mhurhangee/ep-ind-claims huggingface dataset:
A substrate of a touch display screen comprising a base substrate and an electrode layer provided on the base substrate, the electrode layer comprising a plurality of first electrodes and a plurality of third electrodes, wherein the plurality of first electrodes intersect with and are electrically insulated from the plurality of third electrodes; wherein, the plurality of first electrodes and the plurality of third electrodes input a common electrode signal in a first time period with image display; the plurality of third electrodes and a part of the plurality of first electrodes input a touch control signal in a second time period without image display, and the plurality of first electrodes further comprise a plurality of second electrodes and a plurality of fourth electrodes, the plurality of second electrodes and the plurality of fourth electrodes are provided at an interval, the plurality of second electrodes input the common electrode signal only, and the plurality of fourth electrodes input the touch control signal in the second period, characterized in that the plurality of second electrodes and the plurality of fourth electrodes are arranged in parallel.
A wireless communications apparatus, comprising: a receiver configured to receive a plurality of downlink transmissions over a plurality of component carriers from a base station; a downlink mode identification module configured to identify downlink transmission modes associated with the plurality of component carriers; a feedback scheme identification module configured to identify a feedback bundling scheme for acknowledging receipt of downlink transmissions on the plurality of component carriers based at least in part on received control information signaling the feedback bundling scheme to be used, the feedback bundling scheme based at least in part on a power limited condition of the apparatus; a feedback generation module configured to bundle feedback confirming receipt of the downlink transmissions on the downlink component carriers (120, 215, 220, 225) according to the identified feedback bundling scheme; and a transmitter configured to transmit the bundled feedback to the base station on an uplink carrier (115, 205, 210). a receiver configured to receive a plurality of downlink transmissions over a plurality of component carriers from a base station; a downlink mode identification module configured to identify downlink transmission modes associated with the plurality of component carriers; a feedback scheme identification module configured to identify a feedback bundling scheme for acknowledging receipt of downlink transmissions on the plurality of component carriers based at least in part on received control information signaling the feedback bundling scheme to be used, the feedback bundling scheme based at least in part on a power limited condition of the apparatus; a feedback generation module configured to bundle feedback confirming receipt of the downlink transmissions on the downlink component carriers (120, 215, 220, 225) according to the identified feedback bundling scheme; and a transmitter configured to transmit the bundled feedback to the base station on an uplink carrier (115, 205, 210).
A method of analysing blade displacements detected by a plurality of circumferentially spaced stationary timing probes associated with an assembly of rotating blades mounted on a rotor, the blade displacements corresponding to the times at which the blades pass the respective probes, the method including the steps of: (a) identifying a possible resonant vibration event in the assembly of rotating blades; (b) zeroing the blade displacements on the rotations identified with the resonant vibration event to remove invariant blade displacements; (c) fitting modelled blade displacements corresponding to possible blade vibrational deflections at a plurality of frequencies to the zeroed blade displacements; and (d) characterising the resonant vibration event by identifying at each rotation the frequency having modelled blade displacements which correlate best with the zeroed blade displacements; characterised in that step (c) includes performing at each individual rotation identified with the resonant vibration event the sub-step of: (c-i) fitting the modelled blade displacements at each frequency to the zeroed blade displacements for a plurality of successive rotations which include that individual rotation. (a) identifying a possible resonant vibration event in the assembly of rotating blades; (b) zeroing the blade displacements on the rotations identified with the resonant vibration event to remove invariant blade displacements; (c) fitting modelled blade displacements corresponding to possible blade vibrational deflections at a plurality of frequencies to the zeroed blade displacements; and (d) characterising the resonant vibration event by identifying at each rotation the frequency having modelled blade displacements which correlate best with the zeroed blade displacements; (c-i) fitting the modelled blade displacements at each frequency to the zeroed blade displacements for a plurality of successive rotations which include that individual rotation.
Device for monitoring a passenger compartment of a vehicle and its occupants, wherein an optical sensor for detecting image information in the form of 2D data and distance information in the form of 3D data is arranged above the seats, and in that the number of persons in the passenger compartment and their seat position can be detected by means of the sensor, and in that the sensor is connected to a processing device or a processing device is arranged in the sensor, wherein the 2D and 3D data can be converted into status information of the persons by means of the processing device, and in that the status information comprises information in the form of the status of the persons and the type and location of the positioning of the persons in the passenger compartment for classifying an emergency, and wherein the sensor is a hemispherically imaging 3D sensor with which the complete passenger compartment can be detected, and wherein the sensor has a first aperture angle of 135° and a second aperture angle of 180° arranged orthogonally to the first aperture angle.
Charging station for telecommunication devices and other small electronic devices such as clocks, with a platform with a multiple of crosspieces (4 - 6) arranged parallel to each other, under which supply cables and plug-in connectors for connections to the appropriate charger can be laid, whereby at least one adapter serves for the connection of the telecommunication or small devices positioned on the platform with the supply cables or plug-in connectors underneath the platform, whereby the adapter can be placed and fixed with its longitudinal axis transverse to the crosspieces (4, 5) of the platform and having a holder for a telecommunication or small device and a fixing block to be inserted between two crosspieces (4, 5) of the platform and connected with the holder by means of a connection arm formed as a boom and whereby the adapter is characterised in that in addition a cover corresponding to the holder, and the fixing block is designed that can be connected to the holder and the connection arm by means of a locking mechanism.
Device for finishing a box a closing, air conditioning or other system a building is provided with includes, this device adopting the form of a profile bar, wherein it includes: - a base aimed at being fixed to the box; - at least one detachable planar element (4; 4'; 4") extending laterally relative to said base and from this base; - at least one means (5; 5'; 5") extending laterally relative to said base and from this base and designed to receive such a planar element (4; 4'; 4") after the latter has been separated from the base. - a base aimed at being fixed to the box; - at least one detachable planar element (4; 4'; 4") extending laterally relative to said base and from this base; - at least one means (5; 5'; 5") extending laterally relative to said base and from this base and designed to receive such a planar element (4; 4'; 4") after the latter has been separated from the base.
A fuel cell roll good subassembly, comprising: a plurality of individual electrolyte membranes, each electrolyte membrane comprising a center region; one or more first subgaskets attached to the individual electrolyte membranes, each of the first subgaskets having at least one aperture, the first subgaskets arranged so that the center regions of the individual electrolyte membranes are exposed through the apertures of the first subgaskets; and a second subgasket comprising a web having a plurality of apertures, the second subgasket arranged so that center regions of the individual electrolyte membranes are exposed through the apertures of the second subgasket; wherein each of the one or more first subgaskets comprises a first subgasket layer having a first subgasket surface oriented toward the electrolyte membrane, the first subgasket having a first adhesive layer disposed on the first subgasket surface; and the second subgasket comprises a second subgasket layer having a second subgasket surface oriented toward the electrolyte membrane, wherein at least 25% of the second subgasket surface is not disposed with a second adhesive layer thereon. a plurality of individual electrolyte membranes, each electrolyte membrane comprising a center region; one or more first subgaskets attached to the individual electrolyte membranes, each of the first subgaskets having at least one aperture, the first subgaskets arranged so that the center regions of the individual electrolyte membranes are exposed through the apertures of the first subgaskets; and a second subgasket comprising a web having a plurality of apertures, the second subgasket arranged so that center regions of the individual electrolyte membranes are exposed through the apertures of the second subgasket; wherein each of the one or more first subgaskets comprises a first subgasket layer having a first subgasket surface oriented toward the electrolyte membrane, the first subgasket having a first adhesive layer disposed on the first subgasket surface; and the second subgasket comprises a second subgasket layer having a second subgasket surface oriented toward the electrolyte membrane, wherein at least 25% of the second subgasket surface is not disposed with a second adhesive layer thereon.
A method of recovering structural members from a used absorbent article which comprises a front sheet, a back sheet and an absorbent body situated between the front sheet and the back sheet, wherein at least one of the front sheet and the back sheet includes a film as a structural member and the absorbent body includes an absorbent body material as a structural member, the method comprising: a pretreatment step of swelling the used absorbent article with water; a disintegration step of applying physical shock to the swelled used absorbent article to disintegrate the used absorbent article into at least the film and the absorbent body material; and a separating step of separating the disintegrated film and absorbent body material, characterized in that the material-separating step includes: a step of removing an adhesive at joining sections between the film and other members using a solvent to dissolve the adhesive at the joining sections. a pretreatment step of swelling the used absorbent article with water; a disintegration step of applying physical shock to the swelled used absorbent article to disintegrate the used absorbent article into at least the film and the absorbent body material; and a separating step of separating the disintegrated film and absorbent body material, characterized in that the material-separating step includes: a step of removing an adhesive at joining sections between the film and other members using a solvent to dissolve the adhesive at the joining sections.
A treatment device for an endoscope, comprising: a treatment portion in which an operation wire is forward/backward moveably inserted into a main tube of an elongated flexible tube to be inserted into a body, a tip end of the operation wire forms a loop for treatment by itself in a projection state from the main tube, and the loop is adapted to be retractable and storable in the main tube, wherein the treatment portion is formed with a wire rope obtained by integrally intertwining a plurality of side strand wires with a core strand wire, the plurality of side strand wires comprise first side strand wires which define an outer periphery of the wire rope, characterized in that the plurality of side strand wires further comprises at least one second side strand wire which extends along the outer periphery of the wire rope in a longitudinal direction thereof to form a continuous spiral convex portion projecting outwards from the outer periphery of the wire rope, wherein the at least one second side strand wire comprises (i) two large-diameter side strand wires each having a larger diameter than the first side strand wires and both large-diameter side strand wires arranged opposite to each other, (ii) a triangular side strand wire having a triangular sectional shape, wherein an upper half portion of the triangular side strand wire in a wound state around the core strand wire projects from the outer periphery of the wire rope, (iii) a side strand wire obtained by twisting a wire material having a rectangular sectional surface centering on a wire material axial center, or (iv) two spiral strand wires each having an outer continuous edge-shaped end surface and both spiral strand wires arranged opposite to each other.
A method of forming a biodegradable polymeric composition, comprising combining: a) a biologically-produced polyhydroxyalkanoate polymer; b) a toughener comprising a vinyl acetate polymer comprising vinyl acetate monomer in an amount ranging from 60 percent to 100 percent by weight of the vinyl acetate polymer and the remainder from at least one of the following: (i) ethylene at up to about 14 weight percent of the vinyl acetate polymer; (ii) (meth)acrylic esters; (iii) vinyl esters having from 1 to 12 carbon atoms in the carboxylic acid radical; (iv) a carboxyl-group-containing monomer selected from the group consisting of acrylic acid, methacrylic acid, crotonic acid, itaconic acid, fumaric acid, maleic acid, and salts thereof; (v) glycidyl methacrylate, hydroxyethyl methacrylate, acrylamide and vinyl pyrrolidone; and (vi) vinyl alcohol; and c) a nucleating agent; and melt mixing the individual components to produce a homogeneous mixture, wherein the method is performed in the presence of a peroxide that reacts with the PHA. a) a biologically-produced polyhydroxyalkanoate polymer; b) a toughener comprising a vinyl acetate polymer comprising vinyl acetate monomer in an amount ranging from 60 percent to 100 percent by weight of the vinyl acetate polymer and the remainder from at least one of the following: (i) ethylene at up to about 14 weight percent of the vinyl acetate polymer; (ii) (meth)acrylic esters; (iii) vinyl esters having from 1 to 12 carbon atoms in the carboxylic acid radical; (iv) a carboxyl-group-containing monomer selected from the group consisting of acrylic acid, methacrylic acid, crotonic acid, itaconic acid, fumaric acid, maleic acid, and salts thereof; (v) glycidyl methacrylate, hydroxyethyl methacrylate, acrylamide and vinyl pyrrolidone; and (vi) vinyl alcohol; and (i) ethylene at up to about 14 weight percent of the vinyl acetate polymer; (ii) (meth)acrylic esters; (iii) vinyl esters having from 1 to 12 carbon atoms in the carboxylic acid radical; (iv) a carboxyl-group-containing monomer selected from the group consisting of acrylic acid, methacrylic acid, crotonic acid, itaconic acid, fumaric acid, maleic acid, and salts thereof; (v) glycidyl methacrylate, hydroxyethyl methacrylate, acrylamide and vinyl pyrrolidone; and (vi) vinyl alcohol; and c) a nucleating agent;
A method of automated fault correction in a network environment, in which a plurality of network events occur; comprising identifying a pattern in a set of the network events; generating a set of substantiating data for the identified pattern, wherein the substantiating data are generated based on parameters including, but not limited to, the topology of the data, time stamp and occurrence frequency of the network events; determining an occurrence probability value for each network event; generating root cause data based on a ranking for the network events using a set of parameters including the occurrence probability and the substantiating data; performing a regression of the root cause data against a set of historic data, comprising root cause scenarios of correlated network events with the appropriate root cause; selecting the root cause with a predefined accuracy as an acceptable candidate; and presenting the acceptable candidate for assisted learning for automated fault correction. identifying a pattern in a set of the network events; generating a set of substantiating data for the identified pattern, wherein the substantiating data are generated based on parameters including, but not limited to, the topology of the data, time stamp and occurrence frequency of the network events; determining an occurrence probability value for each network event; generating root cause data based on a ranking for the network events using a set of parameters including the occurrence probability and the substantiating data; performing a regression of the root cause data against a set of historic data, comprising root cause scenarios of correlated network events with the appropriate root cause; selecting the root cause with a predefined accuracy as an acceptable candidate; and presenting the acceptable candidate for assisted learning for automated fault correction.
Injector arrangement (1; 31; 41) having an injection nozzle for injecting medium into a combustion chamber, in particular for injecting fuel into a combustion chamber of an internal combustion engine, and having a sealing ring which, for the purpose of sealing, is preloaded against a sealing surface of a cylinder head, said cylinder head comprising a passage hole through which the injection nozzle projects into the combustion chamber and in which a heat-protection sleeve is arranged between the injection nozzle and the cylinder head in a radial direction, which heat-protection sleeve, by way of an end facing towards the combustion chamber, is connected in a force-fitting manner to the injection nozzle by way of a radial press fit, characterized in that the heat-protection sleeve, by way of an end facing away from the combustion chamber, is connected in a force-fitting manner to the sealing ring by way of an axial press fit, wherein, at its end facing away from the combustion chamber, the heat-protection sleeve has a radially outwardly projecting collar by way of which the heat-protection sleeve is connected in a force-fitting manner to the sealing ring, and the sealing ring has a radially inwardly projecting collar which is clamped between the radially outwardly projecting collar of the heat-protection sleeve and the sealing surface of the cylinder head in an axial direction.
Coating on a polymeric insulating material that comprises a plurality of, at most 10, layers and is fundamentally silicatic, the coating comprising a suitable blend of the silicatic base unit with organic radicals to allow it to be applied to flexible substrates, and the coat thickness of the individual layer being in the range from 0.1 to 100 μm, the individual layers being wet-chemically producible, the precursors being silane, siloxane and/or silicate, the silane or the silane-containing compound and/or the siloxane or the siloxane-containing compound having been prepared from a precursor which comprises either tetraethyl orthosilicate (TEOS) and/or methyltriethoxysilane, furthermore the fraction of the organic radicals within the coating being altered from layer to layer, so that the fraction of inorganic Si-O units within the coating increases outwardly, in other words away from the substrate.
A bicycle cassette comprising: a. a large sprocket sub-assembly comprising a clamp screw, a clamping mechanism for attaching the large sprocket sub-assembly to a rear bicycle hub, wherein once the large sprocket sub-assembly is completely engaged on the rear bicycle hub, the large sprocket sub-assembly clamps to a right-end radial surface of the rear bicycle hub by tightening the clamp screw thereby closing a clamp clearance slot thereby creating pressure between a clamping surface and the right-end radial surface; and b. a small sprocket sub-assembly, wherein the small sprocket sub-assembly rotatably couples with and locks to the large sprocket sub-assembly after the large sprocket sub-assembly is clamped to the rear bicycle hub to form the bicycle cassette. a. a large sprocket sub-assembly comprising a clamp screw, a clamping mechanism for attaching the large sprocket sub-assembly to a rear bicycle hub, wherein once the large sprocket sub-assembly is completely engaged on the rear bicycle hub, the large sprocket sub-assembly clamps to a right-end radial surface of the rear bicycle hub by tightening the clamp screw thereby closing a clamp clearance slot thereby creating pressure between a clamping surface and the right-end radial surface; and b. a small sprocket sub-assembly, wherein the small sprocket sub-assembly rotatably couples with and locks to the large sprocket sub-assembly after the large sprocket sub-assembly is clamped to the rear bicycle hub to form the bicycle cassette.