mhurhangee/ep-ind-claims huggingface dataset:
A heat resistant resin composition containing a maleimide-based copolymer and at least one resin selected from among a group consisting of an ABS resin, an ASA resin, an AES resin and a SAN resin, wherein: a weight average molecular weight of a MEK-soluble component contained in the heat resistant resin composition is 80000 to 120000, as measured in the example section of the description; a maleimide-based monomer unit contained in 100 mass% of the MEK-soluble component is 7 to 16 mass%, as measured in the example section of the description; an amount of a gel component contained in 100 mass% of the heat resistant resin composition is 15 to 24 mass%, as measured in the example section of the description; the resin contains at least the ABS resin and the SAN resin; and more than 20 mass% and 27 mass% or less of the ABS resin, 56 to 69 mass% of the SAN resin, and 10 to 27 mass% of the maleimide-based copolymer are contained in 100 mass% of the heat resistant resin composition. a weight average molecular weight of a MEK-soluble component contained in the heat resistant resin composition is 80000 to 120000, as measured in the example section of the description; a maleimide-based monomer unit contained in 100 mass% of the MEK-soluble component is 7 to 16 mass%, as measured in the example section of the description; an amount of a gel component contained in 100 mass% of the heat resistant resin composition is 15 to 24 mass%, as measured in the example section of the description; the resin contains at least the ABS resin and the SAN resin; and more than 20 mass% and 27 mass% or less of the ABS resin, 56 to 69 mass% of the SAN resin, and 10 to 27 mass% of the maleimide-based copolymer are contained in 100 mass% of the heat resistant resin composition.
An image processing device comprising: a generation section configured to generate, from an 8x8 quantization matrix, a 32x32 quantization matrix corresponding to a 32x32 transform unit by duplicating one of a first element and a second element adjacent to each other in the 8x8 quantization matrix as an element between the first element and the second element in the 32x32 quantization matrix; and an inverse quantization section configured to inversely quantize quantized transform coefficient data for image data using the 32x32 quantization matrix generated by the generation section. a generation section configured to generate, from an 8x8 quantization matrix, a 32x32 quantization matrix corresponding to a 32x32 transform unit by duplicating one of a first element and a second element adjacent to each other in the 8x8 quantization matrix as an element between the first element and the second element in the 32x32 quantization matrix; and an inverse quantization section configured to inversely quantize quantized transform coefficient data for image data using the 32x32 quantization matrix generated by the generation section.
High cleanliness spring steel which is steel consisting of in mass% with respect to the components; C: 0.2-1.2%, Si: 1.2-4%, Mn: 0.1-2.0%, Al: 0.0001-0.01%, and optionally; Cr: 0.5-3%, Mo: 0.05-0.5%, W: 0.05-0.5%, Co: 0.01-0.5%, V: 0.01-0.5%, Nb: 0.01-0.1%, Ti: 0.01-0.1%, Cu: 0.01-0.1%, Ni: 0.05-0.5%, REM: 0.1-50 ppm, alkali metal elements and/or alkaline earth metal elements: 0.1-50 ppm in total, and the balance being iron with inevitable impurities, wherein the total of SiO 2 -based inclusions is 12 nos./500 g or below, said total of SiO 2 -based inclusions meaning inclusions of 4 or above of L/D and 25 μm or above of D and inclusions of less than 4 of L/D and 25 μm or above of L, wherein L is the large diameter of an inclusion and D is the short diameter of an inclusion in the oxide-based inclusions with 25 mass% or above of oxygen concentration; and in mass% with respect to inclusions 70% or above of SiO 2 content presuming Al 2 O 3 + MgO + CaO + SiO 2 + MnO = 100%, out of inclusions in the steel, wherein the short diameter of an inclusion means the width of the widest line which is perpendicular to the long diameter.
Constriction-hose valve comprising a valve body and at least one movable clamping bolt, the valve body having an approximation sensor and the clamping bolt having at least one approximation element, wherein the approximation element is a disk that triggers in a distance to the sensor that corresponds to its control flank a signal and reports the position for regulation of the flow.
Sheathed glow plug for arrangement in a combustion chamber of an internal combustion engine of a motor vehicle, having a glow tube and an electrical resistance element which is accommodated in the glow tube and is designed as a single-material coil with a defined temperature coefficient of resistance, the electrical resistance element being heated up and/or maintained at a predetermined temperature by means of a dynamically changing drive voltage, the material of the electrical resistance element comprising at least one refractory metal and being welded to the glow tube in a gas-tight and corrosion-resistant manner, the material of the electrical resistance element being selected from the refractory metals molybdenum or tungsten, characterized in that the material of the electrical resistance element comprises molybdenum or tungsten with lanthanum oxide (La 2 O 3).
A humanoid-type robot comprising two elements (2, 3) and an articulation with at least one degree of freedom linking the two elements, the two elements each comprising a skin (22, 23) delimiting their outer surface, the articulation allowing a travel within a given range, a first of the two elements (2, 3) being intended to come substantially into contact with a zone of the skin (22, 23) of a second of the two elements at an end of the range, the zone being flexible so as to allow the deformation thereof by a given distance with a force less than a given force, characterized in that the first element is attached to the second element by passing through the flexible zone.
A method of diagnosing and/or monitoring mild traumatic brain injury (mTBI) in a subject, the method comprising determining a level of at least one miRNA in a saliva sample obtained from the subject, wherein the at least one miRNA comprises let-7i-5p.
A safety switch device (100; 200; 300; 400) configured to perform at least one of connecting a load to a power supply and disconnecting the load from the power supply, the safety switch device (100; 200; 300; 400) comprising: a first set of two serially connected controllable switching elements (120a, 120b); a safety circuit to verify a switching state of the first set of two switching elements (120a, 120b), wherein each switching element (120a, 120b) of the first set of two switching elements (120a, 120b) is configured as a toggle having a first contact (122a, 122b) electrically connected to either a second contact (124a, 124b) or a third contact (126a, 126b), wherein the second contact (124a, 124b) is comprised in the safety circuit and the third contact (126a, 126b) is comprised in a load circuit comprising the load; a control circuit configured to provide a test signal to the safety circuit; and decoupling means configured to galvanically decouple the load circuit from the control circuit, wherein the decoupling means comprise a transformer, and the control circuit comprises a transformer driver configured to provide the test signal to the safety circuit via the transformer. a first set of two serially connected controllable switching elements (120a, 120b); a safety circuit to verify a switching state of the first set of two switching elements (120a, 120b), wherein each switching element (120a, 120b) of the first set of two switching elements (120a, 120b) is configured as a toggle having a first contact (122a, 122b) electrically connected to either a second contact (124a, 124b) or a third contact (126a, 126b), wherein the second contact (124a, 124b) is comprised in the safety circuit and the third contact (126a, 126b) is comprised in a load circuit comprising the load; a control circuit configured to provide a test signal to the safety circuit; and decoupling means configured to galvanically decouple the load circuit from the control circuit, wherein the decoupling means comprise a transformer, and the control circuit comprises a transformer driver configured to provide the test signal to the safety circuit via the transformer.
An electronics module comprising: a printed circuit board (PCB), wherein the PCB defines a plane of the PCB; a connector coupled to the PCB to form a circuit board assembly (CBA), wherein the connector includes a plurality of header pins oriented perpendicular to the plane; a housing configured to receive the CBA, said housing configured to define an opening in a wall of the housing proximate to the connector when the CBA is installed, wherein the wall is perpendicular to the plane; and characterized with an interposer configured to couple to the housing, wherein the interposer includes a plurality of mating pins oriented parallel to the plane, wherein each of the mating pins defines a forked end configured to make electrical contact with each of the header pins when the interposer is inserted into the opening. a printed circuit board (PCB), wherein the PCB defines a plane of the PCB; a connector coupled to the PCB to form a circuit board assembly (CBA), wherein the connector includes a plurality of header pins oriented perpendicular to the plane; a housing configured to receive the CBA, said housing configured to define an opening in a wall of the housing proximate to the connector when the CBA is installed, wherein the wall is perpendicular to the plane; and characterized with an interposer configured to couple to the housing, wherein the interposer includes a plurality of mating pins oriented parallel to the plane, wherein each of the mating pins defines a forked end configured to make electrical contact with each of the header pins when the interposer is inserted into the opening.
A mobile device, comprising: a main processor that executes general codes of a mobile application program; a coprocessor that executes core codes of the mobile application program; and a coprocessor driver that is connected between the main processor and the coprocessor to enable communication therebetween, wherein the general codes include commands executable at the main processor, and wherein the core codes include commands executable at the coprocessor, characterized in that the mobile device further comprises a core code storage that stores the core codes and merely permits an access of the coprocessor, wherein the coprocessor stores the core codes separated from the mobile application program in the core code storage when the mobile application program is installed. a main processor that executes general codes of a mobile application program; a coprocessor that executes core codes of the mobile application program; and a coprocessor driver that is connected between the main processor and the coprocessor to enable communication therebetween, wherein the general codes include commands executable at the main processor, and wherein the core codes include commands executable at the coprocessor, characterized in that the mobile device further comprises a core code storage that stores the core codes and merely permits an access of the coprocessor, wherein the coprocessor stores the core codes separated from the mobile application program in the core code storage when the mobile application program is installed.
Method for purifying a mixture to be separated containing fructose in a multicolumn chromatography system, the method comprising successively and cyclically: - a step of collecting a raffinate, a step of injecting the mixture to be separated, a step of collecting an extract and a step of injecting eluent; wherein the mixture to be separated has a dry matter mass concentration of 45 to 55%, the method being carried out at a temperature of 50 to 62°C, and wherein: - the injected volume of eluent is from 0.12 to 0.28 BV; and - the injected volume of mixture to be separated is from 0.13 to 0.40 BV, the unit BV standing for Bed Volume and corresponding to the volume of mobile phase relative to the volume of stationary phase bed. - a step of collecting a raffinate, a step of injecting the mixture to be separated, a step of collecting an extract and a step of injecting eluent; - the injected volume of eluent is from 0.12 to 0.28 BV; and - the injected volume of mixture to be separated is from 0.13 to 0.40 BV, the unit BV standing for Bed Volume and corresponding to the volume of mobile phase relative to the volume of stationary phase bed.
A photosensitive resin composition, comprising: an alkali-soluble resin having a structural unit represented by the following formula: wherein R 1 represents a hydrogen atom or a methyl group; R 2 represents an alkyl group having 1 to 10 carbon atoms, an aryl group having 6 to 10 carbon atoms or an alkoxy group having 1 to 10 carbon atoms; and a represents an integer of 0 to 3, b represents an integer of 1 to 3, and a total of a and b is 5 or less; a compound that generates an acid by light; a thermal crosslinking agent; and an acryl resin having a structural unit represented by the following formula: wherein R 3 represents a hydrogen atom or a methyl group; and R 4 represents a hydroxyalkyl group having 2 to 20 carbon atoms, wherein the component is the acryl resin further having a structural unit represented by the following formula: wherein R 5 represents a hydrogen atom or a methyl group; and R 6 represents a monovalent organic group having a primary, secondary or tertiary amino group, and/or a structural unit represented by the following formula: wherein R 7 represents a hydrogen atom or a methyl group; and R 8 represents an alkyl group having 4 to 20 carbon atoms. an alkali-soluble resin having a structural unit represented by the following formula: wherein R 1 represents a hydrogen atom or a methyl group; R 2 represents an alkyl group having 1 to 10 carbon atoms, an aryl group having 6 to 10 carbon atoms or an alkoxy group having 1 to 10 carbon atoms; and a represents an integer of 0 to 3, b represents an integer of 1 to 3, and a total of a and b is 5 or less; a compound that generates an acid by light; a thermal crosslinking agent; and an acryl resin having a structural unit represented by the following formula: wherein R 3 represents a hydrogen atom or a methyl group; and R 4 represents a hydroxyalkyl group having 2 to 20 carbon atoms, wherein the component is the acryl resin further having a structural unit represented by the following formula: wherein R 5 represents a hydrogen atom or a methyl group; and R 6 represents a monovalent organic group having a primary, secondary or tertiary amino group, and/or a structural unit represented by the following formula: wherein R 7 represents a hydrogen atom or a methyl group; and R 8 represents an alkyl group having 4 to 20 carbon atoms.
A method for use in a dual-connectivity scenario where a user equipment, UE, is configured to communicate with a master base station, MNB, and a secondary base station, SNB, the method comprising, by the MNB: receiving a request to establish a bearer for data traffic relating to a detected application, receiving policy rules and information about characteristics of the detected application; and determining if a bearer to be used for said data traffic is to be established between the UE and the MNB or between the UE and the SNB, in dependence on information indicating the UE's ability to communicate with the MNB and the SNB, on the received policy rules, and on the received information about the characteristics of the detected application. receiving a request to establish a bearer for data traffic relating to a detected application, receiving policy rules and information about characteristics of the detected application; and determining if a bearer to be used for said data traffic is to be established between the UE and the MNB or between the UE and the SNB, in dependence on information indicating the UE's ability to communicate with the MNB and the SNB, on the received policy rules, and on the received information about the characteristics of the detected application.
Centrifugal pump having a pump impeller which is arranged in a casing, at least one cutting unit with a cutting face and a rotating cutting body being arranged in front of the inflow of the medium into an impeller wheel, the cutting face and the cutting body being braced against one another by way of a pressing force axially in the direction of the rotational axis of the cutting body and the cutting face having openings, through which the medium flows, characterized in that the pressing force is generated as a result of the rotation of the pump impeller.
A wind turbine, comprising: a tower comprising a lattice structure; a nacelle, the nacelle configured atop the tower; a rotor, the rotor comprising a rotatable hub connected to a main shaft, and at least one rotor blade; a tower torsion detection system comprising a plurality of sensors located on the tower and circumferentially spaced apart in a common, generally horizontal plane around the tower, the tower torsion detection system operably configured to generate a tower torsion signal corresponding to at least one of: i) an actual torsional movement of the tower, or ii) a torsional loading of the tower; and an asymmetric load control assembly in communication with the tower torsion detection system to receive the tower torsion signal, wherein the asymmetric load control assembly is further configured to use the tower torsional signal to mitigate an asymmetric load acting on the wind turbine, wherein the wind turbine further comprises a rotor blade pitch control system, the asymmetric load control assembly in communication with the pitch control system to mitigate the asymmetric load acting on the rotor by altering a pitch angle of the rotor blade. a tower comprising a lattice structure; a nacelle, the nacelle configured atop the tower; a rotor, the rotor comprising a rotatable hub connected to a main shaft, and at least one rotor blade; a tower torsion detection system comprising a plurality of sensors located on the tower and circumferentially spaced apart in a common, generally horizontal plane around the tower, the tower torsion detection system operably configured to generate a tower torsion signal corresponding to at least one of: i) an actual torsional movement of the tower, or ii) a torsional loading of the tower; and an asymmetric load control assembly in communication with the tower torsion detection system to receive the tower torsion signal, wherein the asymmetric load control assembly is further configured to use the tower torsional signal to mitigate an asymmetric load acting on the wind turbine, wherein the wind turbine further comprises a rotor blade pitch control system, the asymmetric load control assembly in communication with the pitch control system to mitigate the asymmetric load acting on the rotor by altering a pitch angle of the rotor blade.
A method for treating foods in at least one treatment zone, wherein the foods to be treated are filled into containers before the treatment, the containers are closed, and the containers are introduced into a treatment zone and/or conveyed through a treatment zone, and wherein the treatment zone or the treatment zones are each fed at least one liquid stream of a process liquid to act on the containers, wherein the process liquid flows around an outside of the containers, and wherein the process liquid is tempered and the treatment of the foods is executed in a treatment zone by heat transfer via the process liquid and the foods are pasteurized by a heated process liquid in at least one treatment zone, and wherein the process liquid is drained again after completed treatment of the foods out of the treatment zone, and wherein the process liquid for treating the foods is recirculated into the treatment zone or the treatment zones for reuse in the method, characterized in that during continuous treatment operation a partial quantity of the process liquid out of the total process liquid conducted through all existing treatment zones per time unit is used per time unit to form at least one stream of the process liquid, and the at least one formed stream of the process liquid is filtered by at least one membrane filtration system in order to clean the process liquid, and after the filtration process a filtered stream is at least partially fed back into an element containing and/or conducting the process liquid or into a treatment zone, wherein by means of at least one adjustable splitting means or multiple cooperating splitting means, a specifiable quantity of the process liquid is removed out of at least one element containing and/or conducting the process liquid per time unit in order to form the at least one stream of the process liquid, and wherein the total process liquid quantity used per time unit to form at least one stream of the process liquid out of at least one element containing and/or conducting the process liquid during continuous treatment operation is selected in such a way that, based on the total quantity of process liquid conducted through all existing treatment zones per time unit, at least 1% and less than 25% is used to form at least one stream of the process liquid per time unit, and this total partial quantity of the process liquid formed per time unit is filtered by means of at least one membrane filtration system.
A method of graphics processing comprising: receiving, by a graphics processing unit, GPU, a GPU command packet that indicates the GPU may select a rendering mode for rendering at least a portion of a frame from a direct rendering mode and a binning rendering mode; selecting, by the GPU, the rendering mode from a direct rendering mode and a binning rendering mode for rendering at least the portion of the frame based on GPU state information according to a suitable heuristic and based on information in the received GPU command packet, wherein the information received in the received GPU command packet comprises a scene descriptor and pointers to second level indirect buffers (126, 128, 130, 132) containing rendering commands; generating, by the GPU, an execution order using the pointers to said second level indirect buffers referred to by the scene descriptor, wherein the execution order comprises a series of the rendering commands; and rendering, by the GPU, at least the portion of the frame using said series of rendering commands using the selected rendering mode. receiving, by a graphics processing unit, GPU, a GPU command packet that indicates the GPU may select a rendering mode for rendering at least a portion of a frame from a direct rendering mode and a binning rendering mode; selecting, by the GPU, the rendering mode from a direct rendering mode and a binning rendering mode for rendering at least the portion of the frame based on GPU state information according to a suitable heuristic and based on information in the received GPU command packet, wherein the information received in the received GPU command packet comprises a scene descriptor and pointers to second level indirect buffers (126, 128, 130, 132) containing rendering commands; generating, by the GPU, an execution order using the pointers to said second level indirect buffers referred to by the scene descriptor, wherein the execution order comprises a series of the rendering commands; and rendering, by the GPU, at least the portion of the frame using said series of rendering commands using the selected rendering mode.