframe.