mhurhangee/ep-ind-claims huggingface dataset:
Station (U-RRP) for processing a first signal generated by a mobile terminal and belonging to a plurality of signals for mobile radio communications networks, said station including: - an input able to receive from an antenna the first signal associated with a first band and at least one adjacent signal of said plurality associated with a second band adjacent to that of the first signal, characterized by comprising: - a processing stage (BP-IF,DEM,A/D-1), comprising an analog filter (BP-IF) having a passband such as to eliminate second signals of said plurality which are non-adjacent to the first signal, for generating from the first signal and from the at least one adjacent signal a first digital signal at a first sampling frequency, this first digital signal including a useful spectral content of the first signal and an interfering spectral content associated with said adjacent signal; - a digital filter (DLPF) for processing the first digital signal, attenuating the interfering spectral content, and for providing a first filtered digital signal including at least part of said useful spectral content; - a sampling frequency reducer connected to said digital filter for generating a second filtered digital signal having a second sampling frequency lower than said first frequency; - a converter (E/O-A) for generating from said second filtered digital signal electromagnetic radiation to be transmitted on a waveguide (F-up1). - an input able to receive from an antenna the first signal associated with a first band and at least one adjacent signal of said plurality associated with a second band adjacent to that of the first signal, characterized by comprising: - a processing stage (BP-IF,DEM,A/D-1), comprising an analog filter (BP-IF) having a passband such as to eliminate second signals of said plurality which are non-adjacent to the first signal, for generating from the first signal and from the at least one adjacent signal a first digital signal at a first sampling frequency, this first digital signal including a useful spectral content of the first signal and an interfering spectral content associated with said adjacent signal; - a digital filter (DLPF) for processing the first digital signal, attenuating the interfering spectral content, and for providing a first filtered digital signal including at least part of said useful spectral content; - a sampling frequency reducer connected to said digital filter for generating a second filtered digital signal having a second sampling frequency lower than said first frequency; - a converter (E/O-A) for generating from said second filtered digital signal electromagnetic radiation to be transmitted on a waveguide (F-up1).
An analogue balancing system (200;300) for a rechargeable electrical energy storage assembly comprising a plurality of capacitive-effect storage devices (DC 1,..., DC n) connected together in series, said system (200;300) comprising a balancing device (202 i;302 i) for each storage device (DC i) comprising: - a bypass circuit (204 i;304 i) of said storage device (DC i), that can be actuated between a closed state and an open state, and - a voltage comparator (106 i), called first comparator, arranged in order to actuate said bypass circuit (204 i; 304 i) to an open or closed state, as a function of the voltage at the terminals of said storage device (DC i) and a predetermined voltage, called balancing voltage (V eq); said system (200; 300) also comprising at least one other voltage comparator, called second comparator, arranged in order to actuate an open or closed state of the bypass circuit (204 i; 304 i) of each storage device (DC i), said system (200; 300) being characterized in that said second comparator is arranged in order to actuate an open, or closed, state of the bypass circuit [R1,Q1,R2,Q2] of each storage device as a function of: - a voltage (V Σ), called switch-off voltage, representative of a closed state of all the bypass circuits (204 i; 304 i) of all the storage devices (DC i) of said assembly, and - the voltage at the terminals of each storage device (DC i) of said assembly, or of the voltage at the terminals of said assembly. - a bypass circuit (204 i;304 i) of said storage device (DC i), that can be actuated between a closed state and an open state, and - a voltage comparator (106 i), called first comparator, arranged in order to actuate said bypass circuit (204 i; 304 i) to an open or closed state, as a function of the voltage at the terminals of said storage device (DC i) and a predetermined voltage, called balancing voltage (V eq); - a voltage (V Σ), called switch-off voltage, representative of a closed state of all the bypass circuits (204 i; 304 i) of all the storage devices (DC i) of said assembly, and - the voltage at the terminals of each storage device (DC i) of said assembly, or of the voltage at the terminals of said assembly.
A side vehicle body structure comprising: a side rail provided in an upper portion of the side vehicle body structure and extending in a front-rear direction of a vehicle body to form an upper side (17a, 18a) of a door opening section (17, 18), the side rail having a rail flange (34, 37) projecting downward; a pillar mounted to the side rail to form a vertical side (17b, 18b) of the door opening section (17, 18) and having a pillar flange (46, 47) projecting in the front-rear direction; a trim member (21, 22) mounted along the rail flange (34, 37) and the pillar flange (46, 47) to decorate the upper side (17a, 18a) and the vertical side (17b, 18b) of the door opening section (17, 18); and a roof arch extending in a vehicle width direction, wherein, with the pillar mounted to the side rail in superposed relation thereto, an intersecting section (54, 55) is provided where the rail flange (34, 37) and the pillar flange (46, 47) intersect each other, and wherein, in the intersecting section (54, 55), a stepped portion (57, 62) is formed on one of the rail flange (34, 37) and the pillar flange (46, 47) such that the one of the rail flange (34, 37) and the pillar can avoid other of the rail flange (34, 37) and the pillar flange (46, 47), and a recess (58, 63) is formed in the other of the rail flange (34, 37) and the pillar flange (46, 47) at a position corresponding to the stepped portion (57, 62), characterized in that the side rail is divided in a front rail provided closer to a front of the vehicle body and a rear rail joined to a rear end portion of the front rail, and the roof arch is joined at an end portion to a joint section between the front rail and the rear rail.
An article of footwear comprising: an upper member at least partially defining a foot-receiving chamber; a sole structure engaged with the upper member, the sole structure comprising an outsole member, a midsole member located above the outsole member, and a foot contacting member located above the midsole member; an insert member engaging the sole structure and located between the midsole member and the foot contacting member, the insert member comprising a first flexible layer of polymer sheet and a second flexible layer of polymer sheet positioned in a superimposed manner, a plurality of force sensors connected to the insert member and located between the first and second flexible layers, each force sensor configured for detecting a force exerted by a foot on the force sensor; and a port in communication with the sensors, the port being configured for communication with an electronic module such that the port is configured to enable communication between the force sensors and the electronic module. an upper member at least partially defining a foot-receiving chamber; a sole structure engaged with the upper member, the sole structure comprising an outsole member, a midsole member located above the outsole member, and a foot contacting member located above the midsole member; an insert member engaging the sole structure and located between the midsole member and the foot contacting member, the insert member comprising a first flexible layer of polymer sheet and a second flexible layer of polymer sheet positioned in a superimposed manner, a plurality of force sensors connected to the insert member and located between the first and second flexible layers, each force sensor configured for detecting a force exerted by a foot on the force sensor; and a port in communication with the sensors, the port being configured for communication with an electronic module such that the port is configured to enable communication between the force sensors and the electronic module.
A computer-implemented method at a display end to control judder visibility of a video encoded at a frame rate below a cut-off frame rate for perception of judder, wherein judder refers to visual distortions resulting from non-smooth motion due to the encoding at the frame rate below the cut-off frame rate, the method comprising: providing at least two input video frames; receiving judder control metadata that have been generated, by a computer at a content production end, based on the at least two input video frames; obtaining reference display parameters, wherein the reference display parameters comprise a minimum and maximum luminance of a reference display used for determining an expected level of judder visibility as intended at the content production end; and applying the judder control metadata to a frame rate control algorithm, wherein the frame rate control algorithm is configured to generate interpolated video frames based on the at least two input video frames such that the generated interpolated video frames have an expected level of judder visibility as intended at the content production end and defined by the judder control metadata and the reference display parameters. providing at least two input video frames; receiving judder control metadata that have been generated, by a computer at a content production end, based on the at least two input video frames; obtaining reference display parameters, wherein the reference display parameters comprise a minimum and maximum luminance of a reference display used for determining an expected level of judder visibility as intended at the content production end; and applying the judder control metadata to a frame rate control algorithm, wherein the frame rate control algorithm is configured to generate interpolated video frames based on the at least two input video frames such that the generated interpolated video frames have an expected level of judder visibility as intended at the content production end and defined by the judder control metadata and the reference display parameters.
Use of a chimeric receptor that comprises the central region of OR5A2, encompassing the transmembrane domains 2 to 7 defined by amino acid sequence ID NO:11, which is fused at its N-terminus to the N-terminal extracellular moiety, the transmembrane domain 1 and the intracellular loop 1 of a G protein-coupled receptor; and which is fused at its C-terminus to the intracellular C-terminal end of a G protein-coupled receptor, for identifying agents that interfere with the binding between said OR5A2 receptor and musk compounds.
An integrated circuit, IC, die, comprising: a substrate; a temperature control element (206, 602, 604, 606, 608) formed on a first side of the substrate; and a plurality of device structures formed on a second side of the substrate, wherein the temperature control element (206, 602, 604, 606, 608) is formed as an integral part of the IC die, wherein the temperature control element (206, 602, 604, 606, 608) comprises a plurality of vias (612, 622, 632) formed in a base structure (614, 624, 634), wherein the IC die further comprises a heat dissipation material disposed in the plurality of vias (612, 622, 632) in the base structure (614, 624, 634), wherein the heat dissipation material comprises at least one of ceramic materials, semiconductor materials, graphite, diamond, or organic materials. a substrate; a temperature control element (206, 602, 604, 606, 608) formed on a first side of the substrate; and a plurality of device structures formed on a second side of the substrate, wherein the temperature control element (206, 602, 604, 606, 608) is formed as an integral part of the IC die, wherein the temperature control element (206, 602, 604, 606, 608) comprises a plurality of vias (612, 622, 632) formed in a base structure (614, 624, 634), wherein the IC die further comprises a heat dissipation material disposed in the plurality of vias (612, 622, 632) in the base structure (614, 624, 634), wherein the heat dissipation material comprises at least one of ceramic materials, semiconductor materials, graphite, diamond, or organic materials.
Headlamp for vehicles with a plurality of LED light sources (19, 20, 22) with at least one optical unit located in front of the LED light sources (19, 22), where the LED light sources (19, 22) are arranged in groups with a first group of LED light sources and a second group of LED light sources for generating a specified light distribution (13, 17), where the LED light sources (19, 22) of each group of light sources are designed to be of the same size, characterized in that - the same optical unit is located in front of the first group of LED light sources and the second group of LED light sources, where light patches (10, 14, 15, 16) are created with a vertical and/or horizontal boundary angle in a range between 0.2° and 1° - the LED light sources of the first group of LED Light sources each feature a first dimension that are arranged together with a second group of LED light sources on a shared substrate, where the LED light sources of the second group of LED light sources each feature a second dimension such that the ratio of the first dimension of the LED light sources of the first group to the same dimension of the LED light sources of the second group is smaller than one - at least one further LED light source is provided for generating a basic light distribution that can be overlapped by the light functions generated by first group of LED light sources and the second group of LED light sources. - the same optical unit is located in front of the first group of LED light sources and the second group of LED light sources, where light patches (10, 14, 15, 16) are created with a vertical and/or horizontal boundary angle in a range between 0.2° and 1° - the LED light sources of the first group of LED Light sources each feature a first dimension that are arranged together with a second group of LED light sources on a shared substrate, where the LED light sources of the second group of LED light sources each feature a second dimension such that the ratio of the first dimension of the LED light sources of the first group to the same dimension of the LED light sources of the second group is smaller than one - at least one further LED light source is provided for generating a basic light distribution that can be overlapped by the light functions generated by first group of LED light sources and the second group of LED light sources.
A database access method, comprising: receiving a database access statement; parsing the database access statement to determine a target user parameter comprised in the database access statement; determining a statement type of the database access statement, comprising: parameterizing the database access statement, the parametrizing comprising: extracting a corresponding object set from the database access statement; for an object in the object set, determining an object type group that the object belongs to, and obtaining a corresponding group name; and replacing the object in the database access statement with the corresponding group name, and replacing the target user parameter with a wildcard; and determining the statement type based on the parameterized database access statement; obtaining a pre-stored execution plan group corresponding to the database access statement of the statement type, wherein execution plans in the execution plan group are distinguished by using different user parameters; selecting a target execution plan from the execution plan group based on the target user parameter; and executing the target execution plan. receiving a database access statement; parsing the database access statement to determine a target user parameter comprised in the database access statement; determining a statement type of the database access statement, comprising: parameterizing the database access statement, the parametrizing comprising: extracting a corresponding object set from the database access statement; for an object in the object set, determining an object type group that the object belongs to, and obtaining a corresponding group name; and replacing the object in the database access statement with the corresponding group name, and replacing the target user parameter with a wildcard; and determining the statement type based on the parameterized database access statement; parameterizing the database access statement, the parametrizing comprising: extracting a corresponding object set from the database access statement; for an object in the object set, determining an object type group that the object belongs to, and obtaining a corresponding group name; and replacing the object in the database access statement with the corresponding group name, and replacing the target user parameter with a wildcard; and extracting a corresponding object set from the database access statement; for an object in the object set, determining an object type group that the object belongs to, and obtaining a corresponding group name; and replacing the object in the database access statement with the corresponding group name, and replacing the target user parameter with a wildcard; and determining the statement type based on the parameterized database access statement; obtaining a pre-stored execution plan group corresponding to the database access statement of the statement type, wherein execution plans in the execution plan group are distinguished by using different user parameters; selecting a target execution plan from the execution plan group based on the target user parameter; and executing the target execution plan.
A preparation method of a flexible graphene oxide film, which comprises steps of: dispersing graphene oxide in a good solvent, obtaining a graphene oxide solution with a concentration in a range of 5-40 mg/mL, casting film using a blade, and obtaining a liquid graphene oxide film, wherein the good solvent is at least one member selected from a group consisting of N,N-dimethylformamide, water, N-methylpyrrolidone, acetone, dimethyl sulfoxide, pyridine, dioxane, N,N-dimethylacetamide, tetrahydrofuran and ethylene glycol; immersing the liquid graphene oxide film in a poor solvent for 1 to 24 h, and obtaining a graphene oxide gel film, wherein the poor solvent is at least one member selected from a group consisting of ethyl acetate, dichloromethane, alkanes, methanol, ethanol, n-butanol, ethylene glycol, propylene glycol, glycerol, isobutanol, methyl acetate, butyl acetate, and acetic acid; and drying the graphene oxide gel film, wherein the graphene oxide gel film is dried at 50-100 °C in an oven, and obtaining the flexible graphene oxide film, and wherein a thickness of the liquid graphene oxide film is in a range of 0.5 to 30 mm, and the casting film using a blade is performed at a speed in a range of 1 to 20 mm/s. dispersing graphene oxide in a good solvent, obtaining a graphene oxide solution with a concentration in a range of 5-40 mg/mL, casting film using a blade, and obtaining a liquid graphene oxide film, wherein the good solvent is at least one member selected from a group consisting of N,N-dimethylformamide, water, N-methylpyrrolidone, acetone, dimethyl sulfoxide, pyridine, dioxane, N,N-dimethylacetamide, tetrahydrofuran and ethylene glycol; immersing the liquid graphene oxide film in a poor solvent for 1 to 24 h, and obtaining a graphene oxide gel film, wherein the poor solvent is at least one member selected from a group consisting of ethyl acetate, dichloromethane, alkanes, methanol, ethanol, n-butanol, ethylene glycol, propylene glycol, glycerol, isobutanol, methyl acetate, butyl acetate, and acetic acid; and drying the graphene oxide gel film, wherein the graphene oxide gel film is dried at 50-100 °C in an oven, and obtaining the flexible graphene oxide film, and wherein a thickness of the liquid graphene oxide film is in a range of 0.5 to 30 mm, and the casting film using a blade is performed at a speed in a range of 1 to 20 mm/s.
A method for detecting and locating a fault in a thermal solar field including: - a piping into which a coolant circulates, the pipe including a plurality of conduits in junction with a supply channel fitted with a supply pump and an outlet channel for the coolant fitted with a first temperature sensor, - a set of solar sensors arranged in rows, each row of solar sensors being disposed so as to heat the coolant circulating in one of the conduits, said method including the following operations of: - stagnating of the coolant inside each solar sensor for a predetermined time period, the supply pump being stopped, - at the end of the predetermined time period, starting the supply pump at a first flow rate so that the coolant inside the solar sensors circulates to the temperature sensor, - recording, as curves, coolant temperature variations measured by the temperature sensor, and - analysing obtained curves by comparing said curves with a reference curve and determining the existence of a fault and its location. - a piping into which a coolant circulates, the pipe including a plurality of conduits in junction with a supply channel fitted with a supply pump and an outlet channel for the coolant fitted with a first temperature sensor, - a set of solar sensors arranged in rows, each row of solar sensors being disposed so as to heat the coolant circulating in one of the conduits, - stagnating of the coolant inside each solar sensor for a predetermined time period, the supply pump being stopped, - at the end of the predetermined time period, starting the supply pump at a first flow rate so that the coolant inside the solar sensors circulates to the temperature sensor, - recording, as curves, coolant temperature variations measured by the temperature sensor, and - analysing obtained curves by comparing said curves with a reference curve and determining the existence of a fault and its location.
A modified conjugated diene-based polymer comprising a functional group derived from a compound represented by the following Formula 1, wherein a modification ratio of the modified conjugated diene-based polymer is from 20 mol% to 50 mol%: in Formula 1, R 1 and R 3 are each independently a trivalent hydrocarbon group of 1 to 10 carbon atoms, which is substituted with one or more substituents selected from the group consisting of a halogen group, an alkyl group of 1 to 20 carbon atoms, a cycloalkyl group of 3 to 20 carbon atoms and an aryl group of 6 to 30 carbon atoms; or an unsubstituted divalent hydrocarbon group of 1 to 10 carbon atoms, R 2 is a trivalent hydrocarbon group of 1 to 10 carbon atoms, which is substituted with -R 6 COOR 7, R 4 and R 6 are single bonds, R 7 is an alkyl group of 1 to 20 carbon atoms, or a cycloalkyl group of 3 to 20 carbon atoms, and R 9 to R 11 are each independently hydrogen or an alkyl group of 1 to 20 carbon atoms. R 1 and R 3 are each independently a trivalent hydrocarbon group of 1 to 10 carbon atoms, which is substituted with one or more substituents selected from the group consisting of a halogen group, an alkyl group of 1 to 20 carbon atoms, a cycloalkyl group of 3 to 20 carbon atoms and an aryl group of 6 to 30 carbon atoms; or an unsubstituted divalent hydrocarbon group of 1 to 10 carbon atoms, R 2 is a trivalent hydrocarbon group of 1 to 10 carbon atoms, which is substituted with -R 6 COOR 7, R 4 and R 6 are single bonds, R 7 is an alkyl group of 1 to 20 carbon atoms, or a cycloalkyl group of 3 to 20 carbon atoms, and R 9 to R 11 are each independently hydrogen or an alkyl group of 1 to 20 carbon atoms.