mhurhangee/ep-ind-claims huggingface dataset:
Computer-implemented method for providing a labelled training dataset, wherein - at least one electronic component (21,22,23,24,25,26) is selected in a CAD model of an electronic assembly comprising a plurality of electronic components, wherein the CAD model contains a description of the at least one electronic component (21,22,23,24,25,26) and a coordinate of the at least one electronic component, wherein the description of the electronic component includes information about the type of electronic component, and the coordinates of the electronic components are used to determine their positions in the electronic assembly, - a plurality of different render images (45,46,47,48) are generated, wherein the different render images (45,46,47,48) include the at least one selected electronic component (21,22,23,24,25,26), wherein a position of the at least one selected electronic component (21,22,23,24,25,26) differs in the case of at least two different render images, - the different render images are labelled based on the description of the at least one electronic component (21,22,23,24,25,26) contained in the CAD model and on the coordinate of the at least one electronic component contained in the CAD model in order to provide a training dataset based on the labelled render images, wherein a label of the at least one electronic component (21,22,23,24,25,26) has a description of the at least one electronic component and a position of the at least one electronic component in the render image. - at least one electronic component (21,22,23,24,25,26) is selected in a CAD model of an electronic assembly comprising a plurality of electronic components, wherein the CAD model contains a description of the at least one electronic component (21,22,23,24,25,26) and a coordinate of the at least one electronic component, wherein the description of the electronic component includes information about the type of electronic component, and the coordinates of the electronic components are used to determine their positions in the electronic assembly, - a plurality of different render images (45,46,47,48) are generated, wherein the different render images (45,46,47,48) include the at least one selected electronic component (21,22,23,24,25,26), wherein a position of the at least one selected electronic component (21,22,23,24,25,26) differs in the case of at least two different render images, - the different render images are labelled based on the description of the at least one electronic component (21,22,23,24,25,26) contained in the CAD model and on the coordinate of the at least one electronic component contained in the CAD model in order to provide a training dataset based on the labelled render images, wherein a label of the at least one electronic component (21,22,23,24,25,26) has a description of the at least one electronic component and a position of the at least one electronic component in the render image.
An apparatus for stretching a plastic film longitudinally thereof, the apparatus comprising: a base; plastic film feeding means by which the plastic film is directed onto the base and fed longitudinally thereof and intermittently; a plurality of rollers (15a, 15b, 15c) supported on shaft means for rotation thereabout, the shaft means extending longitudinally of the plastic film, the rollers (15a, 15b, 15c) being opposed to the base; the apparatus being characterised in that it further comprises first drive means by which the rollers (15a, 15b, 15c) are moved widthwise of the plastic film when the plastic film is stopped temporarily; and second drive means (17a, 17b, 17c) working on the rollers (15a, 15b, 15c) individually so that at least one of the rollers (15a, 15b, 15c) can be pressed against the plastic film on the base when the plastic film is stopped temporarily, at least one of the rollers (15a, 15b, 15c) being rolled along the plastic film to stretch the plastic film. a base; plastic film feeding means by which the plastic film is directed onto the base and fed longitudinally thereof and intermittently; a plurality of rollers (15a, 15b, 15c) supported on shaft means for rotation thereabout, the shaft means extending longitudinally of the plastic film, the rollers (15a, 15b, 15c) being opposed to the base; the apparatus being characterised in that it further comprises first drive means by which the rollers (15a, 15b, 15c) are moved widthwise of the plastic film when the plastic film is stopped temporarily; and second drive means (17a, 17b, 17c) working on the rollers (15a, 15b, 15c) individually so that at least one of the rollers (15a, 15b, 15c) can be pressed against the plastic film on the base when the plastic film is stopped temporarily, at least one of the rollers (15a, 15b, 15c) being rolled along the plastic film to stretch the plastic film.
Rotary drive arrangement for a drill rod having an outer pipe and an inner rod running at least in sections inside the outer pipe, in particular for double-head and/or overburden drilling, with - a first gearbox for driving the inner rod in a rotating manner and - a second gearbox for driving the outer pipe in a rotating manner, wherein the first gearbox and the second gearbox are independent of each other, - wherein the first gearbox and the second gearbox are supported in a common gearbox housing and are surrounded by the same. characterized in that the gearbox housing has a center support on which the second gear is arranged on a drilling tool side and the first gear on the side facing away from the drilling tool side is arranged, wherein the center support runs approximately perpendicularly to the drilling axis and divides the gearbox housing into a first gearbox compartment which faces away from the drilling tool side and a second gearbox compartment which faces towards the drilling tool side. - a first gearbox for driving the inner rod in a rotating manner and - a second gearbox for driving the outer pipe in a rotating manner, wherein the first gearbox and the second gearbox are independent of each other, - wherein the first gearbox and the second gearbox are supported in a common gearbox housing and are surrounded by the same.
A composition comprising a superhydrophilic amphiphilic copolymer and a carrier, wherein: the superhydrophilic amphiphilic copolymer is a starch-based polysaccharide modified with one or more hydrophobic reagents; wherein the hydrophobic reagent is selected from dodeceneylsuccinic anhydride or 3-chloro-2-hydroxpropyl-dimethyldodecylammonium chloride; and wherein the composition further comprises a micellar thickener, wherein the micellar thickener is a corona thickener selected from the list consisting of a fatty acid polyester of an ethoxylated glucoside, a fatty acid diester of a polyethylene glycol, and a fatty acid diester of an ethoxylated fatty alcohol wherein the superhydrophilic amphiphilic copolymer has a DP (degree of polymerization) between 4 and 1000. the superhydrophilic amphiphilic copolymer is a starch-based polysaccharide modified with one or more hydrophobic reagents; wherein the hydrophobic reagent is selected from dodeceneylsuccinic anhydride or 3-chloro-2-hydroxpropyl-dimethyldodecylammonium chloride; and wherein the composition further comprises a micellar thickener, wherein the micellar thickener is a corona thickener selected from the list consisting of a fatty acid polyester of an ethoxylated glucoside, a fatty acid diester of a polyethylene glycol, and a fatty acid diester of an ethoxylated fatty alcohol wherein the superhydrophilic amphiphilic copolymer has a DP (degree of polymerization) between 4 and 1000.
A method performed by a source base station of handing over a wireless device from the source base station to a target base station, said method comprising: determining that the wireless device is to be handed over from the source base station to the target base station, characterized in that the method further comprising: sending, to the target base station, a current mapping between one or more flow identifiers and a first set of data radio bearers used for communication between the wireless device and the source base station. determining that the wireless device is to be handed over from the source base station to the target base station, characterized in that the method further comprising: sending, to the target base station, a current mapping between one or more flow identifiers and a first set of data radio bearers used for communication between the wireless device and the source base station.
Fluid arrangement (10; 20; 50; 60; 70; 80) for the fluidic actuation of at least one clutch and of at least one transmission component, having a fluidic energy source, wherein the fluidic energy source comprises a fluid pump with a first conveying direction, in which the fluid pump serves for actuating, on a transmission side, the transmission component, and with a second conveying direction, which is opposite to the first conveying direction and in which the fluid pump serves for actuating, on a clutch side, the clutch, characterized in that a fluid reservoir is connected via a two-pressure valve to the transmission side and to the clutch side.
A power interface module, comprising: a first side having a plurality of interface input connectors (121a - 121f) of a same cross-sectional area corresponding to a same amperage rating; a second side having a plurality of interface output connectors (123a - 123c) of different cross-sectional areas from each other corresponding to different amperage ratings from each other; and characterized by wiring in the power interface module configured to connect a first number of interface input connectors to a first one of the interface output connectors having a first amperage rating, and configured to connect a second number of interface input connectors, different from the first number, to a second one of the interface output connectors having a second amperage rating different from the first amperage rating. a first side having a plurality of interface input connectors (121a - 121f) of a same cross-sectional area corresponding to a same amperage rating; a second side having a plurality of interface output connectors (123a - 123c) of different cross-sectional areas from each other corresponding to different amperage ratings from each other; and characterized by wiring in the power interface module configured to connect a first number of interface input connectors to a first one of the interface output connectors having a first amperage rating, and configured to connect a second number of interface input connectors, different from the first number, to a second one of the interface output connectors having a second amperage rating different from the first amperage rating.
Audio coding system comprising: a linear prediction unit for analyzing frames of a fixed first length of an audio signal to determine a sequence of LPC polynomials; an adaptive length transformation unit for transforming frames of a variable second length of the audio signal into frames of Modified Discrete Cosine Transform (MDCT) coefficients; a gain curve generation unit (970, 1070) for generating MDCT-domain gain curves for the frames of MDCT coefficients based on magnitude responses determined from the sequence of LPC polynomials, wherein generating MDCT-domain gain curves comprises mapping, by a mapping unit, the LPC polynomials to corresponding frames of MDCT coefficients; a gain curve application unit for applying the MDCT-domain gain curves to the frames of MDCT coefficients to generate frames of gain adjusted MDCT coefficients; and a quantization unit for quantizing the frames of gain adjusted MDCT coefficients. a linear prediction unit for analyzing frames of a fixed first length of an audio signal to determine a sequence of LPC polynomials; an adaptive length transformation unit for transforming frames of a variable second length of the audio signal into frames of Modified Discrete Cosine Transform (MDCT) coefficients; a gain curve generation unit (970, 1070) for generating MDCT-domain gain curves for the frames of MDCT coefficients based on magnitude responses determined from the sequence of LPC polynomials, wherein generating MDCT-domain gain curves comprises mapping, by a mapping unit, the LPC polynomials to corresponding frames of MDCT coefficients; a gain curve application unit for applying the MDCT-domain gain curves to the frames of MDCT coefficients to generate frames of gain adjusted MDCT coefficients; and a quantization unit for quantizing the frames of gain adjusted MDCT coefficients.
A modular sensor assembly, comprising: a signal processing module configured to be connected to an end-user device and configured to produce a conditioned output signal from a raw or partially conditioned output signal, the signal processing module comprising a signal conditioning block; a sensing module housed separately from and removably mechanically coupled to the signal processing module, the sensing module comprising a flow sensor (18A, 18B) comprising a heater element and one or more sensor elements (118, 120) configured to sense a flow rate of a fluid flow, and a local memory configured to retain a set of conditioning coefficients specific to the sensing module, the local memory comprising an EEPROM, EPROM, ROM, or RAM, the sensing module configured to generate a raw or partially conditioned output signal; wherein the signal conditioning block comprises a memory comprising a set of generic conditioning coefficients that are usable with a range of end-user devices and/or sensing modules; and wherein the signal conditioning block is configured to download all or some of the conditioning coefficients stored in the local memory of the sensing module and download the set of generic conditioning coefficients from the memory, and the signal conditioning block is configured to utilize the downloaded conditioning coefficients and the set of generic conditioning coefficients to produce the conditioned output signal from the raw or partially conditioned output signal. a signal processing module configured to be connected to an end-user device and configured to produce a conditioned output signal from a raw or partially conditioned output signal, the signal processing module comprising a signal conditioning block; a sensing module housed separately from and removably mechanically coupled to the signal processing module, the sensing module comprising a flow sensor (18A, 18B) comprising a heater element and one or more sensor elements (118, 120) configured to sense a flow rate of a fluid flow, and a local memory configured to retain a set of conditioning coefficients specific to the sensing module, the local memory comprising an EEPROM, EPROM, ROM, or RAM, the sensing module configured to generate a raw or partially conditioned output signal; wherein the signal conditioning block comprises a memory comprising a set of generic conditioning coefficients that are usable with a range of end-user devices and/or sensing modules; and wherein the signal conditioning block is configured to download all or some of the conditioning coefficients stored in the local memory of the sensing module and download the set of generic conditioning coefficients from the memory, and the signal conditioning block is configured to utilize the downloaded conditioning coefficients and the set of generic conditioning coefficients to produce the conditioned output signal from the raw or partially conditioned output signal.
A method for rapid detection of human papillomavirus, comprising the steps of: (a) obtaining a sample comprising a template nucleic acid; (b) amplifying the template nucleic acid with primers having the sequences of SEQ ID NOs:116-118, thereby generating HPV L1 amplicons; and (c) hybridizing the HPV L1 amplicons with immobilized oligonucleotide probes having the sequences of SEQ ID NOs:121-173, wherein the oligonucleotide probes of SEQ ID NOs:170-173 are capable of capturing generic HPV viral DNA, and the resulting hybridization profile would indicate the presence of HPV. (a) obtaining a sample comprising a template nucleic acid; (b) amplifying the template nucleic acid with primers having the sequences of SEQ ID NOs:116-118, thereby generating HPV L1 amplicons; and (c) hybridizing the HPV L1 amplicons with immobilized oligonucleotide probes having the sequences of SEQ ID NOs:121-173, wherein the oligonucleotide probes of SEQ ID NOs:170-173 are capable of capturing generic HPV viral DNA, and the resulting hybridization profile would indicate the presence of HPV.
A method of controlling machine-type communications in a wireless communications network, the method comprising: assigning network identification to a first MTC device (30, 40) of a specified access class, monitoring the first MTC device (30, 40) of the specified access class for detection of a surge in network access requests to the wireless communications network indicative of the trigger event; characterized by dynamically allocating a random access resource of the wireless communications network to the first MTC device (30, 40) of the specified access class in response to the surge; and communicating information indicative of the dynamically allocated random access resource to the first MTC device (30, 40) of the specified access class based on the network identification so that the first MTC device (30, 40) of the specified access class is configured to access the wireless communications network based on the information, wherein the specified access class substantially simultaneously requests network access to the wireless communications network in response to a trigger event that affects the first MTC device (30, 40) of the specified access class. assigning network identification to a first MTC device (30, 40) of a specified access class, monitoring the first MTC device (30, 40) of the specified access class for detection of a surge in network access requests to the wireless communications network indicative of the trigger event; dynamically allocating a random access resource of the wireless communications network to the first MTC device (30, 40) of the specified access class in response to the surge; and communicating information indicative of the dynamically allocated random access resource to the first MTC device (30, 40) of the specified access class based on the network identification so that the first MTC device (30, 40) of the specified access class is configured to access the wireless communications network based on the information, wherein the specified access class substantially simultaneously requests network access to the wireless communications network in response to a trigger event that affects the first MTC device (30, 40) of the specified access class.
A method of positioning a movable structure of an overhead crane, the movable structure being either a trolley or a bridge of the overhead crane, the method comprising providing a position reference for the movable structure, controlling with a state-feedback controller the position of the movable structure, the position of the movable structure and a sway angle of the load being state variables of the system used in the state-feedback controller, determining the position or speed of the movable structure and the sway angle of the load or angular velocity of the load, as determined state variables, providing the determined position or speed of the movable structure, the determined sway angle of the load or angular velocity of the load and the output of the state-feedback controller to an observer, producing with the observer at least two estimated state variables, the estimated state variables including estimated position of the movable structure, estimated sway angle of the load, estimated speed of the movable structure and the estimated angular velocity of the load, forming a feedback vector from the estimated state variables or from the estimated state variables together with determined state variables, using the formed feedback vector as a feedback for the state-feedback controller, and providing the output of the state-feedback controller to a frequency converter which is adapted to drive the movable structure of the overhead crane. providing a position reference for the movable structure, controlling with a state-feedback controller the position of the movable structure, the position of the movable structure and a sway angle of the load being state variables of the system used in the state-feedback controller, determining the position or speed of the movable structure and the sway angle of the load or angular velocity of the load, as determined state variables, providing the determined position or speed of the movable structure, the determined sway angle of the load or angular velocity of the load and the output of the state-feedback controller to an observer, producing with the observer at least two estimated state variables, the estimated state variables including estimated position of the movable structure, estimated sway angle of the load, estimated speed of the movable structure and the estimated angular velocity of the load, forming a feedback vector from the estimated state variables or from the estimated state variables together with determined state variables, using the formed feedback vector as a feedback for the state-feedback controller, and providing the output of the state-feedback controller to a frequency converter which is adapted to drive the movable structure of the overhead crane.
A tooth for a compactor vehicle, the tooth comprising a base and a cap; wherein the base comprises: a body defining an underside, configured to engage a wheel of the compactor vehicle, and an opposing cap-facing side; and a retention feature (58, 60, 62, 64, 72) in which material of the cap is received; wherein the cap comprises: an outer surface defining a compaction surface; and a retention feature (49, 51, 53, 55, 114); wherein the retention features of the base and cap interlock with one another to fix the cap to the base and prevent the cap from separating from the base; characterised in that a cavity is defined in the underside of the base. wherein the base comprises: a body defining an underside, configured to engage a wheel of the compactor vehicle, and an opposing cap-facing side; and a retention feature (58, 60, 62, 64, 72) in which material of the cap is received; a body defining an underside, configured to engage a wheel of the compactor vehicle, and an opposing cap-facing side; and a retention feature (58, 60, 62, 64, 72) in which material of the cap is received; wherein the cap comprises: an outer surface defining a compaction surface; and a retention feature (49, 51, 53, 55, 114); an outer surface defining a compaction surface; and a retention feature (49, 51, 53, 55, 114); wherein the retention features of the base and cap interlock with one another to fix the cap to the base and prevent the cap from separating from the base; characterised in that a cavity is defined in the underside of the base.