mhurhangee/ep-ind-claims huggingface dataset:
A device for estimating the maximum elevation angle above the horizon that one or more objects surrounding a user terminal, having an antenna for communication with a satellite, must remain below so that the user terminal has an unobstructed view of the sky in all azimuthal directions and is able to receive uninterrupted service from the satellite, the device comprising: a light-collecting lens arrangement for collecting sky scene light from a wide angle; an eyepiece lens arrangement for collimating the sky scene light collected by the light-collecting lens arrangement; and an elevation limit marking (22, 57, M) provided by an image-reflecting surface or a transparent sighting surface, the elevation limit marking (22, 57, M) superimposed over the sky scene light, the elevation limit marking (22, 57, M) representing, when the user terminal and device are levelled relative to the ground, an elevation angle above a horizon of the earth that all the one or more objects in a field of view of the device must remain below so that the user terminal has an unobstructed view of the sky in all azimuthal directions. a light-collecting lens arrangement for collecting sky scene light from a wide angle; an eyepiece lens arrangement for collimating the sky scene light collected by the light-collecting lens arrangement; and an elevation limit marking (22, 57, M) provided by an image-reflecting surface or a transparent sighting surface, the elevation limit marking (22, 57, M) superimposed over the sky scene light, the elevation limit marking (22, 57, M) representing, when the user terminal and device are levelled relative to the ground, an elevation angle above a horizon of the earth that all the one or more objects in a field of view of the device must remain below so that the user terminal has an unobstructed view of the sky in all azimuthal directions.
A cell that expresses a CAR molecule that binds CD19 (a CD19 CAR), for use in combination with a CD22 inhibitor in the treatment of a disease associated with expression of CD19 in a subject, wherein the CD22 inhibitor comprises a cell that expresses a CAR molecule that binds to CD22 (a CD22 CAR), further wherein the CD22 CAR comprises an anti-CD22 binding domain comprising: (i) a light chain complementarity determining region 1 (LC CDR1) of SEQ ID NO: 647, a light chain complementarity determining region 2 (LC CDR2) of SEQ ID NO: 658, a light chain complementarity determining region 3 (LC CDR3) of SEQ ID NO: 669, a heavy chain complementarity determining region 1 (HC CDR1) of SEQ ID NO: 497 or SEQ ID NO: 1344, a heavy chain complementarity determining region 2 (HC CDR2) of SEQ ID NO:508 or SEQ ID NO: 1353, and a heavy chain complementarity determining region 3 (HC CDR3) of SEQ ID NO: 519 or SEQ ID NO: 1362; or (ii) a LC CDR1 of SEQ ID NO: 648, a LC CDR2 of SEQ ID NO: 659, a LC CDR3 of SEQ ID NO: 670, a HC CDR1 of SEQ ID NO: 498 or SEQ ID NO: 1345, a HC CDR2 of SEQ ID NO: 509 or SEQ ID NO: 1354, and a HC CDR3 of SEQ ID NO: 520 or SEQ ID NO: 1363. (i) a light chain complementarity determining region 1 (LC CDR1) of SEQ ID NO: 647, a light chain complementarity determining region 2 (LC CDR2) of SEQ ID NO: 658, a light chain complementarity determining region 3 (LC CDR3) of SEQ ID NO: 669, a heavy chain complementarity determining region 1 (HC CDR1) of SEQ ID NO: 497 or SEQ ID NO: 1344, a heavy chain complementarity determining region 2 (HC CDR2) of SEQ ID NO:508 or SEQ ID NO: 1353, and a heavy chain complementarity determining region 3 (HC CDR3) of SEQ ID NO: 519 or SEQ ID NO: 1362; or (ii) a LC CDR1 of SEQ ID NO: 648, a LC CDR2 of SEQ ID NO: 659, a LC CDR3 of SEQ ID NO: 670, a HC CDR1 of SEQ ID NO: 498 or SEQ ID NO: 1345, a HC CDR2 of SEQ ID NO: 509 or SEQ ID NO: 1354, and a HC CDR3 of SEQ ID NO: 520 or SEQ ID NO: 1363.
A tube structure for packaging products, comprising: a tube body; and a tube shoulder/nozzle comprised of a barrier material blend, wherein the barrier material blend comprises high density polyethylene (HDPE), ethylene vinyl alcohol copolymer (EVOH) and cyclic olefin copolymer; and wherein the HDPE in the barrier material blend is present in an amount of 60 wt% to 90 wt%. a tube body; and a tube shoulder/nozzle comprised of a barrier material blend, wherein the barrier material blend comprises high density polyethylene (HDPE), ethylene vinyl alcohol copolymer (EVOH) and cyclic olefin copolymer; and wherein the HDPE in the barrier material blend is present in an amount of 60 wt% to 90 wt%.
A method of acknowledging data in a communications system for general packet radio service enhanced data rates for global system for mobile communication evolution radio access network comprising more than one higher layer data block within a lower layer protocol block; the method comprising sending acknowledgement data and higher layer data in the same lower layer protocol block; characterized in that the acknowledgement data, relating to all the higher layer data blocks in the lower layer protocol block, is coded according to the probability of an acknowledgement type.
Method for producing chromium-nitride-containing sintered spray powders, comprising the following steps: a) preparing a powder mixture comprising i) a powder comprising one or more constituents selected from the group consisting of Cr, CrN, and Cr 2 N, and ii) a powder comprising one or more constituents selected from the group consisting of nickel, cobalt, nickel alloy, cobalt alloy, and iron alloy in an amount of at least 50 wt%, relative to the total weight of the powder, wherein the powder serves as binder metal, b) solid-phase sintering of the powder mixture in a gas atmosphere, which comprises at least 90 vol% nitrogen relative to the total volume of the atmosphere, at a nitrogen partial pressure greater than 1 bar, while maintaining or increasing the chemically-bound nitrogen with respect to the powder mixture, wherein the powder mixture contains the powder in an amount of 50 to 90 wt%, the powder in an amount of 10 to 50 wt%, and carbon in an amount below 1 wt%, in each case relative to the total weight of the powder mixture. a) preparing a powder mixture comprising i) a powder comprising one or more constituents selected from the group consisting of Cr, CrN, and Cr 2 N, and ii) a powder comprising one or more constituents selected from the group consisting of nickel, cobalt, nickel alloy, cobalt alloy, and iron alloy in an amount of at least 50 wt%, relative to the total weight of the powder, wherein the powder serves as binder metal, i) a powder comprising one or more constituents selected from the group consisting of Cr, CrN, and Cr 2 N, and ii) a powder comprising one or more constituents selected from the group consisting of nickel, cobalt, nickel alloy, cobalt alloy, and iron alloy in an amount of at least 50 wt%, relative to the total weight of the powder, wherein the powder serves as binder metal, b) solid-phase sintering of the powder mixture in a gas atmosphere, which comprises at least 90 vol% nitrogen relative to the total volume of the atmosphere, at a nitrogen partial pressure greater than 1 bar, while maintaining or increasing the chemically-bound nitrogen with respect to the powder mixture, wherein the powder mixture contains the powder in an amount of 50 to 90 wt%, the powder in an amount of 10 to 50 wt%, and carbon in an amount below 1 wt%, in each case relative to the total weight of the powder mixture.
Method for constructing prestressed structures or components made of concrete or other materials by means of tension elements made of a shape memory alloy, whether for new structures and components or for reinforcing existing structures and components, characterised in that at least one tension element made of a shape memory alloy based on steel of polymorphic and polycrystalline structure, which can be brought from its state as martensite to its permanent state as austenite by increasing its temperature, is in the form of a flat steel a) placed on the structure or component or b) is applied freely to the structure or component, or c) this tension element is guided around at least one corner, i) wherein in variants a) to c) one or more end anchors penetrate into the structure or component, or else d) the tension element wraps around a structure or component one or more times as a band, whereby in this case ii) the two ends of the tension element are either connected to each other in a tension-locking manner or iii) each separately connected to the structure or component by one or more end or intermediate anchorages which penetrate the structure or component, or iv) the tensile element overlaps or crosses once or several times for jamming, and that the tensile element contracts as a result of a subsequent active and controlled heat input with heating agents and generates a permanent tensile stress and correspondingly generates a permanent pre-tension and a residual tensile force up to the breaking load of the tensile element on the structure or the component. a) placed on the structure or component or b) is applied freely to the structure or component, or c) this tension element is guided around at least one corner, i) wherein in variants a) to c) one or more end anchors penetrate into the structure or component, or else i) wherein in variants a) to c) one or more end anchors penetrate into the structure or component, or else d) the tension element wraps around a structure or component one or more times as a band, whereby in this case ii) the two ends of the tension element are either connected to each other in a tension-locking manner or iii) each separately connected to the structure or component by one or more end or intermediate anchorages which penetrate the structure or component, or iv) the tensile element overlaps or crosses once or several times for jamming, ii) the two ends of the tension element are either connected to each other in a tension-locking manner or iii) each separately connected to the structure or component by one or more end or intermediate anchorages which penetrate the structure or component, or iv) the tensile element overlaps or crosses once or several times for jamming,
Protective helmet comprising a) a helmet shell for at least partly covering a helmet wearer's head, the helmet shell having i) a front region; ii) a rear region opposite to the front region; iii) two side regions arranged opposite to each other; and iv) a lower free terminating edge; b) a chin strap assembly, arranged at the helmet shell, for holding the helmet shell on the helmet wearer's head, i) the chin strap assembly having a chin strap which is movable between a lower chin strap holding position and an upper chin strap parking position; and c) at least one chin strap holding means, arranged at the helmet shell, for holding the chin strap in the upper chin strap parking position, i) the at least one chin strap holding means having at least one free holding web for holding the chin strap located in the upper chin strap parking position, characterized in that d) the at least one holding web is at least partly located in the head receiving space defined by the helmet shell; and e) when in the upper chin strap parking position, the chin strap additionally engages the back of the helmet wearer's head, thus providing an additional fixation. a) a helmet shell for at least partly covering a helmet wearer's head, the helmet shell having i) a front region; ii) a rear region opposite to the front region; iii) two side regions arranged opposite to each other; and iv) a lower free terminating edge; i) a front region; ii) a rear region opposite to the front region; iii) two side regions arranged opposite to each other; and iv) a lower free terminating edge; b) a chin strap assembly, arranged at the helmet shell, for holding the helmet shell on the helmet wearer's head, i) the chin strap assembly having a chin strap which is movable between a lower chin strap holding position and an upper chin strap parking position; and i) the chin strap assembly having a chin strap which is movable between a lower chin strap holding position and an upper chin strap parking position; and c) at least one chin strap holding means, arranged at the helmet shell, for holding the chin strap in the upper chin strap parking position, i) the at least one chin strap holding means having at least one free holding web for holding the chin strap located in the upper chin strap parking position, characterized in that i) the at least one chin strap holding means having at least one free holding web for holding the chin strap located in the upper chin strap parking position, d) the at least one holding web is at least partly located in the head receiving space defined by the helmet shell; and e) when in the upper chin strap parking position, the chin strap additionally engages the back of the helmet wearer's head, thus providing an additional fixation.
Harvested crop pick-up having at least three means for moving it and at least one yoke that interconnects said movement means, with supporting elements being furthermore provided that are connected to said yoke and said movement means and that include a shaft bushing in which a shaft is supported to which pick-up tools for picking up harvested material are connected, with at least one additional movement means being provided between two outer movement means, characterized in that said yoke can be elastically deformed so as to allow a relative movement of said additional movement means with respect to said outer movement means in a vertical direction relative to the axis of said yoke.
A spun yarn drawing apparatus configured to draw yarns spun out from a spinning apparatus, comprising: a preheating roller (31 - 33) configured to heat the yarns before drawn; a conditioning roller (34,35) which is provided on the downstream in a yarn running direction of the preheating roller (31 - 33) and is higher in temperature and rotation speed than the preheating roller (31 - 33), the yarns being drawn between the conditioning roller (34,35) and the preheating roller (31 - 33); a thermal insulation box housing the preheating roller (31 - 33) and the conditioning roller; and a heat shielding member provided around the preheating roller (31 - 33), a heat insulation part (48, 49, 52) being provided at least at a part of a region of an inner surface of the thermal insulation box, the region facing a preheating roller installation space defined by the heat shielding member, characterized in that an air layer is provided between the inner surface of the thermal insulation box and the heat insulation part (48, 49, 52). a preheating roller (31 - 33) configured to heat the yarns before drawn; a conditioning roller (34,35) which is provided on the downstream in a yarn running direction of the preheating roller (31 - 33) and is higher in temperature and rotation speed than the preheating roller (31 - 33), the yarns being drawn between the conditioning roller (34,35) and the preheating roller (31 - 33); a thermal insulation box housing the preheating roller (31 - 33) and the conditioning roller; and a heat shielding member provided around the preheating roller (31 - 33), a heat insulation part (48, 49, 52) being provided at least at a part of a region of an inner surface of the thermal insulation box, the region facing a preheating roller installation space defined by the heat shielding member, characterized in that an air layer is provided between the inner surface of the thermal insulation box and the heat insulation part (48, 49, 52).
An uplink power control method, comprising: receiving a k th measurement pilot configured by a network device wherein k is an integer ranging from 1 to M, and M is a total quantity of different measurement pilots configured in a serving cell, each of the M measurement pilots is corresponding to a precoding matrix, and the precoding matrix is corresponding to a beam with a direction and a width; and receiving a power control parameter configured by the network device, wherein the power control parameter is corresponding to the k th configured measurement pilot, and the power control parameter is used by user equipment, UE, to control transmit power of the UE in the serving cell. receiving a k th measurement pilot configured by a network device wherein k is an integer ranging from 1 to M, and M is a total quantity of different measurement pilots configured in a serving cell, each of the M measurement pilots is corresponding to a precoding matrix, and the precoding matrix is corresponding to a beam with a direction and a width; and receiving a power control parameter configured by the network device, wherein the power control parameter is corresponding to the k th configured measurement pilot, and the power control parameter is used by user equipment, UE, to control transmit power of the UE in the serving cell.
A shock absorber, comprising: a tubular housing having a front end and a rear end; a bearing sealingly mounted on the front end of the tubular housing, said bearing being constituted by a bush having a flanged front end which closes the tubular housing and a cup-shaped rear end which is arranged within the tubular housing; a piston assembly comprising a piston mounted for reciprocal sliding movement in the tubular housing, said piston defining within the tubular housing a working chamber and an accumulator chamber disposed on the rear side and on the front side of the piston, respectively, and a stem connected to the piston and extending out of the front end of the tubular housing through the bearing; at least one fluid pathway for connecting the working chamber to the accumulator chamber; and a compensation diaphragm facing on the accumulator chamber, which is constituted by a sleeve of deformable material mounted between the ends of the bearing; characterized in that said compensation diaphragm has a rear end folded backwards in such a way as to envelop the cup-shaped rear end of the bearing, and provided with an edge shaped for making a seal between the bearing and the stem of the piston assembly. a tubular housing having a front end and a rear end; a bearing sealingly mounted on the front end of the tubular housing, said bearing being constituted by a bush having a flanged front end which closes the tubular housing and a cup-shaped rear end which is arranged within the tubular housing; a piston assembly comprising a piston mounted for reciprocal sliding movement in the tubular housing, said piston defining within the tubular housing a working chamber and an accumulator chamber disposed on the rear side and on the front side of the piston, respectively, and a stem connected to the piston and extending out of the front end of the tubular housing through the bearing; at least one fluid pathway for connecting the working chamber to the accumulator chamber; and a compensation diaphragm facing on the accumulator chamber, which is constituted by a sleeve of deformable material mounted between the ends of the bearing; characterized in that said compensation diaphragm has a rear end folded backwards in such a way as to envelop the cup-shaped rear end of the bearing, and provided with an edge shaped for making a seal between the bearing and the stem of the piston assembly.
A method for producing an aromatic bisimide, the method comprising reacting a dialkali metal salt of a dihydroxy aromatic compound with an N-alkyl nitrophthalimide composition under conditions effective to form a product mixture comprising the aromatic bisimide, wherein the N-alkyl nitrophthalimide composition comprises 4-nitro-N-(C 1-13 alkyl)phthalimide, 3-nitro-N-(C 1-13 alkyl)phthalimide, or a combination comprising at least one of the foregoing; and 4-hydroxy-3,5-dinitro-N-(C 1-13 alkyl)phthalimide in an amount of 1-10000 ppm, or 50-10000 ppm, or 100-10000 ppm, or 500-10000 ppm, or 1000-10000 ppm; 1-8000 ppm, or 50-8000 ppm, or 100-8000 ppm, or 500-8000 ppm, or 1000-8000 ppm or 1-8000 ppm, or 50-8000 ppm, or 100-7000 ppm, or 500-7000 ppm, or 1000-7000 ppm; or 1-6000 ppm, or 50-6000 ppm, or 100-6000 ppm, or 500-6000 ppm, or 1000-6000 ppm; or 1-4000 ppm, or 50-4000 ppm, or 100-4000 ppm, or 500-4000 ppm, or 1000-4000 ppm; or 1-3000 ppm, or 50-3000 ppm, or 100-3000 ppm, or 500-3000 ppm, or 1000-3000 ppm; and wherein the aromatic bisimide is obtained in a yield of greater than 75%, or greater than 85%, or 90-99.8%, or 95-99.8%, or 97-99.8%, or 98-99.8%, or 99-99.8%. reacting a dialkali metal salt of a dihydroxy aromatic compound with an N-alkyl nitrophthalimide composition under conditions effective to form a product mixture comprising the aromatic bisimide, wherein the N-alkyl nitrophthalimide composition comprises 4-nitro-N-(C 1-13 alkyl)phthalimide, 3-nitro-N-(C 1-13 alkyl)phthalimide, or a combination comprising at least one of the foregoing; and 4-hydroxy-3,5-dinitro-N-(C 1-13 alkyl)phthalimide in an amount of 1-10000 ppm, or 50-10000 ppm, or 100-10000 ppm, or 500-10000 ppm, or 1000-10000 ppm; 1-8000 ppm, or 50-8000 ppm, or 100-8000 ppm, or 500-8000 ppm, or 1000-8000 ppm or 1-8000 ppm, or 50-8000 ppm, or 100-7000 ppm, or 500-7000 ppm, or 1000-7000 ppm; or 1-6000 ppm, or 50-6000 ppm, or 100-6000 ppm, or 500-6000 ppm, or 1000-6000 ppm; or 1-4000 ppm, or 50-4000 ppm, or 100-4000 ppm, or 500-4000 ppm, or 1000-4000 ppm; or 1-3000 ppm, or 50-3000 ppm, or 100-3000 ppm, or 500-3000 ppm, or 1000-3000 ppm; and 4-nitro-N-(C 1-13 alkyl)phthalimide, 3-nitro-N-(C 1-13 alkyl)phthalimide, or a combination comprising at least one of the foregoing; and 4-hydroxy-3,5-dinitro-N-(C 1-13 alkyl)phthalimide in an amount of 1-10000 ppm, or 50-10000 ppm, or 100-10000 ppm, or 500-10000 ppm, or 1000-10000 ppm; 1-8000 ppm, or 50-8000 ppm, or 100-8000 ppm, or 500-8000 ppm, or 1000-8000 ppm or 1-8000 ppm, or 50-8000 ppm, or 100-7000 ppm, or 500-7000 ppm, or 1000-7000 ppm; or 1-6000 ppm, or 50-6000 ppm, or 100-6000 ppm, or 500-6000 ppm, or 1000-6000 ppm; or 1-4000 ppm, or 50-4000 ppm, or 100-4000 ppm, or 500-4000 ppm, or 1000-4000 ppm; or 1-3000 ppm, or 50-3000 ppm, or 100-3000 ppm, or 500-3000 ppm, or 1000-3000 ppm; and wherein the aromatic bisimide is obtained in a yield of greater than 75%, or greater than 85%, or 90-99.8%, or 95-99.8%, or 97-99.8%, or 98-99.8%, or 99-99.8%.
A magnetic material, comprising a first phase having crystals with a bcc structure containing Fe and Ti and a second phase having crystals with a bcc structure containing Fe and Ti, wherein in each phase the sum of the Fe and the Ti contained is taken to be 100 atom%, characterised in that: the second phase has a Ti content which is an amount of 2 times or more and 10 5 times or less than the Ti content in the first phase; and the second phase has a Ti content of 2 atom% or more and 100 atom% or less. the second phase has a Ti content which is an amount of 2 times or more and 10 5 times or less than the Ti content in the first phase; and the second phase has a Ti content of 2 atom% or more and 100 atom% or less.