mhurhangee/patent-ind-claim-en huggingface dataset:
A method for use in compression of aerial and/or satellite sensor data at a first location for transmission to a second location, said method comprising: analyzing the aerial and/or satellite sensor data to identify regions of interest within the data comprising identifying high interest region data and low interest region data; processing the high interest region data at a first stage of a lossless compression algorithm to create a first meta-data stream and a second meta-data stream wherein the first and second meta-data streams are a Rice quotient stream and a Rice remainder stream respectively; separately processing the first meta-data stream and the second meta-data stream at a second stage of the lossless compression algorithm, wherein the first meta-data stream is compressed by an arithmetic coding algorithm using a first context model adapted to the first meta-data stream and the second meta-data stream is compressed by an arithmetic coding algorithm using a second context model adapted to the second meta-data stream; and combining the processed first meta-data stream and the processed second meta-data stream to produce compressed sensor data, the method further comprising: discarding the low interest region data or compressing the low interest region data with a lossy compression algorithm to produce lossy compressed low interest region data (318-330). data comprising identifying high interest region data and low interest region data; processing the high interest region data at a first stage of a lossless compression algorithm to create a first meta-data stream and a second meta-data stream wherein the first and second meta-data streams are a Rice quotient stream and a Rice remainder stream respectively; separately processing the first meta-data stream and the second meta-data stream at a second stage of the lossless compression algorithm, wherein the first meta-data stream is compressed by an arithmetic coding algorithm using a first context model adapted to the first meta-data stream and the second meta-data stream is compressed by an arithmetic coding algorithm using a second context model adapted to the second meta-data stream; and combining the processed first meta-data stream and the processed second meta-data stream to produce compressed sensor data, the method further comprising: discarding the low interest region data or compressing the low interest region data with a lossy compression algorithm to produce lossy compressed low interest region data (318-330).
An assembly for an obscuration cloud generating device for being removably held within a housing of the obscuration cloud device, the assembly comprising: an obscuration cloud generating canister, wherein a composition emitted from the obscuration cloud generating canister is emitted via an outlet of the assembly in a defined direction that is off a longitudinal axis of the obscuration cloud generating canister; and at least one guiding member of the assembly for positioning the assembly in a specific angular orientation within and with respect to the housing, so the housing has a fixed positional relationship with respect to the outlet to fix an angle of emission with respect to the housing. an obscuration cloud generating canister, wherein a composition emitted from the obscuration cloud generating canister is emitted via an outlet of the assembly in a defined direction that is off a longitudinal axis of the obscuration cloud generating canister; and at least one guiding member of the assembly for positioning the assembly in a specific angular orientation within and with respect to the housing, so the housing has a fixed positional relationship with respect to the outlet to fix an angle of emission with respect to the housing.
Method (S3) for controlling a clamp of a device for measuring electrical conductivity of a loop , said measuring device being configured to induce an electric current in the loop by means of said clamp , and to obtain the value of the current circulating in the loop so as to determine the electrical conductivity of said loop , said method comprising the following steps: - during a use of said clamp , the supply (S311) of said clamp with an electrical test signal delivered by said measuring device , then the measurement (S312), at said clamp , of an intensity value of the electrical test signal, and - comparison between the measured intensity value of the electrical test signal and a reference intensity value, and, if the difference between said compared values is higher than a predetermined threshold, detection of wear on said clamp . - during a use of said clamp , the supply (S311) of said clamp with an electrical test signal delivered by said measuring device , then the measurement (S312), at said clamp , of an intensity value of the electrical test signal, and - comparison between the measured intensity value of the electrical test signal and a reference intensity value, and, if the difference between said compared values is higher than a predetermined threshold, detection of wear on said clamp .
A system for transcranially stimulating a user and operable at a head region of the user, the system comprising: • a pair of pad units configured at opposing head regions of the user during use of the system, wherein each of the pad units comprises a rigid outer housing; • a band having a first end coupled to a first pad of the pair of pad units and a second end coupled to a second pad of the pair of pad units, wherein a portion of the band couples to a first region of the rigid outer housing; • a bridge coupled to an electrode during use of the system; and • a pair of links paired with the pair of pad units, each link of the pair of links coupled to the bridge, wherein a portion of a link of the pair of links couples to a second region of the rigid outer housing interior to the first region, and having an elastic modulus above a threshold modulus such that: ∘ in a first operation mode, lateral displacement of the pair of pad units produces lateral displacement of the electrode away from the head region of the user, and ∘ in a second operation mode, release of the pair of pad units orients protrusions of the electrode approximately normal to the head region of the user. • a pair of pad units configured at opposing head regions of the user during use of the system, wherein each of the pad units comprises a rigid outer housing; • a band having a first end coupled to a first pad of the pair of pad units and a second end coupled to a second pad of the pair of pad units, wherein a portion of the band couples to a first region of the rigid outer housing; • a bridge coupled to an electrode during use of the system; and • a pair of links paired with the pair of pad units, each link of the pair of links coupled to the bridge, wherein a portion of a link of the pair of links couples to a second region of the rigid outer housing interior to the first region, and having an elastic modulus above a threshold modulus such that: ∘ in a first operation mode, lateral displacement of the pair of pad units produces lateral displacement of the electrode away from the head region of the user, and ∘ in a second operation mode, release of the pair of pad units orients protrusions of the electrode approximately normal to the head region of the user. ∘ in a first operation mode, lateral displacement of the pair of pad units produces lateral displacement of the electrode away from the head region of the user, and ∘ in a second operation mode, release of the pair of pad units orients protrusions of the electrode approximately normal to the head region of the user.
A push-on fastener comprising: a push-on fastener body comprising an annular base defining an aperture , first and second opposing major surfaces , a plurality of radial tabs extending from the annular base , the radial tabs terminating radially inwardly or radially outwardly; and a low friction layer overlying the first major surface of the push-on fastener body , the annular base further defining an inner peripheral surface and an outer peripheral surface opposite the inner peripheral surface , characterized in that the radial tabs terminate radially inwardly, providing the inner peripheral surface , wherein the outer peripheral surface is free of the low friction layer , or the radial tabs terminate radially outwardly, providing the outer peripheral surface , wherein the inner peripheral surface is free of the low friction layer . a push-on fastener body comprising an annular base defining an aperture , first and second opposing major surfaces , a plurality of radial tabs extending from the annular base , the radial tabs terminating radially inwardly or radially outwardly; and a low friction layer overlying the first major surface of the push-on fastener body , the annular base further defining an inner peripheral surface and an outer peripheral surface opposite the inner peripheral surface , characterized in that the radial tabs terminate radially inwardly, providing the inner peripheral surface , wherein the outer peripheral surface is free of the low friction layer , or the radial tabs terminate radially outwardly, providing the outer peripheral surface , wherein the inner peripheral surface is free of the low friction layer .
An ascorbic acid responsive electrode which does not contain an enzyme, said ascorbic acid responsive electrode comprising an electrode , and a detection layer comprising a non-catalytic electron acceptor that is capable of receiving an electron from ascorbic acid, wherein the electron acceptor is a ruthenium compound, and, when the ascorbic acid responsive electrode is in use, in the detection layer, the electron acceptor is reduced by the ascorbic acid, and the resulting reduced electron acceptor is oxidized at the electrode by applying an oxidation potential to said electrode; characterised in that said detection layer further comprises: an amino acid selected from the group consisting of taurine, alanine, glycine, serine, and combinations thereof, and a soluble protein; and further characterised in that the ruthenium compound is a ruthenium (III) complex represented by the following chemical Formula: [Ru(NH 3 ) 5 X] n+ , wherein X represents NH 3 , a halogen, CN, pyridine, nicotinamide, bipyridine, or H 2 O; and n+ represents the valence of the ruthenium (III) complex. an electrode , and a detection layer comprising a non-catalytic electron acceptor that is capable of receiving an electron from ascorbic acid, wherein the electron acceptor is a ruthenium compound, and, when the ascorbic acid responsive electrode is in use, in the detection layer, the electron acceptor is reduced by the ascorbic acid, and the resulting reduced electron acceptor is oxidized at the electrode by applying an oxidation potential to said electrode; characterised in that said detection layer further comprises: an amino acid selected from the group consisting of taurine, alanine, glycine, serine, and combinations thereof, and a soluble protein; an amino acid selected from the group consisting of taurine, alanine, glycine, serine, and combinations thereof, and a soluble protein; and further characterised in that the ruthenium compound is a ruthenium (III) complex represented by the following chemical Formula: [Ru(NH 3 ) 5 X] n+ , wherein X represents NH 3 , a halogen, CN, pyridine, nicotinamide, bipyridine, or H 2 O; and n+ represents the valence of the ruthenium (III) complex.
A syringe nest assembly comprising: a base having a first surface and an opposing second surface , the base comprising a plurality of nesting units extending upwardly away from the first surface of the base , each nesting unit comprising a hollow body having a first open end distal from the first surface of the base and an opposing second open end ; a first plate movably coupled to the base , the first plate having a generally planar form, a first surface and an opposing second surface , the first plate being slidable relative to the base along a longitudinal axis parallel to edges of the base , the first plate comprising a plurality of apertures extending from the first surface to the second surface of the first plate , each aperture of the first plate being generally aligned with a respective nesting unit of the base ; and a syringe positioned within at least two adjacent apertures of the plurality of apertures , wherein sliding of the first plate relative to the base results in centering of the syringes . a base having a first surface and an opposing second surface , the base comprising a plurality of nesting units extending upwardly away from the first surface of the base , each nesting unit comprising a hollow body having a first open end distal from the first surface of the base and an opposing second open end ; a first plate movably coupled to the base , the first plate having a generally planar form, a first surface and an opposing second surface , the first plate being slidable relative to the base along a longitudinal axis parallel to edges of the base , the first plate comprising a plurality of apertures extending from the first surface to the second surface of the first plate , each aperture of the first plate being generally aligned with a respective nesting unit of the base ; and a syringe positioned within at least two adjacent apertures of the plurality of apertures , wherein sliding of the first plate relative to the base results in centering of the syringes .
An injection element for an engine, the injection element comprising: - a first fuel duct for a first fuel component extending in a longitudinal direction; - a plurality of second fuel ducts for a second fuel component arranged around the first fuel duct , and - a plurality of bores , characterized in that each of the plurality of bores intersects with at least one duct of the plurality of second fuel ducts and further intersects with another bore of the plurality of bores . - a first fuel duct for a first fuel component extending in a longitudinal direction; - a plurality of second fuel ducts for a second fuel component arranged around the first fuel duct , and - a plurality of bores , characterized in that each of the plurality of bores intersects with at least one duct of the plurality of second fuel ducts and further intersects with another bore of the plurality of bores .
A solar cell module comprising: a plurality of solar cells, each including; a semiconductor substrate , a plurality of finger electrode lines formed on the semiconductor substrate in a first direction, 6 or more bus bar electrode lines formed to extend in a second direction crossing the plurality of finger electrode lines, and a plurality of pad sections formed on the bus bar electrode lines, each of the plurality of pad sections having a length in the second direction greater than a width of the plurality of finger electrode lines, and a width in the first direction greater than the width of_the bus bar electrode lines, and wherein 6 or more leads electrically connect neighboring two solar cells of the plurality of solar cells, each lead having a core layer and a coating layer , and having a circular cross-section and a first width of 250 to 500 μm wherein the leads are attached to the bus bar electrode lines and the plurality of pad sections, and a lower portion of the leads (W7) attached to the plurality of pad sections has a second width (w7) greater than the first width. a plurality of solar cells, each including; a semiconductor substrate , a plurality of finger electrode lines formed on the semiconductor substrate in a first direction, 6 or more bus bar electrode lines formed to extend in a second direction crossing the plurality of finger electrode lines, and a plurality of pad sections formed on the bus bar electrode lines, each of the plurality of pad sections having a length in the second direction greater than a width of the plurality of finger electrode lines, and a width in the first direction greater than the width of_the bus bar electrode lines, and a semiconductor substrate , a plurality of finger electrode lines formed on the semiconductor substrate in a first direction, 6 or more bus bar electrode lines formed to extend in a second direction crossing the plurality of finger electrode lines, and a plurality of pad sections formed on the bus bar electrode lines, each of the plurality of pad sections having a length in the second direction greater than a width of the plurality of finger electrode lines, and a width in the first direction greater than the width of_the bus bar electrode lines, and wherein 6 or more leads electrically connect neighboring two solar cells of the plurality of solar cells, each lead having a core layer and a coating layer , and having a circular cross-section and a first width of 250 to 500 μm wherein the leads are attached to the bus bar electrode lines and the plurality of pad sections, and a lower portion of the leads (W7) attached to the plurality of pad sections has a second width (w7) greater than the first width.
A method for handling logs, wherein the method comprises the following steps: - retrieving or generating a unique code at a first moment (t 1 ) by means of an electronic processing device; - establishing, by means of a position determining device , position information as to the geographical position of a portable, hand-held log marking tool at said first moment (t 1 ); - applying the code as a corresponding code marking on a log by means of the log marking tool at a second moment (t 2 ) and automatically establishing a time value (t V ) representing the time elapsed between said first moment (t 1 ) and said second moment (t 2 ); - comparing said time value (t V ) with a predetermined time threshold value (t th ); and - storing the code as an authenticated code in a database associated to the position information when said time value (t V ) is smaller than the time threshold value (t th ). - retrieving or generating a unique code at a first moment (t 1 ) by means of an electronic processing device; - establishing, by means of a position determining device , position information as to the geographical position of a portable, hand-held log marking tool at said first moment (t 1 ); - applying the code as a corresponding code marking on a log by means of the log marking tool at a second moment (t 2 ) and automatically establishing a time value (t V ) representing the time elapsed between said first moment (t 1 ) and said second moment (t 2 ); - comparing said time value (t V ) with a predetermined time threshold value (t th ); and - storing the code as an authenticated code in a database associated to the position information when said time value (t V ) is smaller than the time threshold value (t th ).
Method of processing of meat trim products, where trim products are supplied as a sequence of collections of trim (COTs), each collection of trim (COT) comprising a plurality of trim products, whereby - a fat/meat relationship for a collection of trim (COT) is measured, - a collection of trim (COT) is transferred to a selected station by a separator , controlled by a controller , and whereby - a batch is completed at a selected station on the basis of data for said fat/meat relationship, said batch comprising collections of trim (COTs) and fulfilling a predetermined criterion regarding a total fat/meat relationship, characterized in that - said batch is further completed at said selected station on the basis of the data for the collections of trim (COTs) that have already been transferred to each of the available stations, wherein said data for the collections of trim (COTs) that have already been transferred to each of the available stations include the total fat/meat relationship for the already accumulated collections of trim (COTs) at each of the stations and the total weight, - wherein weight is determined for the supplied collections of trim (COTs) and wherein the weight data is supplied to the controller . - a fat/meat relationship for a collection of trim (COT) is measured, - a collection of trim (COT) is transferred to a selected station by a separator , controlled by a controller , and whereby - a batch is completed at a selected station on the basis of data for said fat/meat relationship, said batch comprising collections of trim (COTs) and fulfilling a predetermined criterion regarding a total fat/meat relationship, characterized in that - said batch is further completed at said selected station on the basis of the data for the collections of trim (COTs) that have already been transferred to each of the available stations, wherein said data for the collections of trim (COTs) that have already been transferred to each of the available stations include the total fat/meat relationship for the already accumulated collections of trim (COTs) at each of the stations and the total weight, - wherein weight is determined for the supplied collections of trim (COTs) and wherein the weight data is supplied to the controller .
A method of manufacturing an organic electronic device, comprising: - providing a layered device structure, the layered device structure comprising a plurality of electrodes (1, 5; 10, 14, 18) and an electronically active region being provided in electrical contact with at least one of the plurality of electrodes (1, 5; 10, 14, 18), said providing of the layered device structure comprising steps of - providing an organic semiconducting layer (3; 12, 16), - applying a structuring layer to the organic semiconducting layer (3; 12, 16), the structuring layer having a first region and a second region, the first region being covered by a layer material, - applying a contact improving layer (4; 13) at least in the first region by depositing an organic dopant material, - removing the structuring layer at least in the second region, and - structuring the contact improving layer, wherein removing the structuring layer comprises using a photo lithographic process, characterized in that the organic dopant material is soluble in Hydrofluorether, and the photo lithographic process is performed by using a fluorine based photo lithography. - providing a layered device structure, the layered device structure comprising a plurality of electrodes (1, 5; 10, 14, 18) and an electronically active region being provided in electrical contact with at least one of the plurality of electrodes (1, 5; 10, 14, 18), said providing of the layered device structure comprising steps of - providing an organic semiconducting layer (3; 12, 16), - applying a structuring layer to the organic semiconducting layer (3; 12, 16), the structuring layer having a first region and a second region, the first region being covered by a layer material, - applying a contact improving layer (4; 13) at least in the first region by depositing an organic dopant material, - removing the structuring layer at least in the second region, and - structuring the contact improving layer, - providing an organic semiconducting layer (3; 12, 16), - applying a structuring layer to the organic semiconducting layer (3; 12, 16), the structuring layer having a first region and a second region, the first region being covered by a layer material, - applying a contact improving layer (4; 13) at least in the first region by depositing an organic dopant material, - removing the structuring layer at least in the second region, and - structuring the contact improving layer,