mhurhangee/ep-ind-claims huggingface dataset:
Method for automatically producing an overall image (20; 30) of a vehicle environment of a vehicle by means of a device and a plurality of images, which are each produced currently by a camera of a plurality of cameras fitted to the vehicle, the overall image (20; 30) representing the vehicle environment and a virtual model of the vehicle from a virtual perspective, the method comprising the steps: determining a position of each predefined image section (22, 23, 24) occurring in an image from the plurality of images, covering a part of each image of the plurality of images in which a predefined image section (22, 23, 24) occurs with an image mask assigned to the current image, determining each image mask by using the determined position of each predefined image section (22, 23, 24) located in the associated image, in such a way that the said image mask covers each predefined image section (22, 23, 24) occurring in the associated image, and producing the overall image (20; 30) by assembling the plurality of images following their covering with the associated image masks, characterized in that each predefined image section occurring in an in an image of the plurality of images at least partly depicts a vehicle body and/or a vehicle wheel, the method further comprising the following steps: determining a current position of at least one vehicle wheel on the basis of a current steering angle of the vehicle, and carrying out the determination of the position of at least one predefined image section (22, 24) occurring in an image from the plurality of images which at least partly depicts the at least one vehicle wheel by using the current position of the at least one vehicle wheel and on the basis of current intrinsic and extrinsic calibration parameters of a camera of the plurality of cameras by means of which the corresponding image has currently been recorded. determining a position of each predefined image section (22, 23, 24) occurring in an image from the plurality of images, covering a part of each image of the plurality of images in which a predefined image section (22, 23, 24) occurs with an image mask assigned to the current image, determining each image mask by using the determined position of each predefined image section (22, 23, 24) located in the associated image, in such a way that the said image mask covers each predefined image section (22, 23, 24) occurring in the associated image, and producing the overall image (20; 30) by assembling the plurality of images following their covering with the associated image masks, determining a current position of at least one vehicle wheel on the basis of a current steering angle of the vehicle, and carrying out the determination of the position of at least one predefined image section (22, 24) occurring in an image from the plurality of images which at least partly depicts the at least one vehicle wheel by using the current position of the at least one vehicle wheel and on the basis of current intrinsic and extrinsic calibration parameters of a camera of the plurality of cameras by means of which the corresponding image has currently been recorded.
A fiber comprising an olefin polymer composition comprising 100 parts by weight of an olefin polymer and 0.1 to 30 parts by weight of an acid-form anionic surfactant, the acid-form anionic surfactant having been melt kneaded in the fiber, wherein the acid-form anionic surfactant is a fatty acid having not less than 9 carbon atoms, and the olefin polymer is a propylene/α-olefin random copolymer comprising propylene and an α-olefin and having a melting point (Tm) in the range of 125 to 155°C. wherein the acid-form anionic surfactant is a fatty acid having not less than 9 carbon atoms, and the olefin polymer is a propylene/α-olefin random copolymer comprising propylene and an α-olefin and having a melting point (Tm) in the range of 125 to 155°C.
A method of repairing and assessing at least part of a damaged object, the method comprising: providing a damaged object; and performing, using common Additive Manufacturing apparatus, an Additive Manufacturing process to: add additional material to the damaged object; and produce a test specimen (30, 34, 38), the test specimen (30, 34, 38) being produced from the same material as the additional material that is added to the damaged object, the test specimen (30, 34, 38) being produced on a surface of the damaged object at a location that is at or proximate to the location, on the damaged object, of the additional material that is added by the Additive Manufacturing apparatus performing the Additive Manufacturing process; performing, using computed tomography scanning apparatus, on the produced test specimen (30, 34, 38), a computed tomography scanning process to create a model, the model being a digital model of the internal structure of the test specimen (30, 34, 38); determining whether or not the model satisfies one or more criteria; and if the model satisfies the one or more criteria, determining that the additional material added to the damaged object is acceptable; or if the model does not satisfy the one or more criteria, determining that the additional material added to the damaged object is not acceptable. providing a damaged object; and performing, using common Additive Manufacturing apparatus, an Additive Manufacturing process to: add additional material to the damaged object; and produce a test specimen (30, 34, 38), the test specimen (30, 34, 38) being produced from the same material as the additional material that is added to the damaged object, the test specimen (30, 34, 38) being produced on a surface of the damaged object at a location that is at or proximate to the location, on the damaged object, of the additional material that is added by the Additive Manufacturing apparatus performing the Additive Manufacturing process; add additional material to the damaged object; and produce a test specimen (30, 34, 38), the test specimen (30, 34, 38) being produced from the same material as the additional material that is added to the damaged object, the test specimen (30, 34, 38) being produced on a surface of the damaged object at a location that is at or proximate to the location, on the damaged object, of the additional material that is added by the Additive Manufacturing apparatus performing the Additive Manufacturing process; performing, using computed tomography scanning apparatus, on the produced test specimen (30, 34, 38), a computed tomography scanning process to create a model, the model being a digital model of the internal structure of the test specimen (30, 34, 38); determining whether or not the model satisfies one or more criteria; and if the model satisfies the one or more criteria, determining that the additional material added to the damaged object is acceptable; or if the model does not satisfy the one or more criteria, determining that the additional material added to the damaged object is not acceptable.
An organic light-emitting display device, comprising: a first glass substrate; a second glass substrate placed over the first glass substrate; an array of organic light-emitting pixels interposed between the first and second glass substrates; a frit seal interposed between the first glass substrate and the second glass substrate while surrounding the array, wherein the frit seal, the first glass substrate and the second glass substrate in combination define an enclosed space in which the array is located; and a structure comprising a portion interposed between the first and second glass substrates wherein the structure is located outside the frit seal defining the enclosed space, characterised in that the structure extends along side surfaces of the first glass substrate and of the second glass substrate and comprises at least one selected from the group consisting of cyanoacrylate, acrylate, epoxy, urethane acrylate and cured polymers of two or more of the foregoing and the structure improves structural strength of the device and the structure is configured to improve sealing of the enclosed space. a first glass substrate; a second glass substrate placed over the first glass substrate; an array of organic light-emitting pixels interposed between the first and second glass substrates; a frit seal interposed between the first glass substrate and the second glass substrate while surrounding the array, wherein the frit seal, the first glass substrate and the second glass substrate in combination define an enclosed space in which the array is located; and a structure comprising a portion interposed between the first and second glass substrates wherein the structure is located outside the frit seal defining the enclosed space,
Method for the germicidal treatment of wastewater, wherein an amount of hydrogen peroxide and a catalyst are added to the wastewater, or the hydrogen peroxide-comprising wastewater is brought into contact with a catalyst, characterized in that the catalyst is a metal complex compound comprising a) a metal cation of iron, zinc, copper, cobalt, vanadium or manganese and b) organic complex ligands of the general formula: -- wherein the radicals Y independently of one another are selected from aromatic heterocycles having at least one nitrogen heteroatom; -- wherein the number n is at least 1 and at most 5. a) a metal cation of iron, zinc, copper, cobalt, vanadium or manganese and b) organic complex ligands of the general formula: -- wherein the radicals Y independently of one another are selected from aromatic heterocycles having at least one nitrogen heteroatom; -- wherein the number n is at least 1 and at most 5. -- wherein the radicals Y independently of one another are selected from aromatic heterocycles having at least one nitrogen heteroatom; -- wherein the number n is at least 1 and at most 5.
A tuft (16, 66) for an oral care implement comprising a plurality of filaments, each filament having a longitudinal axis and a cross-shaped cross-sectional area extending in a plane perpendicular to the longitudinal axis, the cross-shaped cross-sectional area having four projections and four channels, the projections and channels being arranged in an alternating manner, the cross-sectional area having an outer diameter, and each channel having a concave curvature formed by neighboring and converging projections, the concave curvature having a radius, wherein the radius is within a range from 0.015 mm to 0.12 mm, and the ratio of the outer diameter to the radius is within a range from 2.5 to 12, characterised in that the tuft (16, 66) has a packing factor within a range from 40% to 60%, preferably from 40% to 45%, further preferably 40%, or 45%, or 46%, or 49%, wherein each projection tapers off in the outward direction in an angle defined in a range from 6° to 25°.
A nail gun comprising: a gun body; a power module disposed in said gun body, said power module being configured to perform a nail-driving operation in which said power module outputs a striking force to strike a nail by receiving a first pressure, and prevented from receiving the first pressure when said power module is subjected to a second pressure; a muzzle module mounted to said gun body, and defining a nail exit opening; a magazine module connected to said muzzle module for pushing a plurality of nails to move into said muzzle module one at a time; a firing module mounted to said gun body, and operable to activate the nail-driving operation for firing the nails via said nail exit opening; and a detection module including a valve rod that is movably mounted to said gun body for controlling the second pressure, and a detection member that is pivoted to said magazine module and that is operable to pivot between an unsealing position and a sealing position, said detection member being moved to the sealing position when the number of the nails in said magazine module is less than a predetermined amount; characterised in that, when said detection member is at the unsealing position, said valve rod is pushed by said detection member to move away from said detection member to permit release of the second pressure; and wherein when said detection member is at the sealing position, said valve rod is moved toward said detection member to prevent the second pressure from being released. a gun body; a power module disposed in said gun body, said power module being configured to perform a nail-driving operation in which said power module outputs a striking force to strike a nail by receiving a first pressure, and prevented from receiving the first pressure when said power module is subjected to a second pressure; a muzzle module mounted to said gun body, and defining a nail exit opening; a magazine module connected to said muzzle module for pushing a plurality of nails to move into said muzzle module one at a time; a firing module mounted to said gun body, and operable to activate the nail-driving operation for firing the nails via said nail exit opening; and a detection module including a valve rod that is movably mounted to said gun body for controlling the second pressure, and a detection member that is pivoted to said magazine module and that is operable to pivot between an unsealing position and a sealing position, said detection member being moved to the sealing position when the number of the nails in said magazine module is less than a predetermined amount; characterised in that, when said detection member is at the unsealing position, said valve rod is pushed by said detection member to move away from said detection member to permit release of the second pressure; and wherein when said detection member is at the sealing position, said valve rod is moved toward said detection member to prevent the second pressure from being released.
A nucleic acid comprising a nucleotide sequence encoding an influenza hemagglutinin wherein the nucleotide sequence comprises a regulatory element that is operative in a plant, the regulatory element comprising a Cowpea Mosaic Virus (CPMV) regulatory region.
An image forming apparatus comprising: a main body, a developing unit for forming an image. the developing unit including an electrical contact portion, a transfer unit for transferring the image formed by the developing unit onto a recording medium, the transfer unit being disposed in the main body, a tray loaded with the developing unit and installed so as to be inserted into, or withdrawn from, the main body, a power supply unit for supplying power to the developing unit, the power supply unit being disposed in the main body, and a conductive member that is connected to the power supply unit, intersects with an insertion or withdrawal direction of the tray, wherein a connection hole is formed in the tray, characterised in that the conductive member directly contacts the electrical contact portion of the developing unit through the connection hole. a main body, a developing unit for forming an image. the developing unit including an electrical contact portion, a transfer unit for transferring the image formed by the developing unit onto a recording medium, the transfer unit being disposed in the main body, a tray loaded with the developing unit and installed so as to be inserted into, or withdrawn from, the main body, a power supply unit for supplying power to the developing unit, the power supply unit being disposed in the main body, and a conductive member that is connected to the power supply unit, intersects with an insertion or withdrawal direction of the tray, wherein a connection hole is formed in the tray, characterised in that the conductive member directly contacts the electrical contact portion of the developing unit through the connection hole.
A composition comprising at least a first binding agent with specificity for interleukin-1 receptor accessory protein (IL1RAP) and a second binding agent with specificity for IL1RAP, wherein the first and second binding agents bind to at least two different extracellular domains of IL1RAP, and wherein each of the first and second binding agents is an anti-IL1RAP antibody or an antigen-binding fragment thereof.
Floor assembly for a device for drying laundry, having at least one heat pump that can be thermally coupled to a process air system of the device, with heat exchangers (7, 8) and at least one heat exchanger housing in which the heat exchangers (7, 8) are arranged, wherein the heat exchanger housing has at least one installation base on which the heat exchangers (7, 8) are installed, and at least one cover part covering the heat exchangers (7, 8) on a side facing away from the installation base, characterised in that the cover part has at least one cover element covering the heat exchangers (7, 8) on the side facing away from the installation base and two projections connected to the cover element, extending parallel to one another, arranged spaced apart from one another and extending at least as far as the installation base, said projections running at least partially between the heat exchangers (7, 8) and contacting them at least indirectly, wherein a duct section of the process air system formed between the heat exchangers (7, 8) is sealed airtight on a side facing away from the installation base by means of at least one sealing element arranged on a side of the cover element facing the installation base, and laterally by means of the projections.
A system for managing reduced pressure at a plurality of tissue sites undergoing reduced pressure treatment on a patient, the system comprising: a reduced-pressure source for providing reduced pressure; a pressure management module; a first conduit fluidly coupled between the reduced-pressure source and the pressure management module for supplying reduced pressure to the pressure management module; a plurality of reduced-pressure dressings; a plurality of reduced-pressure delivery conduits fluidly coupled to the pressure management module; wherein the plurality of reduced-pressure dressings are coupled to the plurality of reduced-pressure delivery conduits; a plurality of a sensing conduits fluidly coupled to the pressure management module; and wherein each reduced-pressure dressing has a sensing conduit of the plurality of sensing conduits and a reduced-pressure delivery conduit of the plurality of reduced-pressure delivery conduits associated with the reduced-pressure dressing. a reduced-pressure source for providing reduced pressure; a pressure management module; a first conduit fluidly coupled between the reduced-pressure source and the pressure management module for supplying reduced pressure to the pressure management module; a plurality of reduced-pressure dressings; a plurality of reduced-pressure delivery conduits fluidly coupled to the pressure management module; wherein the plurality of reduced-pressure dressings are coupled to the plurality of reduced-pressure delivery conduits; a plurality of a sensing conduits fluidly coupled to the pressure management module; and wherein each reduced-pressure dressing has a sensing conduit of the plurality of sensing conduits and a reduced-pressure delivery conduit of the plurality of reduced-pressure delivery conduits associated with the reduced-pressure dressing.
A method for controlling a robot, the method comprising the steps of: - setting a predetermined maximum voltage level; - calculating a highest voltage required for a desired robot movement; - setting a first voltage level in a DC-bus on the basis of the highest voltage, wherein said first voltage level is set to be equal with said maximum voltage level if the calculated highest voltage exceeds said maximum voltage level; and - supplying current to a motor at a robot axis from the DC-bus. - setting a predetermined maximum voltage level; - calculating a highest voltage required for a desired robot movement; - setting a first voltage level in a DC-bus on the basis of the highest voltage, wherein said first voltage level is set to be equal with said maximum voltage level if the calculated highest voltage exceeds said maximum voltage level; and - supplying current to a motor at a robot axis from the DC-bus.
A double stranded RNAi agent capable of inhibiting expression of HAO1 in a cell, wherein said double stranded RNAi agent comprises a sense strand and an antisense strand forming a double-stranded region, wherein said sense strand and said antisense strand comprise a region of complementarity which comprises at least 15 contiguous nucleotides differing by no more than 3 nucleotides from the antisense sequence of SEQ ID NO:706; wherein substantially all of the nucleotides of said sense strand and substantially all of the nucleotides of said antisense strand are modified nucleotides, and wherein said sense strand is conjugated to a ligand attached at the 3'-terminus. wherein substantially all of the nucleotides of said sense strand and substantially all of the nucleotides of said antisense strand are modified nucleotides, and wherein said sense strand is conjugated to a ligand attached at the 3'-terminus.
Shelf bottom for a refrigerator with a carrier plate enclosed by a frame, characterised in that the frame (2, 3, 4, 5) is assembled from lateral extruded profiled pieces (4, 5) and profiled parts (2, 3) connecting the ends of the extruded profiled pieces (4, 5), wherein the profiled parts (2, 3) each have the shape of an elongated bar which at its ends becomes widened and elevated head pieces.
A method for transmitting one or more symbols in a multiple antenna wireless communication system that is a MIMO-OFDM, Multiple Input Multiple Output - Orthogonal Frequency Division Multiplexing, system defining a spectrum and comprising a plurality of transmit antennas, wherein each transmit antenna has at least one logical adjacent transmit antenna in a round-robin fashion, and wherein said one or more symbols comprise long training symbols (500, 600) based on a single-antenna long training symbol, and wherein each training symbol is represented in the frequency domain by a number of modulated frequency subcarriers (-32, -31,..., 30, 31) arranged in the spectrum; said method comprising the step of: diagonally loading subcarriers from said one or more training symbols across a plurality of antennas in said multiple antenna wireless communication system, wherein said diagonal loading positions each subsequent subcarrier on a logically adjacent antenna in a round-robin fashion, and thereby nulling additional subcarriers on each transmit antenna such that outer subcarriers of the spectrum no longer have at least one neighboring subcarrier that is not nulled; characterized in that said method further comprises the step of: inserting at least one additional subcarrier in at least one training symbol at an edge of the spectrum, thereby positioning the at least one additional subcarrier to ensure that a subcarrier, which is nulled due to the diagonal loading, has at least one subcarrier that is not nulled on each side of said nulled subcarrier. diagonally loading subcarriers from said one or more training symbols across a plurality of antennas in said multiple antenna wireless communication system, wherein said diagonal loading positions each subsequent subcarrier on a logically adjacent antenna in a round-robin fashion, and thereby nulling additional subcarriers on each transmit antenna such that outer subcarriers of the spectrum no longer have at least one neighboring subcarrier that is not nulled; characterized in that said method further comprises the step of: inserting at least one additional subcarrier in at least one training symbol at an edge of the spectrum, thereby positioning the at least one additional subcarrier to ensure that a subcarrier, which is nulled due to the diagonal loading, has at least one subcarrier that is not nulled on each side of said nulled subcarrier. inserting at least one additional subcarrier in at least one training symbol at an edge of the spectrum, thereby positioning the at least one additional subcarrier to ensure that a subcarrier, which is nulled due to the diagonal loading, has at least one subcarrier that is not nulled on each side of said nulled subcarrier.