mhurhangee/ep-ind-claims huggingface dataset:
Method for allocating transmission resources of a wireless communication system, in particular of a mobile radio network with at least one base station for supply of mobile terminals (14, 16, 18, 20, 22, 24, 26, 28, 30), the method comprising the following steps: a) Determining of characteristic data between a base station and at least two mobile terminals (14, 16, 18, 20, 22, 24, 26, 28, 30), which are assigned to this base station, b) Dividing the mobile terminals (14, 16, 18, 20, 22, 24, 26, 28, 30) by means of the determined characteristic data into a first group and at least one second group, c) Allocating of transmission resources depending on the group affiliation, wherein transmission resources of the second group are orthogonal to the transmission resources of the first group, characterized in that the transmission resources allocated to the first group are orthogonal to each other, and the transmission resources allocated to the second group are not orthogonal to each other. a) Determining of characteristic data between a base station and at least two mobile terminals (14, 16, 18, 20, 22, 24, 26, 28, 30), which are assigned to this base station, b) Dividing the mobile terminals (14, 16, 18, 20, 22, 24, 26, 28, 30) by means of the determined characteristic data into a first group and at least one second group, c) Allocating of transmission resources depending on the group affiliation, wherein transmission resources of the second group are orthogonal to the transmission resources of the first group,
A wind turbine rotor shaft arrangement, comprising: a rotor shaft for supporting wind turbine blades, a non-rotating first housing structure for supporting the rotor shaft, which first housing structure is arranged to be mounted to a wind turbine nacelle framing, and a first rolling bearing arranged to support, in a first axial direction, the rotor shaft in relation to the first housing structure at a first support point, which first rolling bearing is a self-aligning bearing comprising an inner ring, an outer ring, and a set of rolling elements formed of barrel-shaped rollers arranged in an intermediate configuration between the inner and outer rings, wherein each roller is a symmetrical bearing roller and has a curved raceway-contacting surface arranged in contact with a curved inner raceway of the inner ring and in contact with a curved outer raceway of the outer ring, and wherein a contact angle between each roller and the inner and/or outer raceway is inclined in relation to the radial direction of the rotor shaft, characterized in that the first rolling bearing is a single row toroidal roller bearing. a rotor shaft for supporting wind turbine blades, a non-rotating first housing structure for supporting the rotor shaft, which first housing structure is arranged to be mounted to a wind turbine nacelle framing, and a first rolling bearing arranged to support, in a first axial direction, the rotor shaft in relation to the first housing structure at a first support point, which first rolling bearing is a self-aligning bearing comprising an inner ring, an outer ring, and a set of rolling elements formed of barrel-shaped rollers arranged in an intermediate configuration between the inner and outer rings, wherein each roller is a symmetrical bearing roller and has a curved raceway-contacting surface arranged in contact with a curved inner raceway of the inner ring and in contact with a curved outer raceway of the outer ring, and wherein a contact angle between each roller and the inner and/or outer raceway is inclined in relation to the radial direction of the rotor shaft, characterized in that the first rolling bearing is a single row toroidal roller bearing.
A clipping tool for clipping flash from a component, the clipping tool including: a riser having a support surface for supporting the component; a punch for gripping the component on the support surface such that the flash projects laterally from the riser and the punch; and a tool body having a clipping aperture opening to a channel within the tool body, the channel being defined by a channel wall, the riser and the punch being translatable within said channel to shear the projecting flash from the gripped component, characterized in that at least a portion of the channel wall within the tool body comprises a broaching surface having at least one projection, said projection reducing the cross sectional area of the channel to less than that of the clipping aperture. a riser having a support surface for supporting the component; a punch for gripping the component on the support surface such that the flash projects laterally from the riser and the punch; and a tool body having a clipping aperture opening to a channel within the tool body, the channel being defined by a channel wall, the riser and the punch being translatable within said channel to shear the projecting flash from the gripped component,
An apparatus which assists a visual field test testing visual sensitivity at each of a plurality of test points arranged within a predetermined previously assumed visual field range, the apparatus comprising, an acquisition device which acquires hyperparameters regarding a predetermined mixture distribution, the predetermined mixture distribution being defined by using a mixture distribution describing visual field progression, the hyperparameters being learned with reference to time-series information of visual field test results obtained in the past for a plurality of cases using said predetermined mixture distribution as a prior-distribution for learning hyperparameters, an inference calculation device which calculates an inference test result vector representing an inference result of visual sensitivity to be obtained by the visual field test at each test point, by Bayesian inference, by applying said mixture distribution using the acquired hyperparameters as a prior-distribution for inference calculation, and an output device which performs an information output process on the basis of the inference test result vector obtained by the inference calculation device, wherein, during the visual field test, when a visual sensitivity is obtained at a test point by the time of an inference process, the inference calculation device performs a process of updating the prior-distribution for inference calculation by acquiring the visual sensitivity at the test point, and executing Bayesian inference regarding a partial inference test result vector representing an inference result of visual sensitivity at a test point at which no test result has been obtained at the time of the process, and the output device performs an information output process on the basis of the partial inference test result vector.
A glass locking system for locking a glass panel within a base shoe, the base shoe having side walls and a cross section which is substantially identical in a longitudinal direction, the glass locking system comprising: a first tapered plate having a first end and a second end, the first tapered plate having a tapered structure which is tapered from the second end to the first end to provide a flat side and a tapered side, the first end being thinner than the second end; and a second tapered plate having a first end and a second end, the second tapered plate having a tapered structure which is tapered from the second end to the first end to provide a flat side and a tapered side, the first end being thinner than the second end; the first and second tapered plates (12, 14) having similar and complementary tapered structures and being configured to be inserted into the base shoe between a side wall of the base shoe and a side wall of the glass panel with the flat side of the first tapered plate contacting the side wall of the base shoe and the flat side of the second tapered plate contacting the side wall of the glass panel and with the tapered sides of the first and second tapered plates (12, 14) being in contact with and overlapping one another in the longitudinal direction of the base shoe, movement of the first and second plates (12, 14) towards to one another in the longitudinal direction generating a compressive force on the side wall of the glass panel; characterized in that the first tapered plate and the second tapered plate each further comprise a projection tab (20, 28). a first tapered plate having a first end and a second end, the first tapered plate having a tapered structure which is tapered from the second end to the first end to provide a flat side and a tapered side, the first end being thinner than the second end; and a second tapered plate having a first end and a second end, the second tapered plate having a tapered structure which is tapered from the second end to the first end to provide a flat side and a tapered side, the first end being thinner than the second end; the first and second tapered plates (12, 14) having similar and complementary tapered structures and being configured to be inserted into the base shoe between a side wall of the base shoe and a side wall of the glass panel with the flat side of the first tapered plate contacting the side wall of the base shoe and the flat side of the second tapered plate contacting the side wall of the glass panel and with the tapered sides of the first and second tapered plates (12, 14) being in contact with and overlapping one another in the longitudinal direction of the base shoe, movement of the first and second plates (12, 14) towards to one another in the longitudinal direction generating a compressive force on the side wall of the glass panel; characterized in that the first tapered plate and the second tapered plate each further comprise a projection tab (20, 28).
A panel (500A,500B,600A,600B,800,900) having an exterior face (549,949) thereof adapted for attachment to a support frame and an interior face (545,945) thereof adapted for defining a boundary of a compartment, the panel comprising: a core (528A,528B,928) encapsulated within a panel frame, the core having first and second faces thereof, and a periphery thereof, first (540,940) and second skins (542,942) attached to the first and second faces of the core; one or more closeouts disposed between the skins (540,542,940, 942) about the periphery of the core (528A,528B,928), with the one or more closeouts being attached to the first (540,940) and second skins (542,942); a heating element (504A,504B,704,804,904) adjacent the interior face (545,945) of the panel; characterized by: the panel frame being of reinforced phenolic material; the heating element including carbon fiber material extending between and electrically coupling two opposed electrical buses (512A,512B,512B',812,912); an electrical wire (516,520A,520B,820,920) coupled to each of the electrical buses of the heating element (504A,504B,804,904) for introducing a voltage across the heating element; the electrical buses (512A,512B,512B',812,912) having a thickness greater than the thickness of the carbon fiber material, and the electrical buses being received in recessed pockets (552,554,556,) of the one or more closeouts. a core (528A,528B,928) encapsulated within a panel frame, the core having first and second faces thereof, and a periphery thereof, first (540,940) and second skins (542,942) attached to the first and second faces of the core; one or more closeouts disposed between the skins (540,542,940, 942) about the periphery of the core (528A,528B,928), with the one or more closeouts being attached to the first (540,940) and second skins (542,942); a heating element (504A,504B,704,804,904) adjacent the interior face (545,945) of the panel; characterized by: the panel frame being of reinforced phenolic material; the heating element including carbon fiber material extending between and electrically coupling two opposed electrical buses (512A,512B,512B',812,912); an electrical wire (516,520A,520B,820,920) coupled to each of the electrical buses of the heating element (504A,504B,804,904) for introducing a voltage across the heating element; the electrical buses (512A,512B,512B',812,912) having a thickness greater than the thickness of the carbon fiber material, and the electrical buses being received in recessed pockets (552,554,556,) of the one or more closeouts. the panel frame being of reinforced phenolic material; the heating element including carbon fiber material extending between and electrically coupling two opposed electrical buses (512A,512B,512B',812,912); an electrical wire (516,520A,520B,820,920) coupled to each of the electrical buses of the heating element (504A,504B,804,904) for introducing a voltage across the heating element; the electrical buses (512A,512B,512B',812,912) having a thickness greater than the thickness of the carbon fiber material, and the electrical buses being received in recessed pockets (552,554,556,) of the one or more closeouts.
A lithium ion secondary battery comprising a power generating element comprising: a positive electrode in which a positive electrode active material layer containing a positive electrode active material is formed on a surface of a positive electrode current collector, a negative electrode in which a negative electrode active material layer containing a negative electrode active material is formed on a surface of a negative electrode current collector, and a separator containing an electrolyte, wherein the positive electrode active material comprises a lithium nickel-based composite oxide having a layered crystal structure which is capable of insertion and desorption of lithium ions, having a composition represented by the general formula: [Li α Ni β] 3a [Ni x Mn y-r M r Co z] 3b O 2 (provided that M is at least one selected from the group consisting of Ti, Zr, Nb, W, P, Al, Mg, V, Ca, Sr, Cr, Fe, B, Ga, In, Si, Mo, Y, Sn, V, Cu, Ag, and Zn, and x + y + z ≤ 1, 0.020 ≤ β ≤ 0.032, 0.9 ≤ α + β ≤ 1.2, 0 < x < 1, 0 < y < 1, 0 < z < 1, and 0 ≤ r ≤ 0.3 are satisfied), and the electrolyte comprises a cyclic sulfonic acid ester. a positive electrode in which a positive electrode active material layer containing a positive electrode active material is formed on a surface of a positive electrode current collector, a negative electrode in which a negative electrode active material layer containing a negative electrode active material is formed on a surface of a negative electrode current collector, and a separator containing an electrolyte, wherein the positive electrode active material comprises a lithium nickel-based composite oxide having a layered crystal structure which is capable of insertion and desorption of lithium ions, having a composition represented by the general formula: [Li α Ni β] 3a [Ni x Mn y-r M r Co z] 3b O 2 (provided that M is at least one selected from the group consisting of Ti, Zr, Nb, W, P, Al, Mg, V, Ca, Sr, Cr, Fe, B, Ga, In, Si, Mo, Y, Sn, V, Cu, Ag, and Zn, and x + y + z ≤ 1, 0.020 ≤ β ≤ 0.032, 0.9 ≤ α + β ≤ 1.2, 0 < x < 1, 0 < y < 1, 0 < z < 1, and 0 ≤ r ≤ 0.3 are satisfied), and the electrolyte comprises a cyclic sulfonic acid ester.
A color mixing LED assembly having a carrier and at least three light emitting diodes (21R, 21G, 21B) which are arranged on the carrier and which are configured to emit light in mutually different colors and hereby to together generate an output radiation which corresponds to an additive color mix, wherein each of the light emitting diodes (21R, 21G, 21B) has an individual emission characteristic; and having a respective driver input (25R, 25G, 25B) for each of the light emitting diodes (21R, 21G, 21B) to supply the light emitting diodes (21R, 21G, 21B) with electrical energy; wherein the emission characteristics of the light emitting diodes (21R, 21G, 21B) are dependent on the respective energy supply so that the color mix of the output radiation can be set by varying the respective energy supply at the driver inputs (25R, 25G, 25B); and wherein the LED assembly furthermore has at least one calibration information element (31a, 31b), characterized in that the calibration information element (31a, 31b) i) includes at least one readable calibration value for each of the light emitting diodes (21R, 21G, 21B) that represents the individual emission characteristic of the respective light emitting diode (21R, 21G, 21B), ii) is formed by a laser engraving and iii) is optically readable. i) includes at least one readable calibration value for each of the light emitting diodes (21R, 21G, 21B) that represents the individual emission characteristic of the respective light emitting diode (21R, 21G, 21B), ii) is formed by a laser engraving and iii) is optically readable.
A guard rail assembly comprising: • a set of vertical bar elements of a rectangular cross section with two side walls, a frontal, and a rear wall, each bar element having at least one slit that extends orthogonally from the surface of front wall of the bar element and 50-80% through the bar element; • a set of upper horizontal bar elements of a rectangular cross section with an upper, lower, frontal, and rear wall, each upper horizontal bar element having at least two openings for receiving vertical bar elements; and • elastic brackets for holding the vertical and horizontal bar elements in place when assembled; wherein the openings in the upper horizontal bar elements are designed so that a part of the rear wall is open and 30-50% of the lower wall is cut away, wherein said slit of the vertical bar element is positioned in a distance from the upper end of the vertical bar element corresponding to the thickness of a horizontal bar element, whereby the vertical bar element mates with the opening in the upper horizontal bar element. • a set of vertical bar elements of a rectangular cross section with two side walls, a frontal, and a rear wall, each bar element having at least one slit that extends orthogonally from the surface of front wall of the bar element and 50-80% through the bar element; • a set of upper horizontal bar elements of a rectangular cross section with an upper, lower, frontal, and rear wall, each upper horizontal bar element having at least two openings for receiving vertical bar elements; and • elastic brackets for holding the vertical and horizontal bar elements in place when assembled;
Assembly of a structural body of a railway vehicle with a vehicle bogie, comprising a fastening device for fastening the structural body with the bogie, the fastening device comprising a fastening support and fastening members, the fastening support being fastened to the structural body by means of the fastening members, wherein the fastening support includes at least one protruding portion, coming from material with the fastening support, cooperating with a complementary opening provided in the structural body, characterised in that the fastening device includes at least one blocking member, intended to cooperate with the protruding portion to block it in the complementary opening when it is inserted into this complementary opening, the blocking member being a pin inserted into a complementary hole provided in the protruding portion.
A secondary battery, comprising a positive electrode plate, wherein the positive electrode plate comprises a positive electrode current collector and a positive electrode film layer that is disposed on the positive electrode current collector and that comprises a positive electrode active material, wherein the positive electrode active material comprises a first material and a second material, the first material contains lithium transition metal oxide, the second material contains lithium transition metal phosphate, the lithium transition metal phosphate comprises secondary particles formed by agglomeration of primary particles, and the second material has a lower discharge platform voltage than the first material with respect to a same type of counter electrode, wherein a median particle size by volume D v 50 of the second material, when determined as described in the application, ranges from 4 μm to 10 μm. the positive electrode active material comprises a first material and a second material, the first material contains lithium transition metal oxide, the second material contains lithium transition metal phosphate, the lithium transition metal phosphate comprises secondary particles formed by agglomeration of primary particles, and the second material has a lower discharge platform voltage than the first material with respect to a same type of counter electrode, wherein a median particle size by volume D v 50 of the second material, when determined as described in the application, ranges from 4 μm to 10 μm.
An article comprising, a stretchable absorbent composite including a quantity of superabsorbent particles which are operatively contained within a matrix of elastomeric polymer fibers, wherein said composite includes at least about 60 wt% of the superabsorbent particles and from 5 to 40 wt% of the elastomeric polymer fibers, based on a total weight of the composite; said superabsorbent particles are surface treated with a thermoplastic coating, said thermoplastic coating including at least one material selected from the group consisting of polyethylene oxide, polypropylene oxide, ethylene oxide-propylene oxide copolymer, polyethylene glycol, polypropylene glycol, ethylene glycol-propylene glycol copolymer, modified polysaccharides, such as hydroxypropyl cellulose, methyl cellulose, methyl ethyl cellulose, polyethylene imine, and combinations thereof; wherein said superabsorbent with said thermoplastic coating exhibits a centrifuge retention capacity of at least about 15 g/g; and wherein said thermoplastic coating has a melting-point temperature of at least 60°C and not more than 150°C; said composite provides a stretchability value of at least about 30% and a shake-out value of not more than about 2 %; and the elastomeric polymer fibers have been produced from a polymer material having a melt flow rate of at least about 100 g/10 min.
A method for remediation of polluted soil, groundwater or aquifer comprising the steps of; - providing a boron-iron alloy powder or powder composition containing a boron-iron alloy powder wherein the boron-iron alloy powder consists of 0.7-4% by weight of boron, more than 85% by weight of iron and inevitable impurities up to a content of 10% by weight, and wherein the boron-alloy powder consists of particles having a particle size between 0.5 mm and 20 mm, preferably between 1 mm and 10 mm, - contacting the boron-iron alloy powder or powder composition with the polluted soil, water or groundwater, - incubating the mixture of boron-iron alloy powder or powder composition with the polluted soil, water or groundwater to decompose the pollutants. - providing a boron-iron alloy powder or powder composition containing a boron-iron alloy powder wherein the boron-iron alloy powder consists of 0.7-4% by weight of boron, more than 85% by weight of iron and inevitable impurities up to a content of 10% by weight, and wherein the boron-alloy powder consists of particles having a particle size between 0.5 mm and 20 mm, preferably between 1 mm and 10 mm, - contacting the boron-iron alloy powder or powder composition with the polluted soil, water or groundwater, - incubating the mixture of boron-iron alloy powder or powder composition with the polluted soil, water or groundwater to decompose the pollutants.