mhurhangee/ep-ind-claims huggingface dataset:
A method for the diagnosis and/or monitoring the recurrence of bladder cancer in a subject, comprising: a) determining an input level of nucleic acid from a urine sample comprising nucleic acid from the subject based on data from at least one quality control assay; b) performing hybrid capture on the input nucleic acid to create a captured nucleic acid; c) analyzing the captured nucleic acid to obtain nucleic acid sequence data; and d) determining a presence or an absence of at least one mutation and/or epigenetic alteration in at least one gene associated with bladder cancer in the nucleic acid sequence data, wherein the at least one gene is selected from the list of genes listed in Table 1, and wherein the at least one gene comprises KDM6A, wherein the at least one quality control assay comprises real time PCR analysis and/or capillary electrophoresis analysis to detect nucleic acid fragment sizes greater than 100-150bp in size. a) determining an input level of nucleic acid from a urine sample comprising nucleic acid from the subject based on data from at least one quality control assay; b) performing hybrid capture on the input nucleic acid to create a captured nucleic acid; c) analyzing the captured nucleic acid to obtain nucleic acid sequence data; and d) determining a presence or an absence of at least one mutation and/or epigenetic alteration in at least one gene associated with bladder cancer in the nucleic acid sequence data, wherein the at least one gene is selected from the list of genes listed in Table 1, and wherein the at least one gene comprises KDM6A,
A linear compressor, comprising: a shell; a compressor body accommodated in the shell to compress a refrigerant; a discharge cover assembly through which the refrigerant compressed in the compressor body is discharged; a cover pipe configured to discharge the refrigerant discharged into the discharge cover assembly to an outside of the discharge cover assembly; a discharge pipe coupled to the shell to discharge the refrigerant flowing along the cover pipe to an outside of the shell; a loop pipe having a first end connected to the cover pipe and a second end connected to the discharge pipe; and a coupling member (510, 550) that couples the first end of the loop pipe to the cover pipe or the second end of the loop pipe to the discharge pipe, wherein the coupling member includes a connection member, a first portion of which is inserted into the loop pipe and a second portion of which is inserted into the discharge pipe or the cover pipe, wherein the connection member includes: an insertion portion inserted into the loop pipe; a coupling portion coupled to the cover pipe; and one or more stoppers that protrudes from an outer circumferential surface of the connection member to restrict an insertion depth of the insertion portion, wherein the coupling member includes a pipe cover that surrounds the loop pipe and the connection member, characterized in that the cover pipe extends from the discharge cover assembly; the connection member is formed of a steel material, and at least one of the discharge pipe or the cover pipe is formed of a steel material; the coupling portion has an accommodation groove accommodating an end of the pipe cover; and the accommodation groove is recessed by a predetermined depth from a rear surface of the coupling portion toward a front surface of the coupling portion, and the end of the pipe cover is received in the accommodation groove to prevent the end from being radially expanded. a shell; a compressor body accommodated in the shell to compress a refrigerant; a discharge cover assembly through which the refrigerant compressed in the compressor body is discharged; a cover pipe configured to discharge the refrigerant discharged into the discharge cover assembly to an outside of the discharge cover assembly; a discharge pipe coupled to the shell to discharge the refrigerant flowing along the cover pipe to an outside of the shell; a loop pipe having a first end connected to the cover pipe and a second end connected to the discharge pipe; and a coupling member (510, 550) that couples the first end of the loop pipe to the cover pipe or the second end of the loop pipe to the discharge pipe, wherein the coupling member includes a connection member, a first portion of which is inserted into the loop pipe and a second portion of which is inserted into the discharge pipe or the cover pipe, an insertion portion inserted into the loop pipe; a coupling portion coupled to the cover pipe; and one or more stoppers that protrudes from an outer circumferential surface of the connection member to restrict an insertion depth of the insertion portion,
A mobile terminal, comprising: - a user input unit; - a camera; - a wireless communication unit; - a memory; - a display module; and - a controller operatively connected to the user input unit, the camera, the wireless communication unit, the memory and the display module, the controller configured to receive an input of a user action via the user input unit to set an image transmission condition, set the image transmission condition corresponding to the inputted user action, check the set image transmission condition photograph an image with the camera, and transmit the photographed image via the wireless communication unit to at least one counterpart terminal which is preset as a reception terminal, as soon as the image is photographed, in correspondence with the set image transmission condition. - a user input unit; - a camera; - a wireless communication unit; - a memory; - a display module; and - a controller operatively connected to the user input unit, the camera, the wireless communication unit, the memory and the display module, the controller configured to
A method, in a communications receiver, the method comprising: in a first decoding iteration for a series of received unknown information symbols, generating (410; 510) a plurality of soft bits and corresponding probability metrics, the plurality of soft bits corresponding to the series of received unknown information symbols; regenerating (420; 520) estimates of the received unknown information symbols as a function of the soft bits and corresponding probability metrics; calculating (430; 530) an estimate of the propagation channel response experienced by the received unknown information symbols, as a function of the regenerated estimates of the received unknown information symbols; characterized by: calculating a signal impairment covariance matrix as a function of the calculated estimate of the propagation channel response for multiple fingers or antennas of the communications receiver; and applying (440; 550) the calculated signal impairment covariance matrix, to produce demodulated symbols for a second decoding iteration for the series of received unknown information symbols. in a first decoding iteration for a series of received unknown information symbols, generating (410; 510) a plurality of soft bits and corresponding probability metrics, the plurality of soft bits corresponding to the series of received unknown information symbols; regenerating (420; 520) estimates of the received unknown information symbols as a function of the soft bits and corresponding probability metrics; calculating (430; 530) an estimate of the propagation channel response experienced by the received unknown information symbols, as a function of the regenerated estimates of the received unknown information symbols; characterized by: calculating a signal impairment covariance matrix as a function of the calculated estimate of the propagation channel response for multiple fingers or antennas of the communications receiver; and applying (440; 550) the calculated signal impairment covariance matrix, to produce demodulated symbols for a second decoding iteration for the series of received unknown information symbols. calculating a signal impairment covariance matrix as a function of the calculated estimate of the propagation channel response for multiple fingers or antennas of the communications receiver; and applying (440; 550) the calculated signal impairment covariance matrix, to produce demodulated symbols for a second decoding iteration for the series of received unknown information symbols.
A moisture-curable hot melt adhesive comprising, based on 100 parts by weight of a total weight of components to: 20 to 50 parts by weight of a urethane prepolymer having a terminal isocyanate group, 2 to 15 parts by weight of a metallocene-based polyolefin having a viscosity of 10,000 mPa·s or less at a temperature of 170°C, 2 to 20 parts by weight of a polyester-polyether copolymer, 4 to 12 parts by weight of an ethylene/carboxylic acid ester copolymer comprising an ethylene/vinyl acetate copolymer, and 35 to 55 parts by weight of an a-methyl styrene-based resin. 20 to 50 parts by weight of a urethane prepolymer having a terminal isocyanate group, 2 to 15 parts by weight of a metallocene-based polyolefin having a viscosity of 10,000 mPa·s or less at a temperature of 170°C, 2 to 20 parts by weight of a polyester-polyether copolymer, 4 to 12 parts by weight of an ethylene/carboxylic acid ester copolymer comprising an ethylene/vinyl acetate copolymer, and 35 to 55 parts by weight of an a-methyl styrene-based resin.
A transportable storage installation with a length of at least 6 m comprising a plurality of racks, each rack comprising batteries, each rack comprising at least one face for inserting the batteries, characterized in that at least half of the racks are arranged so as said at least one insertion face is arranged perpendicularly to the direction defined by the length of the storage installation, said installation comprising at least two rows of racks arranged perpendicularly to the direction defined by the length of the storage installation and at least one traffic corridor exists between these two rows of racks.
Method for producing a decorated wall or floor panel, comprising the method steps: a) providing a pourable carrier material, in particular a granulate; b) arranging the carrier material between two belt-like conveying means (12, 14); c) forming the carrier material under the action of temperature while forming a web-like carrier; d) compressing the carrier; e) treating the carrier under the action of pressure by use of a double-belt press, wherein the carrier is cooled in or prior to the double-belt press; f) optionally further cooling the carrier; g) applying a decoration backing onto at least a partial area of the carrier; h) applying a decoration imitating a decoration template onto at least a partial area of the carrier; i) applying a protective layer onto at least a partial area of the decoration; j) structuring the protective layer in order to introduce pores and/or structuring the edge region of the substrate in order to form connecting elements; and k) optionally treating the carrier for electrostatic discharge prior to one of the aforementioned method steps, wherein the plate-shaped carrier comprises at least in an edge region a profiling as a connecting element, and wherein the plate-shaped carrier comprises a material which comprises as a plastic material a thermoplastic selected from the group consisting of polyethylene, polypropylene, polyethylene terephthalate and as a filler talc, chalk, aluminum oxide, quartz powder and/or gypsum. a) providing a pourable carrier material, in particular a granulate; b) arranging the carrier material between two belt-like conveying means (12, 14); c) forming the carrier material under the action of temperature while forming a web-like carrier; d) compressing the carrier; e) treating the carrier under the action of pressure by use of a double-belt press, wherein the carrier is cooled in or prior to the double-belt press; f) optionally further cooling the carrier; g) applying a decoration backing onto at least a partial area of the carrier; h) applying a decoration imitating a decoration template onto at least a partial area of the carrier; i) applying a protective layer onto at least a partial area of the decoration; j) structuring the protective layer in order to introduce pores and/or structuring the edge region of the substrate in order to form connecting elements; and k) optionally treating the carrier for electrostatic discharge prior to one of the aforementioned method steps,
Machine for the additive manufacturing of components by sintering or melting powder, comprising a framework, at least one working zone, and at least two modules (14, 16) for the emission and control of an energy beam that are mounted inside the framework and are each provided with an emission source (40a, 40b) and an optical focusing means (44a, 44b) for the energy beam emitted by said source, characterized in that the emission and control modules (14, 16) each act on said working zone in order to manufacture one and the same component, at least the optical focusing means (44a, 44b) of each module being axially movable in translation along a vertical axis with respect to the framework, the machine also comprising at least two actuators (52, 54) that are each associated with one of the optical focusing means (44a, 44b) in order to adjust the vertical axial positions of said means with respect to the working zone independently of one another.
A fuel injection control device for a spark-ignition engine of an intra-cylindrical direct fuel injection type, the engine comprising: - a fuel injection valve configured to directly inject a fuel to an interior of a cylinder; - a spark plug configured to ignite, by a spark, an air-fuel mixture inside the cylinder, and - a controller configured to calculate a basic fuel injection timing and a basic fuel injection pressure of the fuel injection valve under predetermined operating conditions, wherein the fuel injection control device is configured such that - when the injected fuel collides with a portion in a predetermined low-temperature state, the fuel is injected while changing on a cycling basis a fuel injection timing and a fuel injection pressure with respect to the basic fuel injection timing and the basic fuel injection pressure so as to restrain a fuel spray from keeping colliding with the same position continuously, and - an amount of change in the fuel injection timing from the basic fuel injection timing is increased as the fuel injection pressure increases from the basic fuel injection pressure. - a fuel injection valve configured to directly inject a fuel to an interior of a cylinder; - a spark plug configured to ignite, by a spark, an air-fuel mixture inside the cylinder, and - a controller configured to calculate a basic fuel injection timing and a basic fuel injection pressure of the fuel injection valve under predetermined operating conditions, - when the injected fuel collides with a portion in a predetermined low-temperature state, the fuel is injected while changing on a cycling basis a fuel injection timing and a fuel injection pressure with respect to the basic fuel injection timing and the basic fuel injection pressure so as to restrain a fuel spray from keeping colliding with the same position continuously, and - an amount of change in the fuel injection timing from the basic fuel injection timing is increased as the fuel injection pressure increases from the basic fuel injection pressure.
An image processing apparatus comprising: an image acquiring unit configured to acquire an image from a camera installed in a moving body; a feature point extracting unit configured to extract feature points from the image; a matching unit configured to perform a matching process on the feature points extracted from the images that have been taken at different time points; a position calculating unit configured to calculate a three-dimensional position of each feature point that has been matched based on a position of the feature point that has been matched and a movement amount of the moving body; a precision calculating unit configured to calculate a precision indicating an error of the three-dimensional position; a distribution determining unit configured to detect an object from the image based on a group of feature points whose three-dimensional positions have been calculated, characterised in that the distribution unit is configured to set a threshold for each object based on a precision distribution of the feature points generated for said object; a selecting unit configured to select, for each object, the feature points having a higher precision than the threshold; and a generating unit configured to generate an object shape by using the feature points that have been selected. an image acquiring unit configured to acquire an image from a camera installed in a moving body; a feature point extracting unit configured to extract feature points from the image; a matching unit configured to perform a matching process on the feature points extracted from the images that have been taken at different time points; a position calculating unit configured to calculate a three-dimensional position of each feature point that has been matched based on a position of the feature point that has been matched and a movement amount of the moving body; a precision calculating unit configured to calculate a precision indicating an error of the three-dimensional position; a distribution determining unit configured to detect an object from the image based on a group of feature points whose three-dimensional positions have been calculated, characterised in that the distribution unit is configured to set a threshold for each object based on a precision distribution of the feature points generated for said object; a selecting unit configured to select, for each object, the feature points having a higher precision than the threshold; and a generating unit configured to generate an object shape by using the feature points that have been selected.
A method for locating an animal with the aid of radio waves, wherein the animal is located on a ground and is equipped with a node of the radio location system that is to be located and wherein at least one further node (2, 3) of the radio location system is each located on one known position, wherein radio signals are transmitted between the node to be located and the nodes (2, 3) with known position and wherein the distance between one or more nodes (2, 3) of known position on the one hand and the node to be located on the other hand is calculated from parameters measured during signal transmissions and/or differences in the distances from the individual nodes (2, 3) of known position to the node to be located are calculated and wherein further possible positions of the node to be located are calculated from the calculation results and wherein the animal is provided with one or more acceleration sensors through which accelerations as a result of movements of the animal are measured and wherein it is inferred from these measurement results by means of a data processing system on the basis of a comparison with exemplary acceleration processes, which of several possible distinguishable activities the animal is currently performing, characterized in that it is stored in a data processing system, at which height above the ground the node to be located is on the animal at which activity of the animal, wherein at least two activities that can be distinguished from one another are assigned different heights and wherein for the calculation of the position of the node to be located from the measurement results of the signal transmissions, the assumption of the height assigned to the current activity as a boundary condition is included.
A method for providing a Physical Uplink Shared Channel, PUSCH, bitstream comprising the steps of - obtaining encoded user data; - interleaving the encoded user data; - scrambling the interleaved encoded user data; and - adding Rank Indication information to the scrambled encoded user data, characterized by the steps of - determining, based on a recursive algorithm, bit positions within the encoded user data which have been reserved for the Rank Indication information; - calculating bit destination addresses of the obtained encoded user data, wherein the calculating of the bit destination addresses is only provided for bit positions within the encoded user data which have not been reserved for the Rank Indication information; and - storing the interleaved encoded user data based on the calculated bit destination addresses in an output buffer, wherein - the interleaving comprises the step of reserving bit positions for the Rank Indication information. - obtaining encoded user data; - interleaving the encoded user data; - scrambling the interleaved encoded user data; and - adding Rank Indication information to the scrambled encoded user data, characterized by the steps of - determining, based on a recursive algorithm, bit positions within the encoded user data which have been reserved for the Rank Indication information; - calculating bit destination addresses of the obtained encoded user data, wherein the calculating of the bit destination addresses is only provided for bit positions within the encoded user data which have not been reserved for the Rank Indication information; and - storing the interleaved encoded user data based on the calculated bit destination addresses in an output buffer, wherein - the interleaving comprises the step of reserving bit positions for the Rank Indication information.
A composite panel (10, 110) comprising at least one integrated electrical circuit (16, 118), the composite panel (10, 110) comprising: a matrix; and a matrix-permeable reinforced material assembly (12, 114) comprising: a first matrix-permeable fabric preform (14, 116) and a second matrix-permeable fabric preform (18, 122) extending in a superposed relationship; at least one electrical circuit (16, 118) provided on a film substrate, wherein the at least one electrical circuit (16, 118) is placed between the first (14, 116) and second (18, 122) matrix-permeable fabric preforms, and the film substrate comprises at least one hole and/or opening; and at least one electrical or electronic device electrically connected to the at least one electrical circuit (16, 118). a matrix; and a matrix-permeable reinforced material assembly (12, 114) comprising: a first matrix-permeable fabric preform (14, 116) and a second matrix-permeable fabric preform (18, 122) extending in a superposed relationship; at least one electrical circuit (16, 118) provided on a film substrate, wherein the at least one electrical circuit (16, 118) is placed between the first (14, 116) and second (18, 122) matrix-permeable fabric preforms, and the film substrate comprises at least one hole and/or opening; and at least one electrical or electronic device electrically connected to the at least one electrical circuit (16, 118). a first matrix-permeable fabric preform (14, 116) and a second matrix-permeable fabric preform (18, 122) extending in a superposed relationship; at least one electrical circuit (16, 118) provided on a film substrate, wherein the at least one electrical circuit (16, 118) is placed between the first (14, 116) and second (18, 122) matrix-permeable fabric preforms, and the film substrate comprises at least one hole and/or opening; and at least one electrical or electronic device electrically connected to the at least one electrical circuit (16, 118).