mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting broadcast signals, the method comprising; encoding of Physical Layer Pipe, PLP, data comprising first and second PLP data, wherein the encoding comprises: Quadrature Amplitude Modulation, QAM, mapping (607210-1, 607210-2) of the first PLP data onto constellations; Multi-input Multi-Output, MIMO, processing of the QAM mapped first PLP data; time interleaving of the MIMO processed first PLP data: wherein the encoding further comprises: QAM mapping of the second PLP data onto constellation; and Multi-input Single-Output, MISO, processing of the QAM mapped second PLP data: wherein the method further comprises: building at least two signal frames by mapping the encoded PLP data; and modulating data in the built at least two signal frames by an Orthogonal Frequency Division Multiplexing, OFDM, method and transmitting at least two broadcast signals having the modulated data, wherein the at least two signal frames comprise preamble symbols and data symbols, wherein the preamble symbols include signaling information for signaling the PLP data and the data symbols include the encoded PLP data, wherein the signaling information is processed by Forward Error Correction, FEC, encoding and Multi-Input Single Output, MISO, processing. Quadrature Amplitude Modulation, QAM, mapping (607210-1, 607210-2) of the first PLP data onto constellations; Multi-input Multi-Output, MIMO, processing of the QAM mapped first PLP data; time interleaving of the MIMO processed first PLP data: wherein the encoding further comprises: QAM mapping of the second PLP data onto constellation; and Multi-input Single-Output, MISO, processing of the QAM mapped second PLP data: wherein the method further comprises: building at least two signal frames by mapping the encoded PLP data; and modulating data in the built at least two signal frames by an Orthogonal Frequency Division Multiplexing, OFDM, method and transmitting at least two broadcast signals having the modulated data, wherein the at least two signal frames comprise preamble symbols and data symbols, wherein the preamble symbols include signaling information for signaling the PLP data and the data symbols include the encoded PLP data, wherein the signaling information is processed by Forward Error Correction, FEC, encoding and Multi-Input Single Output, MISO, processing. QAM mapping of the second PLP data onto constellation; and Multi-input Single-Output, MISO, processing of the QAM mapped second PLP data: building at least two signal frames by mapping the encoded PLP data; and modulating data in the built at least two signal frames by an Orthogonal Frequency Division Multiplexing, OFDM, method and transmitting at least two broadcast signals having the modulated data, wherein the at least two signal frames comprise preamble symbols and data symbols, wherein the preamble symbols include signaling information for signaling the PLP data and the data symbols include the encoded PLP data, wherein the signaling information is processed by Forward Error Correction, FEC, encoding and Multi-Input Single Output, MISO, processing.
A method including the steps of: receiving data from an analyzing device (106; 108) representative of a compressed natural gas sample analysis; determining a set of established processes for a Methane number generation compatible with the particular analyzing device; selecting a first established process from the process set corresponding to a first selected Methane number generation protocol; applying, via at least one processor, the first established process to the obtained data from the analyzing device (106; 108) to calculate the first Methane number as a function of the selected Methane number generation protocol; coincidentally calculating a second Methane number for the compressed natural gas according to a second established process by applying a second selected protocol and the data received from the analyzing device; comparing the first Methane number to a predetermined threshold; and refining the compressed natural gas fuel as a function of the comparison. receiving data from an analyzing device (106; 108) representative of a compressed natural gas sample analysis; determining a set of established processes for a Methane number generation compatible with the particular analyzing device; selecting a first established process from the process set corresponding to a first selected Methane number generation protocol; applying, via at least one processor, the first established process to the obtained data from the analyzing device (106; 108) to calculate the first Methane number as a function of the selected Methane number generation protocol; coincidentally calculating a second Methane number for the compressed natural gas according to a second established process by applying a second selected protocol and the data received from the analyzing device; comparing the first Methane number to a predetermined threshold; and refining the compressed natural gas fuel as a function of the comparison.
Device for use in the production of fibre-reinforced components, said device comprising a positionable main frame, wherein a controllable holding installation for gripping and holding at least one reinforcement fibre tier is provided on the main frame, wherein a draping installation by way of which the reinforcement fibre tier by way of applying a vacuum can be draped to a moulding core is provided on the main frame, wherein the draping installation comprises an expandable draping tier, characterized in that the draping tier is displaceable between a resting position and an operating position that is disposed on the lower side of the main frame.
A computer-implemented method for operating a digital assistant, comprising: at a device having one or more processors and memory: receiving, from a user, a first speech input spoken in a first language; wherein the method further comprises the following steps at the device: inferring a user intent based at least on performing natural language processing of the first speech input in the first language; in response to determining that a meaning of at least one term in the first speech input varies by location, generating, in the first language, one or more alternative expressions of the first speech input based on the inferred user intent and a current location of the user; and providing feedback to the user introducing the alternative expressions as used in the current location to express the inferred user intent. at a device having one or more processors and memory: receiving, from a user, a first speech input spoken in a first language; wherein the method further comprises the following steps at the device: inferring a user intent based at least on performing natural language processing of the first speech input in the first language; in response to determining that a meaning of at least one term in the first speech input varies by location, generating, in the first language, one or more alternative expressions of the first speech input based on the inferred user intent and a current location of the user; and providing feedback to the user introducing the alternative expressions as used in the current location to express the inferred user intent. inferring a user intent based at least on performing natural language processing of the first speech input in the first language; in response to determining that a meaning of at least one term in the first speech input varies by location, generating, in the first language, one or more alternative expressions of the first speech input based on the inferred user intent and a current location of the user; and providing feedback to the user introducing the alternative expressions as used in the current location to express the inferred user intent.
Device (10, 10.2) for testing the tightness of a pump assembly for spray applicators, wherein the pump assembly has a nozzle unit, which is mounted in a pressure-tight manner on a housing, characterized in that the device comprises: - a coupling element (30, 30.2) by way of which the testing device (10, 10.2) is connectable to the pump assembly, - a generating unit for negative and/or positive pressure, which is connected to the coupling element (30, 30.2), - a sensor unit by way of which the pressure inside the pump assembly is able to be measured. - a coupling element (30, 30.2) by way of which the testing device (10, 10.2) is connectable to the pump assembly, - a generating unit for negative and/or positive pressure, which is connected to the coupling element (30, 30.2), - a sensor unit by way of which the pressure inside the pump assembly is able to be measured.
An axial air-gap rotary electric machine comprising a stator in which a plurality of core members including an iron core made of a substantially pillar body, a coil wound in an outer periphery of the iron core, and a bobbin disposed between the iron core and the coil are arranged in an annular shape along an inner periphery surface of a housing around a rotation axis, and at least one rotator facing an end surface of the iron core with a predetermined air gap interposed in a rotation axis direction, wherein the iron core is a core member in an open slot shape having the same cross section in the rotation axis direction, wherein the bobbin includes: a tube portion into which the iron core is inserted; and flange portions provided around at least one of both opening end portions of the tube portion and extending a predetermined length in a direction perpendicular to an outer periphery of the tube portion; and the coil is wound on the tube portion outer periphery with regular winding; characterised in that the coil is formed by layers in which a number of turns for each layer wound at an external side with respect to a first layer wound in contact with the flange portion is obtained by subtracting at least one from a number of turns in a layer at an internal side adjacent thereto. a tube portion into which the iron core is inserted; and flange portions provided around at least one of both opening end portions of the tube portion and extending a predetermined length in a direction perpendicular to an outer periphery of the tube portion; and
A conjugate of formula ConjB: ConjC or ConjDE: wherein: Ab is an antibody that binds to PSMA, the antibody comprising a VH domain having the sequence according to any one of SEQ ID NOs. 1, 3, 5, 7, 8, 9, or 10, optionally further comprising a VL domain having the sequence according to any one of SEQ ID NOs. 2, 4, 6, 11, 12, 13, 14, 15, 16, 17, or 18. ConjB: ConjC or ConjDE: wherein: Ab is an antibody that binds to PSMA, the antibody comprising a VH domain having the sequence according to any one of SEQ ID NOs. 1, 3, 5, 7, 8, 9, or 10, optionally further comprising a VL domain having the sequence according to any one of SEQ ID NOs. 2, 4, 6, 11, 12, 13, 14, 15, 16, 17, or 18.
A mixture M comprising or, alternatively, consisting of: - a bacterial strain belonging to the species Streptococcus thermophilus, identified as Streptococcus thermophilus ST10 and deposited at Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH (DSMZ) under accession number DSM 25246; - a strain belonging to the species Lactococcus lactis, identified as Lactococcus lactis LLC02 and deposited at Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH (DSMZ) under accession number DSM 29536; - a strain belonging to the species Lactobacillus delbruecki subsp. bulgaricus, identified as Lactobacillus delbruecki subsp. bulgaricus LDB 01 and deposited at Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH (DSMZ) under accession number DSM 16606. - a bacterial strain belonging to the species Streptococcus thermophilus, identified as Streptococcus thermophilus ST10 and deposited at Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH (DSMZ) under accession number DSM 25246; - a strain belonging to the species Lactococcus lactis, identified as Lactococcus lactis LLC02 and deposited at Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH (DSMZ) under accession number DSM 29536; - a strain belonging to the species Lactobacillus delbruecki subsp. bulgaricus, identified as Lactobacillus delbruecki subsp. bulgaricus LDB 01 and deposited at Deutsche Sammlung von Mikroorganismen und Zellkulturen GmbH (DSMZ) under accession number DSM 16606.
A method for managing a system configuration of a robot controller configured to control operation of a robot, wherein the robot controller comprises a processor and a memory, which is configured to store a system configuration including at least user-defined project data (P1, P2, P3), which comprises definitions of tasks to be completed by the robot, and project-independent software, the method comprising: obtaining a backup copy comprising user-defined project data and project-independent software; obtaining restore input indicating a portion of said user-defined project data in the backup copy and optionally a portion of said project-independent software in the backup copy; and performing a partial restore of the backup copy, wherein only the indicated portion is loaded into the memory of the robot controller, and any project data in the memory relating to the same projects as the indicated project data is deleted or overwritten. obtaining a backup copy comprising user-defined project data and project-independent software; obtaining restore input indicating a portion of said user-defined project data in the backup copy and optionally a portion of said project-independent software in the backup copy; and performing a partial restore of the backup copy, wherein only the indicated portion is loaded into the memory of the robot controller, and any project data in the memory relating to the same projects as the indicated project data is deleted or overwritten.
A method for identifying an antibody-expressing cell that specifically binds to a cell surface antigen of interest comprising: (a) providing a plurality of antibody-expressing B-cells originating from an animal which has been immunized with a target antigen or with DNA encoding a cell surface antigen, operably linked to a first sortable label; (b) providing a plurality of antigen-expressing cells operably linked to a second sortable label, wherein the antigen of interest is displayed at the surface of the antigen expressing cell; (c) contacting the antigen-expressing cells with the antibody-expressing cells; and (d) separating from the plurality of antibody-expressing cells, one or more antibody-expressing cells that can specifically bind to the antigen expressing cells using a cell sorter, wherein the presence of the first and second sortable label in a single cellular complex is indicative of the binding of an antibody-expressing cell to an antigen-expressing cell, thereby identifying a cell expressing an antibody that binds to an antigen of interest. (a) providing a plurality of antibody-expressing B-cells originating from an animal which has been immunized with a target antigen or with DNA encoding a cell surface antigen, operably linked to a first sortable label; (b) providing a plurality of antigen-expressing cells operably linked to a second sortable label, wherein the antigen of interest is displayed at the surface of the antigen expressing cell; (c) contacting the antigen-expressing cells with the antibody-expressing cells; and (d) separating from the plurality of antibody-expressing cells, one or more antibody-expressing cells that can specifically bind to the antigen expressing cells using a cell sorter, wherein the presence of the first and second sortable label in a single cellular complex is indicative of the binding of an antibody-expressing cell to an antigen-expressing cell, thereby identifying a cell expressing an antibody that binds to an antigen of interest.
Spring brake cylinder, having a housing in which a spring-loaded piston, loaded by means of at least one accumulator spring (14, 16), with a piston rod is axially movable, and also having an emergency release device comprising an emergency release operating device, an emergency release mechanism with a toothed wheel for interrupting the force flux between spring-loaded piston and piston rod, and also having a retaining device which is designed for holding the emergency release device in different retained positions, wherein the retaining device has a locking pawl which can be pivoted into an engaged and disengaged position in relation to the toothed wheel, and the emergency release operating device has at least one operating element (42, 44) which is movable in relation to the housing and loaded in its initial position by means of return spring means, and also having a driver which can be operated together with the operating sleeve for driving the locking pawl in such a way that during an operation of the operating element (42, 44) the operating force is transmitted to the driver and from this transmitted to the locking pawl for transferring the locking pawl from an engaged position in relation to the toothed wheel into a disengaged position, characterized in that between the operating element (42, 44) and the driver, or between the driver and the locking pawl, provision is made for spring means (56; 62) which are connected in parallel to the return spring means and during the driving of the locking pawl are compressed by means of the driver, creating a spring force which tensions the locking pawl in the position in which it is disengaged from the toothed wheel.
A method of enhancing images obtained by at least two viewing elements in an endoscope system (100, 210) using a contrast limited adaptive histogram equalization (CLAHE) algorithm wherein said endoscope system (100, 210) includes a controller (230, 320) having a baseboard module comprising a field programmable gate array (FPGA) (323, 402) configured to implement said algorithm, said method comprising the steps of: inputting YCbCr color space video streams to an adapter on said FPGA; converting said YCbCr color space video streams to Lab color space video streams within said adapter; pushing said Lab color space video streams to a frame grabber on said FPGA; grabbing said Lab color space video streams as Lab color space frames within said frame grabber; pulling said Lab color space frames from the frame grabber using a fetching module on said FPGA; rearranging Lab color space frame data within said fetching module to generate delayed Lab streams; pushing said delayed Lab streams to separate modules within an interpolation algorithm on said FPGA; and processing said delayed Lab streams with said CLAHE algorithm within said separate modules to generate contrast enhanced Lab streams. inputting YCbCr color space video streams to an adapter on said FPGA; converting said YCbCr color space video streams to Lab color space video streams within said adapter; pushing said Lab color space video streams to a frame grabber on said FPGA; grabbing said Lab color space video streams as Lab color space frames within said frame grabber; pulling said Lab color space frames from the frame grabber using a fetching module on said FPGA; rearranging Lab color space frame data within said fetching module to generate delayed Lab streams; pushing said delayed Lab streams to separate modules within an interpolation algorithm on said FPGA; and processing said delayed Lab streams with said CLAHE algorithm within said separate modules to generate contrast enhanced Lab streams.
A razor, comprising: a handle; a rotation unit disposed in the handle and configured to provide rotational power; a drive transmission unit coupled to the rotation unit and configured to be rotated by the rotational power; a cartridge including a blade housing on which one or more blades are seated; and a drive receiving unit formed at one side of the cartridge and configured to be in contact with the drive transmission unit to cause the blade housing to perform a linear movement in response to rotation of the drive transmission unit, wherein the cartridge is coupled to the handle such that the cartridge is pivotable about a pivot axis perpendicular to a rotational axis of the rotation unit, characterized in that the pivot axis intersects the drive transmission unit. a handle; a rotation unit disposed in the handle and configured to provide rotational power; a drive transmission unit coupled to the rotation unit and configured to be rotated by the rotational power; a cartridge including a blade housing on which one or more blades are seated; and a drive receiving unit formed at one side of the cartridge and configured to be in contact with the drive transmission unit to cause the blade housing to perform a linear movement in response to rotation of the drive transmission unit, wherein the cartridge is coupled to the handle such that the cartridge is pivotable about a pivot axis perpendicular to a rotational axis of the rotation unit, characterized in that the pivot axis intersects the drive transmission unit.
A method for annealing an absorber layer, comprising: contacting a surface of the absorber layer with an annealing material, said absorber layer comprising cadmium and tellurium; and annealing the absorber layer with the annealing material in contact with the surface of the absorber layer; characterized in that: the annealing material is provided as a gel, with the annealing material comprising cadmium chloride and a thickening agent and a viscosity of the gel of the annealing material is greater than or equal to 5 millipascal seconds. contacting a surface of the absorber layer with an annealing material, said absorber layer comprising cadmium and tellurium; and annealing the absorber layer with the annealing material in contact with the surface of the absorber layer; characterized in that: the annealing material is provided as a gel, with the annealing material comprising cadmium chloride and a thickening agent and a viscosity of the gel of the annealing material is greater than or equal to 5 millipascal seconds. the annealing material is provided as a gel, with the annealing material comprising cadmium chloride and a thickening agent and a viscosity of the gel of the annealing material is greater than or equal to 5 millipascal seconds.
A seam welding apparatus that performs resistance seam welding on layered steel plates, the seam welding apparatus comprising: an articulated robot; and a welding device attached to the robot, the welding device comprising: a pair of rotating electrodes (31, 32); an electrode supporting frame that supports the rotating electrodes (31, 32); the seam welding apparatus being characterized in that; the articulated robot includes a joint for which a predetermined tolerance is set; and that it further comprises a distance measuring means provided on the electrode supporting frame, the distance measuring means being configured to measure a distance to an edge of the steel plate; and a controller configured to control the robot to adjust, within the predetermined tolerance for the joint of the articulated robot, a running direction of the rotating electrodes (31, 32) so that a deviation comes into zero when a distance actually measured by the distance measuring means deviates from a predetermined distance. an articulated robot; and a welding device attached to the robot, a pair of rotating electrodes (31, 32); an electrode supporting frame that supports the rotating electrodes (31, 32); the seam welding apparatus being characterized in that; the articulated robot includes a joint for which a predetermined tolerance is set; and that it further comprises a distance measuring means provided on the electrode supporting frame, the distance measuring means being configured to measure a distance to an edge of the steel plate; and a controller configured to control the robot to adjust, within the predetermined tolerance for the joint of the articulated robot, a running direction of the rotating electrodes (31, 32) so that a deviation comes into zero when a distance actually measured by the distance measuring means deviates from a predetermined distance.