mhurhangee/ep-ind-claims huggingface dataset:
Lighting module comprising - a cover having a central region and an edge region (11a, 11b) which adjoins the central region, - the cover being light-transmissive, - the edge region (11a, 11b) having a structuring on a light entrance side, and - the structuring being configured to reduce the angle between the direction of the incident light and a perpendicular (n) to a main extension plane of the central region for the light emitted by the edge region (11a, 11b), - the lighting module comprising a plurality of light emitting diodes configured to emit light and a plurality of primary optical elements, - a primary optical element being arranged downstream of each light emitting diode, and - the cover being arranged on that side of the light emitting diodes which faces away from the primary optical elements, characterised in that the edge region (11a, 11b) is bent with respect to the central region in the direction of the light entrance side. - a cover having a central region and an edge region (11a, 11b) which adjoins the central region, - the cover being light-transmissive, - the edge region (11a, 11b) having a structuring on a light entrance side, and - the structuring being configured to reduce the angle between the direction of the incident light and a perpendicular (n) to a main extension plane of the central region for the light emitted by the edge region (11a, 11b), - the lighting module comprising a plurality of light emitting diodes configured to emit light and a plurality of primary optical elements, - a primary optical element being arranged downstream of each light emitting diode, and - the cover being arranged on that side of the light emitting diodes which faces away from the primary optical elements, characterised in that the edge region (11a, 11b) is bent with respect to the central region in the direction of the light entrance side.
Ethylene-vinyl alcohol copolymer composition pellets comprising: an ethylene-vinyl alcohol copolymer; a conjugated polyene; and at least one component selected from the group consisting of: 10 to 400 ppm of a lubricant based on a weight of the ethylene-vinyl alcohol copolymer composition pellets; and 1 to 500 ppm of an alkali metal based on the weight of the ethylene-vinyl alcohol copolymer composition pellets; wherein pellet surface portions of the ethylene-vinyl alcohol copolymer composition pellets have a conjugated polyene content of not lower than 30 ppb based on the weight of the ethylene-vinyl alcohol copolymer composition pellets; and wherein the conjugated polyene content of the pellet surface portions is determined by dissolving 20 g of the ethylene-vinyl alcohol copolymer composition pellets in 30 mL of a mixed solvent having a water/methanol volume ratio of 1/1 with stirring for 10 minutes, measuring the amount of the conjugated polyene contained in the resulting solution by means of liquid chromatography, and then dividing the conjugated polyene amount thus determined by the weight of the ethylene-vinyl alcohol copolymer composition pellets; and wherein conjugated polyene is at least one selected from the group consisting of sorbic acid, a sorbic acid ester, and a sorbic acid salt. an ethylene-vinyl alcohol copolymer; a conjugated polyene; and at least one component selected from the group consisting of: 10 to 400 ppm of a lubricant based on a weight of the ethylene-vinyl alcohol copolymer composition pellets; and 1 to 500 ppm of an alkali metal based on the weight of the ethylene-vinyl alcohol copolymer composition pellets; 10 to 400 ppm of a lubricant based on a weight of the ethylene-vinyl alcohol copolymer composition pellets; and 1 to 500 ppm of an alkali metal based on the weight of the ethylene-vinyl alcohol copolymer composition pellets; wherein pellet surface portions of the ethylene-vinyl alcohol copolymer composition pellets have a conjugated polyene content of not lower than 30 ppb based on the weight of the ethylene-vinyl alcohol copolymer composition pellets; and wherein the conjugated polyene content of the pellet surface portions is determined by dissolving 20 g of the ethylene-vinyl alcohol copolymer composition pellets in 30 mL of a mixed solvent having a water/methanol volume ratio of 1/1 with stirring for 10 minutes, measuring the amount of the conjugated polyene contained in the resulting solution by means of liquid chromatography, and then dividing the conjugated polyene amount thus determined by the weight of the ethylene-vinyl alcohol copolymer composition pellets; and wherein conjugated polyene is at least one selected from the group consisting of sorbic acid, a sorbic acid ester, and a sorbic acid salt.
A moisture-curable composition comprising: (a) a silylated polymer, which is a silane-terminated polyurethane prepolymer containing alkoxy groups and prepared from the reaction of: (i) a polyol with an isocyanatosilane, wherein the polyol is a polyoxyalkylene diol; or (ii) a hydroxyl-terminated polyurethane prepolymer with an isocyanatosilane, wherein said hydroxyl-terminated polyurethane prepolymer is prepared from a hydroxyl-terminated polyol, which is polyoxyalkylene diol; or (iii) an isocyanato-terminated polyurethane prepolymer with a hydrogen active organofunctional silane that can react with isocyanate, wherein said isocyanato-terminated polyurethane prepolymer is prepared from a hydroxyl-terminated polyol, which is polyoxyalkylene diol; (b) at least one low molecular weight polyol selected from the group consisting of glycol, triethylene glycol, propylene glycol, butanediol, hexylene glycol, trimethylol propane, dietheylene glycol, dipropylene glycol, mannide, 1,2,6-hexanetriol, 1,2,4-butanetriol, trimethylol ethane, pentaerythritol, mannitol, sorbitol, sucrose, diethanolamine, triethanolamine, and mixtures thereof; and (c) a catalyst for the silylated polymer (a) and polyol (b) reaction; said composition being devoid of moisture and the polyols being present at a level providing from 5 to 80 hydroxyl mole percent per mole of alkoxy in the silylated polymer. (a) a silylated polymer, which is a silane-terminated polyurethane prepolymer containing alkoxy groups and prepared from the reaction of: (i) a polyol with an isocyanatosilane, wherein the polyol is a polyoxyalkylene diol; or (ii) a hydroxyl-terminated polyurethane prepolymer with an isocyanatosilane, wherein said hydroxyl-terminated polyurethane prepolymer is prepared from a hydroxyl-terminated polyol, which is polyoxyalkylene diol; or (iii) an isocyanato-terminated polyurethane prepolymer with a hydrogen active organofunctional silane that can react with isocyanate, wherein said isocyanato-terminated polyurethane prepolymer is prepared from a hydroxyl-terminated polyol, which is polyoxyalkylene diol; (i) a polyol with an isocyanatosilane, wherein the polyol is a polyoxyalkylene diol; or (ii) a hydroxyl-terminated polyurethane prepolymer with an isocyanatosilane, wherein said hydroxyl-terminated polyurethane prepolymer is prepared from a hydroxyl-terminated polyol, which is polyoxyalkylene diol; or (iii) an isocyanato-terminated polyurethane prepolymer with a hydrogen active organofunctional silane that can react with isocyanate, wherein said isocyanato-terminated polyurethane prepolymer is prepared from a hydroxyl-terminated polyol, which is polyoxyalkylene diol; (b) at least one low molecular weight polyol selected from the group consisting of glycol, triethylene glycol, propylene glycol, butanediol, hexylene glycol, trimethylol propane, dietheylene glycol, dipropylene glycol, mannide, 1,2,6-hexanetriol, 1,2,4-butanetriol, trimethylol ethane, pentaerythritol, mannitol, sorbitol, sucrose, diethanolamine, triethanolamine, and mixtures thereof; and (c) a catalyst for the silylated polymer (a) and polyol (b) reaction;
A method for improving hybrid automatic repeat request, in the following also referred to as HARQ, feedback in a wireless communication system where multiple ACK/NACK responses generated according to different processing intervals are derived to be transmitted over a same uplink subframe, the method comprising: receiving, by a user equipment, in the following also referred to as UE, a signal of configuration of a processing interval between receiving a downlink data with a 1 millisecond TTI and transmitting a corresponding acknowledgement/ negative acknowledgement, in the following also referred to as ACK/NACK, response; receiving, by the UE, the downlink data with the 1 millisecond TTI at a downlink subframe; and transmitting, by the UE, the ACK/NACK response of the downlink data on a first resource with a 1 millisecond TTI at an uplink subframe with subframe index #n, wherein the first resource is determined based on a first offset value if the processing interval is equal to 3 milliseconds and the downlink subframe is with subframe index #n-3, and the first resource is determined based on a second offset value if the processing interval is equal to 4 milliseconds and the downlink subframe is with subframe index #n-4, wherein the first resource derived from the first offset value and the first resource derived from the second offset value are in different non-overlapping frequency resources; wherein the first offset value is the sum of resource set sizes of those previous downlink subframes for which the multiple ACK/NACK responses are derived to be transmitted over the same uplink subframe. receiving, by a user equipment, in the following also referred to as UE, a signal of configuration of a processing interval between receiving a downlink data with a 1 millisecond TTI and transmitting a corresponding acknowledgement/ negative acknowledgement, in the following also referred to as ACK/NACK, response; receiving, by the UE, the downlink data with the 1 millisecond TTI at a downlink subframe; and transmitting, by the UE, the ACK/NACK response of the downlink data on a first resource with a 1 millisecond TTI at an uplink subframe with subframe index #n, wherein the first resource is determined based on a first offset value if the processing interval is equal to 3 milliseconds and the downlink subframe is with subframe index #n-3, and the first resource is determined based on a second offset value if the processing interval is equal to 4 milliseconds and the downlink subframe is with subframe index #n-4, wherein the first resource derived from the first offset value and the first resource derived from the second offset value are in different non-overlapping frequency resources; wherein the first offset value is the sum of resource set sizes of those previous downlink subframes for which the multiple ACK/NACK responses are derived to be transmitted over the same uplink subframe.
A method for manufacturing a pelletised mineral product, the method comprising: in a first mixing step, forming a first mixture by mixing the mineral with non-gelatinised starch under conditions that are insufficient to substantially gelatinise the starch; in a second mixing step, forming a second mixture by mixing the first mixture under conditions that are sufficient to substantially gelatinise the starch comprised within the first mixture; and forming the second mixture into pellets. in a first mixing step, forming a first mixture by mixing the mineral with non-gelatinised starch under conditions that are insufficient to substantially gelatinise the starch; in a second mixing step, forming a second mixture by mixing the first mixture under conditions that are sufficient to substantially gelatinise the starch comprised within the first mixture; and forming the second mixture into pellets.
A cyclic oligosaccharide represented by the following general formula: wherein the cyclic oligosaccharide consists of constituent units, wherein the constituent units are glucoses or derivatives thereof, and wherein the constituent units are linked by β-1,4 glucosidic bonds; and wherein R represents a hydrogen atom or a substituent thereof, a plurality of the Rs may be identical or different, and n represents an integer of 0 to 3. wherein the cyclic oligosaccharide consists of constituent units, wherein the constituent units are glucoses or derivatives thereof, and wherein the constituent units are linked by β-1,4 glucosidic bonds; and wherein R represents a hydrogen atom or a substituent thereof, a plurality of the Rs may be identical or different, and n represents an integer of 0 to 3.
A method for reducing or preventing tearing in a stretch laminate, when the stretch laminate is stretched in a stretching direction, comprises the step of: providing the stretch laminate with a perforation pattern, the perforation pattern has at least two adjacent columns, a first column having a plurality of pairs of perforations stacked one pair above the other pair, the perforations in each pair sloping in a first direction, and a first space separating one pair from the other pair, a second column having a plurality of pairs of perforations stacked one pair above the other pair, the perforations in each pair sloping in a second direction, and a second space separating one pair from the other pair, and a third space between the columns being no greater than the first or second space between perforation in the pair, and the pair of perforation in the first column are aligned with the second space between pairs of perforation in the second column. providing the stretch laminate with a perforation pattern, the perforation pattern has at least two adjacent columns, a first column having a plurality of pairs of perforations stacked one pair above the other pair, the perforations in each pair sloping in a first direction, and a first space separating one pair from the other pair, a second column having a plurality of pairs of perforations stacked one pair above the other pair, the perforations in each pair sloping in a second direction, and a second space separating one pair from the other pair, and a third space between the columns being no greater than the first or second space between perforation in the pair, and the pair of perforation in the first column are aligned with the second space between pairs of perforation in the second column. a first column having a plurality of pairs of perforations stacked one pair above the other pair, the perforations in each pair sloping in a first direction, and a first space separating one pair from the other pair, a second column having a plurality of pairs of perforations stacked one pair above the other pair, the perforations in each pair sloping in a second direction, and a second space separating one pair from the other pair, and a third space between the columns being no greater than the first or second space between perforation in the pair, and the pair of perforation in the first column are aligned with the second space between pairs of perforation in the second column.
Cooling radiator for a vehicle, in particular a motor vehicle, comprising a bundle allowing heat exchange between a first and a second fluid, the said bundle comprising at least one row of parallel tubes for the flow of the first fluid, the said tubes being provided flat and spaced from one another by a spacing Tp, termed tube spacing, in a first direction, the said tubes being provided with corrugations configured to disturb the flow of the said first fluid, and the said tube spacing being between 6 and 7 mm, characterized in that the corrugations are configured so as to represent 20 to 40% of the cross section of the tubes.
Micromechanical yaw rate sensor, having a rotationally oscillating mass with a rotationally oscillating mass bearing, which comprises: a rocker bar; a rocker spring rod, which resiliently connects the rocker bar to a substrate of the yaw rate sensor; and two support spring rods, which resiliently connect the rocker bar to the rotationally oscillating mass on opposite sides of the rocker spring rod wherein the rocker spring rod extends at right angles to the rocker bar, characterized in that the support spring rods extend parallel to the rocker spring rod. a rocker bar; a rocker spring rod, which resiliently connects the rocker bar to a substrate of the yaw rate sensor; and two support spring rods, which resiliently connect the rocker bar to the rotationally oscillating mass on opposite sides of the rocker spring rod wherein the rocker spring rod extends at right angles to the rocker bar, characterized in that the support spring rods extend parallel to the rocker spring rod.
Dual polarised radiating element for a cellular base station antenna, comprising: - a reflector surface for reflecting radiation energy, - four radiating monopoles (4a to 4d) distributed around an aperture area, each radiating monopole comprising a footing (42a to 42d) protruding from said reflector surface and a flange (41a to 41d) located above the reflector surface and protruding from said footing radially towards the outside, the flanges from adjacent monopoles extending radially perpendicular to each other, wherein it further comprises: - four element feeds (5a to 5d) comprising each a footing portion (52a to 52d) and a flange portion (51a to 51d) connected to the upper part of the respective footing portion (52a to 52d) and perpendicular thereto, where each footing portion (52a to 52d) is capacitively coupled to a respective monopole at the level of its footing (42a to 42d) and each flange portion (51a to 51d) protruding radially from the respective radiating monopole (4a to 4d) towards the inside within the aperture area; - powering means (6ac, 6bd, 7a to 7d, 7ac, 7bd) connected to the element feeds. - a reflector surface for reflecting radiation energy, - four radiating monopoles (4a to 4d) distributed around an aperture area, each radiating monopole comprising a footing (42a to 42d) protruding from said reflector surface and a flange (41a to 41d) located above the reflector surface and protruding from said footing radially towards the outside, the flanges from adjacent monopoles extending radially perpendicular to each other, - four element feeds (5a to 5d) comprising each a footing portion (52a to 52d) and a flange portion (51a to 51d) connected to the upper part of the respective footing portion (52a to 52d) and perpendicular thereto, where each footing portion (52a to 52d) is capacitively coupled to a respective monopole at the level of its footing (42a to 42d) and each flange portion (51a to 51d) protruding radially from the respective radiating monopole (4a to 4d) towards the inside within the aperture area; - powering means (6ac, 6bd, 7a to 7d, 7ac, 7bd) connected to the element feeds.
A gas cleaning separator for separating a flowable mixture of substances of different densities, such as a gas and liquid; the separator comprising: a housing defining an inner space, an aperture for permitting the flow of a fluid along a flow path between the exterior of said housing and said inner space, and a shoulder upstanding from the housing and surrounding said aperture; characterised in that the shoulder comprises a curved surface extending inwardly into the aperture, and a generally cylindrical wall, a free end of which is provided with a circumferential lip which forms the curved surface, and the separator comprises a nipple connectable to the shoulder such that an internal surface of the nipple combines with the curved surface of the shoulder to provide a curved surface to the flow path. a housing defining an inner space, an aperture for permitting the flow of a fluid along a flow path between the exterior of said housing and said inner space, and a shoulder upstanding from the housing and surrounding said aperture; characterised in that the shoulder comprises a curved surface extending inwardly into the aperture, and a generally cylindrical wall, a free end of which is provided with a circumferential lip which forms the curved surface, and the separator comprises a nipple connectable to the shoulder such that an internal surface of the nipple combines with the curved surface of the shoulder to provide a curved surface to the flow path.
A battery pack comprising: at least one battery cell; and a frame including a frame main body having assembling openings for accommodating at least one battery cell, and supporting portions protruding from the frame main body toward the assembling openings to support edges of the at least one battery cell, wherein supporting surfaces of the supporting portions each comprise a curved surface and characterised in that each at least one battery cell includes an electrode assembly and a pouch for sealing the electrode assembly, wherein the pouch includes side wings that overlap the supporting portions and the side wings are comparably curved with the curved surfaces of the supporting portions, and wherein the whole of the side wings are in contact with the curved surfaces of the supporting portions.
A sensor (100, 200, 300) comprising: a flexible substrate (110, 210, 330), wherein the flexible substrate (110, 210, 330) is mountable to a skin surface, wherein the flexible substrate (110, 210, 330) includes an elongate portion (120, 220, 360), wherein a distal end of the elongate portion is configured to extend beneath the skin surface to contact interstitial fluid; and a first electrode and a second electrode, wherein the first electrode and second electrode are disposed at the distal end of the elongate portion (120, 220, 360) of the flexible substrate (110, 210, 330), wherein the first electrode is selectively sensitive to an analyte in the interstitial fluid, and wherein the first electrode and second electrode are configured to detect the analyte electrochemically; characterized in that: the elongate portion (120, 220, 360) comprises a permeable material configured with an initial rigidity for piercing a skin surface, and arranged to soften when the elongate portion (120, 220, 360) is subsequently extended beneath the skin surface. a flexible substrate (110, 210, 330), wherein the flexible substrate (110, 210, 330) is mountable to a skin surface, wherein the flexible substrate (110, 210, 330) includes an elongate portion (120, 220, 360), wherein a distal end of the elongate portion is configured to extend beneath the skin surface to contact interstitial fluid; and a first electrode and a second electrode, wherein the first electrode and second electrode are disposed at the distal end of the elongate portion (120, 220, 360) of the flexible substrate (110, 210, 330), wherein the first electrode is selectively sensitive to an analyte in the interstitial fluid, and wherein the first electrode and second electrode are configured to detect the analyte electrochemically; characterized in that: the elongate portion (120, 220, 360) comprises a permeable material configured with an initial rigidity for piercing a skin surface, and arranged to soften when the elongate portion (120, 220, 360) is subsequently extended beneath the skin surface.