mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for sorting products, wherein: • said apparatus at least consists of a supply system (1,4) transporting the products to be sorted in the form of a product stream extending over a width consisting of a single layer of products, in a certain direction; • means (9,10) to scan the products to be sorted (2,3) across the width of the product stream, wherein these scanning means further comprise; o means to generate a concentrated light beam and direct it towards the products (2,3) via optical means; o a first detection unit to detect the returning light (46,47,48) and convert it to an electric signal; • means for generating control signals enabling the carrying out of a selection between the scanned products (2,3) based on said detected light (46, 47, 48); and • means for sorting the product stream (2,3) in function of said selection by means of said one or more control signals, characterized in that the apparatus further comprises a background element consisting of means to capture incident light and to direct it to a second detection unit that is configured to convert said light into an electric signal. • said apparatus at least consists of a supply system (1,4) transporting the products to be sorted in the form of a product stream extending over a width consisting of a single layer of products, in a certain direction; • means (9,10) to scan the products to be sorted (2,3) across the width of the product stream, wherein these scanning means further comprise; o means to generate a concentrated light beam and direct it towards the products (2,3) via optical means; o a first detection unit to detect the returning light (46,47,48) and convert it to an electric signal; o means to generate a concentrated light beam and direct it towards the products (2,3) via optical means; o a first detection unit to detect the returning light (46,47,48) and convert it to an electric signal; • means for generating control signals enabling the carrying out of a selection between the scanned products (2,3) based on said detected light (46, 47, 48); and • means for sorting the product stream (2,3) in function of said selection by means of said one or more control signals,
A display panel, comprising: a light emitting element, comprising a microcavity structure and a light emitting layer disposed in the microcavity structure; and an external microcavity structure, disposed on a light emitting side of the light emitting element and comprising a first transflective layer, a second transflective layer and a dielectric layer disposed between the first transflective layer and the second transflective layer, the microcavity structure of the light emitting element is configured to modulate a spectrum of light emitted by the light emitting layer in a first viewing angle range; the external microcavity structure is configured to modulate a spectrum of light emitted by the light emitting element in a second viewing angle range; and the second viewing angle range is larger than the first viewing angle range, characterized in that a distance between the external microcavity structure and the microcavity structure of the light emitting element is greater than 1000 nm. a light emitting element, comprising a microcavity structure and a light emitting layer disposed in the microcavity structure; and an external microcavity structure, disposed on a light emitting side of the light emitting element and comprising a first transflective layer, a second transflective layer and a dielectric layer disposed between the first transflective layer and the second transflective layer, the microcavity structure of the light emitting element is configured to modulate a spectrum of light emitted by the light emitting layer in a first viewing angle range; the external microcavity structure is configured to modulate a spectrum of light emitted by the light emitting element in a second viewing angle range; and the second viewing angle range is larger than the first viewing angle range, characterized in that a distance between the external microcavity structure and the microcavity structure of the light emitting element is greater than 1000 nm.
Transformer platform having at least one hollow structural element (2, 23, 24, 25, 27.1, 27.2, 2.1, 2.2) and having a cooling system for cooling at least one platform component of the transformer platform, wherein - the cooling system comprises a cooling circuit (3.2) in which a coolant is channelled, - and at least one portion of the cooling circuit (3.2) is formed by a hollow structural element (2, 23, 24, 25, 27.1, 27.2, 2.1, 2.2) through which the coolant is channelled, characterized in that the hollow structural element (2, 23, 24, 25, 27.1, 27.2, 2.1, 2.2) is a tubular component which at least partially constitutes the load-bearing construction of the platform foundation of the transformer platform. - the cooling system comprises a cooling circuit (3.2) in which a coolant is channelled, - and at least one portion of the cooling circuit (3.2) is formed by a hollow structural element (2, 23, 24, 25, 27.1, 27.2, 2.1, 2.2) through which the coolant is channelled,
A method for forming a metal nanowire or a metal nanomesh, comprising the steps of: forming a block copolymer thin film on a substrate, in which the block copolymer thin film includes hard segments containing a repeating unit of the following Chemical Formula 1 and soft segments containing one or more polymer repeating units selected from the group consisting of a poly(meth)acrylate-based repeating unit of the following Chemical Formula 2, a polyalkylene oxide-based repeating unit, a polyvinylpyridine-based repeating unit, a polystyrene-based repeating unit, a polydiene-based repeating unit and a polylactone-based repeating unit; conducting orientation of the hard segments and soft segments in a lamellar or cylindrical form in the block copolymer thin film; selectively removing the soft segments; adsorbing a metal precursor onto the hard segments; and removing the hard segments and forming the metal nanowire or the metal nanomesh by treating the hard segments with oxygen plasma: in Chemical Formula 1. n is an integer of 5 to 600, R is hydrogen or methyl, R' is or X is-Z-R". Y is alkylene having 1 to 10 carbon atoms, Z is arylene having 6 to 20 carbon atoms 6 to 20, R" is a linear or branched hydrocarbon having 10 to 20 carbon atoms, or a linear or branched perfluorohydrocarbon having 10 to 20 carbon atoms, in Chemical Formula 2, m is an integer of 30 to 1000, R 1 is hydrogen or methyl and R 2 is alkyl having 1 to 20 carbon atoms. forming a block copolymer thin film on a substrate, in which the block copolymer thin film includes hard segments containing a repeating unit of the following Chemical Formula 1 and soft segments containing one or more polymer repeating units selected from the group consisting of a poly(meth)acrylate-based repeating unit of the following Chemical Formula 2, a polyalkylene oxide-based repeating unit, a polyvinylpyridine-based repeating unit, a polystyrene-based repeating unit, a polydiene-based repeating unit and a polylactone-based repeating unit; conducting orientation of the hard segments and soft segments in a lamellar or cylindrical form in the block copolymer thin film; selectively removing the soft segments; adsorbing a metal precursor onto the hard segments; and removing the hard segments and forming the metal nanowire or the metal nanomesh by treating the hard segments with oxygen plasma: in Chemical Formula 1. n is an integer of 5 to 600, R is hydrogen or methyl, R' is or X is-Z-R". Y is alkylene having 1 to 10 carbon atoms, Z is arylene having 6 to 20 carbon atoms 6 to 20, R" is a linear or branched hydrocarbon having 10 to 20 carbon atoms, or a linear or branched perfluorohydrocarbon having 10 to 20 carbon atoms, in Chemical Formula 2, m is an integer of 30 to 1000, R 1 is hydrogen or methyl and R 2 is alkyl having 1 to 20 carbon atoms.
A mode scrambler comprising: a plurality of bobbins (3a, 3b), arranged in a radial direction and bundled together at intervals; and a multimode optical fiber wound around the bobbins (3a, 3b) wherein the bobbins (3a, 3b) are rotated about an arranged direction thereof as an axis to form a twisted portion between the bobbins, and the twisted portion formed by the rotation of the bobbins (3a, 3b) comprises twisted portions of the multimode optical fiber that form the twisted portion and are twisted while being entangled with each other. a plurality of bobbins (3a, 3b), arranged in a radial direction and bundled together at intervals; and a multimode optical fiber wound around the bobbins (3a, 3b) wherein the bobbins (3a, 3b) are rotated about an arranged direction thereof as an axis to form a twisted portion between the bobbins, and the twisted portion formed by the rotation of the bobbins (3a, 3b) comprises twisted portions of the multimode optical fiber that form the twisted portion and are twisted while being entangled with each other.
An aqueous resin dispersion wherein a polymer obtained by bonding a polyolefin to a polyether resin is dispersed in water; and the polyether resin contains a polyether resin having an HLB of less than 8 and a polyether resin having an HLB of 8 to 20 according to calculation by the Griffin method.
A method for detecting an impairment of a general communication channel within an optical transport network, OTN; wherein the general communication channel employs the transmission of one or more pre-determined idle patterns at idle times of the general communication channel; wherein the method comprises - receiving data (540, 550) on the general communication channel; and - detecting an impairment of the general communication channel by detecting that an idle pattern within the received data (540, 550) is absent or is corrupted; wherein detecting that an idle pattern within the received data (540, 550) is absent or is corrupted comprises monitoring the received data (540, 550) at a time interval between two adjacent packet data units, PDUs, carried over the general communication channel and comparing the received data (540, 550) with the pre-determined idle pattern. - receiving data (540, 550) on the general communication channel; and - detecting an impairment of the general communication channel by detecting that an idle pattern within the received data (540, 550) is absent or is corrupted;
A filtration module with a filter unit in which, between a first plate and a second plate, at least one filter element is arranged which contains at least one layer of filter material (9, 10), wherein the layers (9, 10) arranged between the plates (4, 5) are each sealed off at the periphery by an edge seal, and wherein the plates (4, 5) are pressed against each other by pressing means, characterized in that the pressing means is designed as a resilient bracketing profile which engages around the plates (4, 5) at their mutually opposite side surfaces (21, 22, 23, 24), and that the bracketing profile has a base which curves inward transversely with respect to the longitudinal direction of the plates (4, 5) and which is delimited in the longitudinal direction by lateral brackets (16, 17) which are bent inward at their free ends (18, 19) and which, with their bent ends, engage laterally around the surface, facing away from the base, of the first plate facing away from the base.
A lining board, which comprises lining tiles secured to each other with adhesive mass, which lining tiles have a front surface, a back surface as well as side surfaces (6, 7, 8, 9) between the front surface and the back surface, and at least one lining tile has in at least one side surface (6, 7, 8, 9) at least one recess (10, 11) adapted to extend to the back surface of the lining tile, characterised in that the lining board comprises a back-plate and the at least one recess (10, 11) in the lining tile has been filled with adhesive mass securing the lining tiles to the back-plate and to each other with adhesive mass, and the back-plate comprises grippers which are directed towards the back surface of the lining tiles and embedded in the adhesive mass that fills the at least one recess (10, 11) to secure the tiling formed by the lining tiles to the back-plate through the adhesive mass and the grippers embedded in the adhesive mass, and that the back-plate comprises hangers which are oriented away from the back surface of the lining tiles to install the lining board on a wall.
A vacuum pump comprising an inlet which has an inlet valve; an outlet; a rotor which is rotatably arranged in an inner space of the vacuum pump; and a drive unit for the rotor, wherein the rotor has a conveying direction of rotation and a rotation of the rotor in the conveying direction of rotation effects a conveying of a fluid from the inlet to the outlet of the vacuum pump, characterized in that the drive unit is configured to rotate the rotor oppositely to the conveying direction of rotation on a shutdown or deactivation of the vacuum pump such that a closing of the inlet valve is supported. an inlet which has an inlet valve; an outlet; a rotor which is rotatably arranged in an inner space of the vacuum pump; and a drive unit for the rotor, wherein the rotor has a conveying direction of rotation and a rotation of the rotor in the conveying direction of rotation effects a conveying of a fluid from the inlet to the outlet of the vacuum pump,
A printing cabinet for housing a printing device having a dispensing end that expels printed paper, comprising: a housing having at least four sides (456; 458), a bottom surface and a top surface that together form an enclosed interior for receiving the printing device and said top surface including at least one hinged cover (410; 412) that encloses an upper portion of the housing; wherein the housing further comprises an opening formed in the side of the housing, the opening aligned with the dispensing end of the printing device; and the printing cabinet further comprises a paper tray at the side of the housing and positioned outside of the housing, said paper tray aligned with the opening of the housing and arranged to receive the printed paper expelled by the printing device wherein the paper tray extends towards the ground so as to allow the printed paper to slide down into the paper tray. a housing having at least four sides (456; 458), a bottom surface and a top surface that together form an enclosed interior for receiving the printing device and said top surface including at least one hinged cover (410; 412) that encloses an upper portion of the housing; wherein the housing further comprises an opening formed in the side of the housing, the opening aligned with the dispensing end of the printing device; and the printing cabinet further comprises a paper tray at the side of the housing and positioned outside of the housing, said paper tray aligned with the opening of the housing and arranged to receive the printed paper expelled by the printing device wherein the paper tray extends towards the ground so as to allow the printed paper to slide down into the paper tray.
A separation material comprising: porous polymer particles that comprise a styrene-based monomer as a monomer unit; and a coating layer that comprises a macromolecule having hydroxyl groups and covers at least a portion of the surface of the porous polymer particles, wherein the rupture strength is 10 mN or higher and the porous polymer particles comprises divinylbenzene as a monomer unit at a proportion of 50% by mass or more based on the total mass of the monomers. porous polymer particles that comprise a styrene-based monomer as a monomer unit; and a coating layer that comprises a macromolecule having hydroxyl groups and covers at least a portion of the surface of the porous polymer particles, wherein the rupture strength is 10 mN or higher and the porous polymer particles comprises divinylbenzene as a monomer unit at a proportion of 50% by mass or more based on the total mass of the monomers.
A method for controlling an uplink grant resource request, characterized by, comprising: Acquiring, by user equipment, UE, control information, wherein the control information is used for instructing to reduce a quantity of times of processing an uplink grant resource request, and the uplink grant resource request is an uplink grant resource request that is implemented by sending a schedule request, SR, and the control information include a scheduled time; and starting, by the UE, a timer according to the scheduled time, when the UE determines that the UE has to-be-transmitted uplink data, or when the UE determines that a logical channel of the UE has to-be-transmitted uplink data, wherein the logical channel is a logical channel configured with the control information or a logical channel in a logical channel group configured with the control information; and when the timer expires, triggering the uplink grant resource request, or when the timer does not expire, skipping triggering the uplink grant resource request. Acquiring, by user equipment, UE, control information, wherein the control information is used for instructing to reduce a quantity of times of processing an uplink grant resource request, and the uplink grant resource request is an uplink grant resource request that is implemented by sending a schedule request, SR, and the control information include a scheduled time; and starting, by the UE, a timer according to the scheduled time, when the UE determines that the UE has to-be-transmitted uplink data, or when the UE determines that a logical channel of the UE has to-be-transmitted uplink data, wherein the logical channel is a logical channel configured with the control information or a logical channel in a logical channel group configured with the control information; and when the timer expires, triggering the uplink grant resource request, or when the timer does not expire, skipping triggering the uplink grant resource request.
Firearm targeting device, comprising an image capture device set up to capture an image of a targeted target object, a remote measurement device set up to determine a distance to the targeted target object, an inertial measurement unit, an image reproduction device comprising a display and set up to display the image of the targeted target object, and a control computer, characterised in that the inertial measurement unit is formed in such a way that it determines a position and attitude of the firearm target device, simultaneously with a distance measurement to a targeted object which is carried out by the distance measurement device, and an angle of inclination of the target device corresponding to a target elevation angle is determined, and an attitude angle of the firearm target device and thus of a firearm is stored in a storage device of the control computer, and wherein the control computer is formed in such a way that it calculates a projectile trajectory to the target object and the firing angle (β) thereof, as a function of the distance to the target object determined by the distance measurement device and of the determined angle of inclination and while taking into account weapon and projectile parameters, stored in the storage unit, of a firearm provided with the firearm targeting device.
A continuous process for making a multi-panel sterilization assembly, the process comprising the steps of: providing a moving, continuous base web having a longitudinal centerline and two opposed edges (12A, 12B) parallel with the centerline; providing a plurality of subassemblies, each subassembly comprising at least two opposed edges (22A, 22B) and a barrier component that spans between the at least two opposed edges (22A, 22B); applying the subassemblies in position on the moving, continuous base web such that the at least two opposed edges (22A, 22B) of each subassembly are aligned with the two opposed edges (12A, 12B) of the continuous base web to define repeating portions that incorporate the subassemblies and alternating portions that lack such subassemblies; providing side tabs; applying the side tabs in position on the moving, continuous base web with respect to at least one edge of the portions that incorporate the subassemblies; attaching the subassemblies and the side tabs to the moving, continuous base web to form a continuous work-piece having two opposed edges (56A, 56B), a longitudinal centerline, barrier panel portions coinciding with the subassemblies, and fold protection panel portions coinciding with the portions lacking assemblies, the continuous work-piece having a first surface including the subassemblies and an opposed second surface; and separating the continuous work-piece into individual multi-panel sterilization assemblies, each multi-panel sterilization assembly comprising a barrier panel, a fold protection panel and at least one side tab. providing a moving, continuous base web having a longitudinal centerline and two opposed edges (12A, 12B) parallel with the centerline; providing a plurality of subassemblies, each subassembly comprising at least two opposed edges (22A, 22B) and a barrier component that spans between the at least two opposed edges (22A, 22B); applying the subassemblies in position on the moving, continuous base web such that the at least two opposed edges (22A, 22B) of each subassembly are aligned with the two opposed edges (12A, 12B) of the continuous base web to define repeating portions that incorporate the subassemblies and alternating portions that lack such subassemblies; providing side tabs; applying the side tabs in position on the moving, continuous base web with respect to at least one edge of the portions that incorporate the subassemblies; attaching the subassemblies and the side tabs to the moving, continuous base web to form a continuous work-piece having two opposed edges (56A, 56B), a longitudinal centerline, barrier panel portions coinciding with the subassemblies, and fold protection panel portions coinciding with the portions lacking assemblies, the continuous work-piece having a first surface including the subassemblies and an opposed second surface; and separating the continuous work-piece into individual multi-panel sterilization assemblies, each multi-panel sterilization assembly comprising a barrier panel, a fold protection panel and at least one side tab.
A rosin ester comprising at least 70% by weight of an esterified dehydroabietic acid and an esterified dihydroabietic acid, wherein, when 1000 ppm or less of an antioxidant is present in combination with the rosin ester, the rosin ester exhibits an oxidative-induction time at 130°C of at least 75 minutes, as measured using the methods specified in ASTM D5483-05, wherein the rosin ester has a hydroxyl number of 5.0 mg KOH per gram rosin ester sample or less and has a weight average molecular weight, as determined using gel permeation chromatography as described in ASTM D5296-05, of at least 800 g/mol.