mhurhangee/patent-ind-claim-en huggingface dataset:
A processor implemented method for analyzing unstructured data for compliance enforcement, the method comprising: receiving, by a one or more hardware processors, a transaction request for unstructured data linked to a data subject among a plurality of data subjects registered with an enterprise, wherein the unstructured data comprises a plurality of data fields, wherein each data field among the plurality of data fields is identified by a unique Uniform Resource Identifier (URI) providing web view of the unstructured data ; identifying, by the one or more hardware processors, a purpose of the transaction request by analyzing the transaction request using text analytics ; identifying, by the one or more hardware processors, data-of-interest for the identified purpose from the unstructured data linked to the data subject, wherein the data-of-interest corresponds to a set of data fields among the plurality of data fields of the unstructured data ; identifying, by the one or more hardware processors, a plurality of sensitive fields among the set of data fields corresponding to the identified data-of-interest using text analytics, wherein each sensitive field among the plurality of sensitive fields is associated with a data subject preference, preset by the data subject ; and processing the transaction request, by the one or more hardware processors, for the set of data fields corresponding to the data-of-interest in accordance with the data subject preference for each sensitive field in the data-of-interest , wherein the set of data fields are accessed using corresponding unique URI . receiving, by a one or more hardware processors, a transaction request for unstructured data linked to a data subject among a plurality of data subjects registered with an enterprise, wherein the unstructured data comprises a plurality of data fields, wherein each data field among the plurality of data fields is identified by a unique Uniform Resource Identifier (URI) providing web view of the unstructured data ; identifying, by the one or more hardware processors, a purpose of the transaction request by analyzing the transaction request using text analytics ; identifying, by the one or more hardware processors, data-of-interest for the identified purpose from the unstructured data linked to the data subject, wherein the data-of-interest corresponds to a set of data fields among the plurality of data fields of the unstructured data ; identifying, by the one or more hardware processors, a plurality of sensitive fields among the set of data fields corresponding to the identified data-of-interest using text analytics, wherein each sensitive field among the plurality of sensitive fields is associated with a data subject preference, preset by the data subject ; and processing the transaction request, by the one or more hardware processors, for the set of data fields corresponding to the data-of-interest in accordance with the data subject preference for each sensitive field in the data-of-interest , wherein the set of data fields are accessed using corresponding unique URI .
Transferring device (1; 1') for the transport of receptacles between two transport units , comprising: - a first plate to be rotatably associated to a support structure for rotation around a first rotation axis (X1); - a plurality of support bodies , each support body being configured to removably support a corresponding one of said receptacles and being movably connected to said first plate through a drive unit which defines, for said support body , a predefined trajectory lying on a reference plane perpendicular to said first rotation axis (X1) and developing between a first end that is closer to said first rotation axis (X1) and a second end that is farther from said first rotation axis (X1); - a cam rigidly connected to each support body and configured to slide on a guide contour rigidly connected to said support structure in such a way as to cause a movement of said support body according to said predefined trajectory following a change in radius between two portions of said guide contour with which said cam cooperates during a corresponding rotation of said first plate relative to said support structure ; wherein said support body and said cam are arranged on mutually opposite sides with respect to said first plate according to the direction of said first rotation axis (X1); characterized in that the support body and the cam are rigidly connected to one another through a connection body movably housed in a through slot of said first plate . - a first plate to be rotatably associated to a support structure for rotation around a first rotation axis (X1); - a plurality of support bodies , each support body being configured to removably support a corresponding one of said receptacles and being movably connected to said first plate through a drive unit which defines, for said support body , a predefined trajectory lying on a reference plane perpendicular to said first rotation axis (X1) and developing between a first end that is closer to said first rotation axis (X1) and a second end that is farther from said first rotation axis (X1); - a cam rigidly connected to each support body and configured to slide on a guide contour rigidly connected to said support structure in such a way as to cause a movement of said support body according to said predefined trajectory following a change in radius between two portions of said guide contour with which said cam cooperates during a corresponding rotation of said first plate relative to said support structure ;
A light transparent fluoropolymer composition having less than 2 percent haze, comprising at least one of alkali metal cation and a corresponding anion, thereby forming alkali metal ionic species; or alkaline earth metal cation and a corresponding anion, thereby forming alkaline earth metal ionic species; wherein the light transparent fluoropolymer composition comprises the alkali metal ionic species or the alkaline earth metal ionic species in a range from 0.01 to 0.1 percent by weight, based on the total weight of the composition, wherein the light transparent fluoropolymer composition has at least 90% visible light transmission, and wherein the haze and the visible light transmission are measured with a haze meter obtained from BYK-Gardner GmbH under the trade designation "Hazegard Plus".
A genetically modified rodent whose genome comprises: a humanized Il1rl2 gene at an endogenous rodent Il1rl2 locus, wherein the humanized Il1rl2 gene encodes a humanized Il1rl2 protein that comprises an ectodomain having an amino acid sequence that is at least 95% identical with amino acids 20-335 of SEQ ID NO: 2; a human IL1F6 gene at an endogenous rodent Il1f6 locus; a human IL1F8 gene at an endogenous rodent Il1f8 locus; and a human IL1F9 gene at an endogenous rodent Il1f9 locus; wherein the genetically modified rodent displays deregulated IL-36 signaling. a humanized Il1rl2 gene at an endogenous rodent Il1rl2 locus, wherein the humanized Il1rl2 gene encodes a humanized Il1rl2 protein that comprises an ectodomain having an amino acid sequence that is at least 95% identical with amino acids 20-335 of SEQ ID NO: 2; a human IL1F6 gene at an endogenous rodent Il1f6 locus; a human IL1F8 gene at an endogenous rodent Il1f8 locus; and a human IL1F9 gene at an endogenous rodent Il1f9 locus;
A composition comprising a combination of citicoline or a pharmaceutically acceptable salt thereof and homotaurine and a physiologically acceptable carrier and/or excipient for use in the prevention or treatment of a neurodegenerative disease and/or a reversible cognitive disorder, a vascular cognitive impairment and/or a neurodegenerative ocular disease, wherein citicoline is present in an amount of 100 to 5000 mg and homotaurine is present in an amount of 5 to 500 mg.
A non-ionic photoacid generator (A) containing a sulfonate compound represented by general formula : wherein, in formula , R1 represents a naphthyl group, an anthracenyl group, or a coumarinyl group, in which R1 has a substituent (T), selected from an alkoxy group, an alkoxycarbonyl group, an aryloxycarbonyl group, an arylthio group, an alkylthio group, when R1 is the naphthyl group or the coumarinyl group, and may have a substituent (T) as specified above when R1 is the anthracenyl group group; R2 represents a hydrogen atom, an alkyl group having 1 to 18 carbon atoms, an alkenyl group having 2 to 18 carbon atoms, an alkynyl group having 2 to 18 carbon atoms, or an aryl group having 6 to 18 carbon atoms; and R3 represents a linear alkyl group having 1 to 18 carbon atoms, a branched-chain alkyl group having 1 to 18 carbon atoms, a cycloalkyl group having 3 to 18 carbon atoms, or an aryl group having 6 to 10 carbon atoms, in which some or all hydrogen atoms may be substituted with fluorine.
A nanoparticle comprising: a hydrophilic core stabilized by a comb polymer with a hydrophilic portion of the comb polymer oriented towards the center of the nanoparticle.
A listening system comprising two physically separate first and second devices (Right HI, Left HI) having separate physical housings, wherein the first device comprises a first input transducer for converting an input sound to an electrical input signal , the electrical input signal comprising a direct part and an acoustic feedback part, an output transducer for converting an electrical output signal to an output sound, a forward path being defined between the input and output transducer and comprising a signal processing unit ( Forward path ), a feedback cancellation system (FBC) for estimating acoustic feedback comprising an adaptive FBC filter (LMS, AFB) arranged in parallel to the forward path, the adaptive FBC filter comprising a variable FBC filter part (AFB) and an FBC update algorithm part (LMS) for updating the variable FBC filter part, the FBC update algorithm part (LMS) receiving first and second FBC algorithm input signals derived from the electrical input and output signals, respectively, defining first and second FBC update algorithm input signal paths, the first and second FBC update algorithm input signal paths comprising first and second variable filters (Hw), respectively, wherein the second device comprises a second input transducer generating an electrical update signal, the second input transducer being located at a position where the acoustical signal from the output transducer at a given frequency is smaller than at the location of the first input transducer , characterized in that said first and second variable filters (Hw) are adapted to be updated at least partially on the basis of said electrical update signal, and wherein the listening system is adapted to provide that filter coefficients based on the electrical update signal are transmitted from the second device ( Left HI ) where the second input transducer is located to the first device ( Right HI ) where the first input transducer is located and used in the update process of the first and second variable filters (Hw).
A computer-implemented method for processing inspection data associated with cargo irradiated by a plurality N of pulses of inspection radiation, the method comprising: obtaining (S1) the inspection data, the inspection data being representative of intensity values of pixels of an inspection image of the cargo generated as a result of a plurality of detectors detecting the plurality N of pulses transmitted through the cargo, and the inspection data comprising data associated with a higher energy mode, and data associated with a lower energy mode; generating (S3) a histogram having, as a first axis, bins corresponding to pixel intensity values HM associated with the higher energy mode and, as a second axis, bins corresponding to pixel intensity values LM associated with the lower energy mode, wherein generating the histogram comprises binning, for each pixel (i,j) of the inspection image corresponding to each pulse i and each detector j of the plurality of detectors, an occurrence in the obtained inspection data such that: HM i j ; LM i − 1 , j + LM i + 1 , j 2 ; selecting (S4), on the generated histogram, for each bin of the pixel intensity values LM, a bin corresponding to a most frequent bin of the pixel intensity values HM; and generating (S5) a transformation table by mapping each bin of the pixel intensity values LM with the selected bin of the pixel intensity values HM. obtaining (S1) the inspection data, the inspection data being representative of intensity values of pixels of an inspection image of the cargo generated as a result of a plurality of detectors detecting the plurality N of pulses transmitted through the cargo, and the inspection data comprising data associated with a higher energy mode, and data associated with a lower energy mode; the inspection data being representative of intensity values of pixels of an inspection image of the cargo generated as a result of a plurality of detectors detecting the plurality N of pulses transmitted through the cargo, and the inspection data comprising data associated with a higher energy mode, and data associated with a lower energy mode; generating (S3) a histogram having, as a first axis, bins corresponding to pixel intensity values HM associated with the higher energy mode and, as a second axis, bins corresponding to pixel intensity values LM associated with the lower energy mode, wherein generating the histogram comprises binning, for each pixel (i,j) of the inspection image corresponding to each pulse i and each detector j of the plurality of detectors, an occurrence in the obtained inspection data such that: HM i j ; LM i − 1 , j + LM i + 1 , j 2 ; selecting (S4), on the generated histogram, for each bin of the pixel intensity values LM, a bin corresponding to a most frequent bin of the pixel intensity values HM; and generating (S5) a transformation table by mapping each bin of the pixel intensity values LM with the selected bin of the pixel intensity values HM.
A method of compiling a program for processing image data, the program comprising a plurality of kernels executable on an image processor comprising a plurality of processing cores and a network connecting the plurality of processing cores, the method comprising: generating a plurality of different kernel assignments, each different kernel assignment assigning the plurality of kernels to respective ones of the processing cores and specifying kernel-to-kernel connections each of which identifies a producing kernel and a consuming kernel where the consuming kernel operates on data produced by the producing kernel; computing respective total weights for each of the plurality of different kernel assignments, a total weight for a given kernel assignment representing a measure of data transfer efficiency and being based on calculated data transfer metrics, including sizes of images and numbers of nodal hops within the network between producing and consuming kernels, of kernel-to-kernel transfer connections of the kernel assignment; selecting a kernel assignment having a total weight indicative of the best data transfer efficiency; and assigning kernels of the plurality of kernels to respective processing cores according to the selected kernel assignment. generating a plurality of different kernel assignments, each different kernel assignment assigning the plurality of kernels to respective ones of the processing cores and specifying kernel-to-kernel connections each of which identifies a producing kernel and a consuming kernel where the consuming kernel operates on data produced by the producing kernel; computing respective total weights for each of the plurality of different kernel assignments, a total weight for a given kernel assignment representing a measure of data transfer efficiency and being based on calculated data transfer metrics, including sizes of images and numbers of nodal hops within the network between producing and consuming kernels, of kernel-to-kernel transfer connections of the kernel assignment; selecting a kernel assignment having a total weight indicative of the best data transfer efficiency; and assigning kernels of the plurality of kernels to respective processing cores according to the selected kernel assignment.
A serial peripheral interface SPI-based data transmission method, comprising: sending, by a first device that is a host in an Internet of Things device, a first query request to a second device that is a wireless area network WWAN module in the Internet of Things device through a universal asynchronous receiver/transmitter UART interface, wherein the first query request is used to query an SPI mode supported by the second device ; if the first device determines, based on a first query response returned by the second device , that the second device supports an SPI master mode, sending, by the first device, an SPI connection establishment request to the second device, so that the second device initiates a process of establishing an SPI connection to the first device ; and if the first device determines, based on the first query response , that the second device supports an SPI slave mode, initiating, by the first device, a process of establishing an SPI connection to the second device ; and after the SPI connection is established with the second device, receiving, by the first device through the SPI, data sent by the second device, or sending data to the second device through the SPI . sending, by a first device that is a host in an Internet of Things device, a first query request to a second device that is a wireless area network WWAN module in the Internet of Things device through a universal asynchronous receiver/transmitter UART interface, wherein the first query request is used to query an SPI mode supported by the second device ; if the first device determines, based on a first query response returned by the second device , that the second device supports an SPI master mode, sending, by the first device, an SPI connection establishment request to the second device, so that the second device initiates a process of establishing an SPI connection to the first device ; and if the first device determines, based on the first query response , that the second device supports an SPI slave mode, initiating, by the first device, a process of establishing an SPI connection to the second device ; and after the SPI connection is established with the second device, receiving, by the first device through the SPI, data sent by the second device, or sending data to the second device through the SPI .
Sensor, in particular temperature sensor, comprising a printed circuit board with a physical parameter sensing element , in particular a temperature sensing element, wherein the printed circuit board comprises a first region and a second region linked together via a flexible linking portion such that a free end portion of the first region opposite the flexible linking portion is moveable with respect to the second region , wherein the flexible linking portion is part of the printed circuit board , the sensor being characterised in that the first region comprises a first protruding region in the plane of the printed circuit board that is protruding away from the second region and comprises a metallized edge region .
Household dishwasher at least having a container in which liquid can be applied to the items to be washed, a reservoir provided to receive liquid and serving as a heat exchanger, which is arranged in heat-conducting contact with the container , such that heated liquid in the container preheats liquid located in the reservoir which is used for a subprogram of an overall program for cleaning the items to be washed, and at least one component (16-19, 29, 30) enabling and/or at least supporting the normal operation of the reservoir , characterised in that the component (16-19, 29, 30) is an impeller flow meter for metering the quantity of liquid for the reservoir to be filled, wherein the impeller flow meter is integrated into the reservoir .
A method for manufacturing lithium hydroxide, comprising a step of dissolving lithium phosphate in hydrochloric acid; a step of preparing a monovalent ion selective-type electrodialysis device disposed in the order of a cathode cell containing a cathode separator, a monovalent anion selective-type dialysis membrane for selectively permeating a monovalent anion, a monovalent cation selective-type dialysis membrane for selectively permeating a monovalent cation, and an anode cell containing an anode separator, injecting the lithium phosphate dissolved in the acid between the anode separator of the anode cell and the monovalent cation separator-type dialysis membrane, and between the cathode separator of the cathode cell and the monovalent anion selective-type dialysis membrane, respectively, and injecting water between the monovalent cation selective-type dialysis membrane and the monovalent anion selective-type dialysis membrane; a step of obtaining an aqueous lithium chloride solution, and at the same time, obtaining a phosphoric acid aqueous solution formed as a by-product, by applying an electric current to the monovalent ion selective-type electrodialysis device; and a step of converting the obtained aqueous lithium chloride solution into an aqueous lithium hydroxide electrode solution; wherein the concentration of the electrode solution is 0.1 to 20 wt%; and wherein the electrical conductivity of the electrode solution is 10 to 100 ms/cm. a step of dissolving lithium phosphate in hydrochloric acid; a step of preparing a monovalent ion selective-type electrodialysis device disposed in the order of a cathode cell containing a cathode separator, a monovalent anion selective-type dialysis membrane for selectively permeating a monovalent anion, a monovalent cation selective-type dialysis membrane for selectively permeating a monovalent cation, and an anode cell containing an anode separator, injecting the lithium phosphate dissolved in the acid between the anode separator of the anode cell and the monovalent cation separator-type dialysis membrane, and between the cathode separator of the cathode cell and the monovalent anion selective-type dialysis membrane, respectively, and injecting water between the monovalent cation selective-type dialysis membrane and the monovalent anion selective-type dialysis membrane; a step of obtaining an aqueous lithium chloride solution, and at the same time, obtaining a phosphoric acid aqueous solution formed as a by-product, by applying an electric current to the monovalent ion selective-type electrodialysis device; and a step of converting the obtained aqueous lithium chloride solution into an aqueous lithium hydroxide electrode solution; wherein the concentration of the electrode solution is 0.1 to 20 wt%; and wherein the electrical conductivity of the electrode solution is 10 to 100 ms/cm.