mhurhangee/patent-ind-claim-en huggingface dataset:
An image decoding method performed by a decoding apparatus, the method comprising: deriving a top-left region from a current block, the current block having a first width and a first height, the top-left region having a second width and a second height; deriving a last significant coefficient position within the top-left region using last significant coefficient position information signaled from a bitstream; and deriving residual samples using the last significant coefficient position, wherein the last significant coefficient position information includes last significant coefficient prefix information, wherein the last significant coefficient prefix information includes x-axis prefix information and y-axis prefix information, characterized in that a context increment for the x-axis prefix information is derived using the first width of the current block, a context increment for the y-axis prefix information is derived using the first height of the current block, a maximum value of the x-axis prefix information is derived using the second width of the top-left region, and a maximum value of the y-axis prefix information is derived using the second height of the top-left region. deriving a top-left region from a current block, the current block having a first width and a first height, the top-left region having a second width and a second height; deriving a last significant coefficient position within the top-left region using last significant coefficient position information signaled from a bitstream; and deriving residual samples using the last significant coefficient position, wherein the last significant coefficient position information includes last significant coefficient prefix information, wherein the last significant coefficient prefix information includes x-axis prefix information and y-axis prefix information, characterized in that a context increment for the x-axis prefix information is derived using the first width of the current block, a context increment for the y-axis prefix information is derived using the first height of the current block, a maximum value of the x-axis prefix information is derived using the second width of the top-left region, and a maximum value of the y-axis prefix information is derived using the second height of the top-left region.
A valve block for a backflushing and teat dip applicator system, the valve block comprising: a housing defining a chamber ; a plurality of inlets into the chamber ; a plurality of valves , and each valve is movable to open or close a corresponding inlet to the chamber ; a common outlet from the chamber ; and a spool disposed in the chamber for movement between a milking position and a backflushing position. a housing defining a chamber ; a plurality of inlets into the chamber ; a plurality of valves , and each valve is movable to open or close a corresponding inlet to the chamber ; a common outlet from the chamber ; and a spool disposed in the chamber for movement between a milking position and a backflushing position.
A cutting tool comprising: a main body having an outer peripheral surface with one end and the other end ; and a cutter fixed to the main body , the main body being provided with a hole extending in a direction from a region surrounded by the one end toward a region surrounded by the other end , when viewed from the above direction, the shape of the opening of the hole is circular, the hole being provided inner than the outer peripheral surface , the cutter having a member disposed inside the hole , the main body being provided with a recess in communication with the hole , characterised in that , when viewed from a radial direction, the main body having a projection member covering a part of the recess . a main body having an outer peripheral surface with one end and the other end ; and a cutter fixed to the main body , the main body being provided with a hole extending in a direction from a region surrounded by the one end toward a region surrounded by the other end , when viewed from the above direction, the shape of the opening of the hole is circular, the hole being provided inner than the outer peripheral surface , the cutter having a member disposed inside the hole , the main body being provided with a recess in communication with the hole , characterised in that , when viewed from a radial direction, the main body having a projection member covering a part of the recess . the main body being provided with a recess in communication with the hole , characterised in that , when viewed from a radial direction, the main body having a projection member covering a part of the recess .
Processing machine for the layered production of three-dimensional components by irradiating a powder bed , comprising: a process chamber having a carrier plate for applying the powder bed , an irradiation device that has at least three scanner devices (8a-c) which are each designed to two-dimensionally deflect a laser beam (3a-c) onto one of three overlapping powder bed regions (9a-c) of the powder bed , wherein the first and preferably the second scanner device are arranged at a first distance (A1) from a processing plane (BE) of the processing machine , wherein the third scanner device is arranged at a second distance from the processing plane (BE), which second distance is different from the first distance (A2), wherein the three scanner devices (8a-c) for two-dimensionally deflecting the three laser beams (3a-c) each comprise a first scanner mirror (11a-c) having a first rotary drive (13a-c) for rotating the first scanner mirror (11a-c) about a first axis of rotation (D1a-c) and a second rotary drive (14a-c) for rotating a second scanner mirror (12a-c) about a second axis of rotation (D2a-c), wherein the axis of rotation (D2a) of the second scanner mirror of the first scanner device and the axis of rotation (D2b) of the second scanner mirror of the second scanner device are aligned in parallel with one another, and wherein the axis of rotation (D2c) of the second scanner mirror of the third scanner device is aligned perpendicularly to the axes of rotation (D2a, D2b) of the second scanner mirror of the first and the second scanner devices . a process chamber having a carrier plate for applying the powder bed , an irradiation device that has at least three scanner devices (8a-c) which are each designed to two-dimensionally deflect a laser beam (3a-c) onto one of three overlapping powder bed regions (9a-c) of the powder bed , wherein the first and preferably the second scanner device are arranged at a first distance (A1) from a processing plane (BE) of the processing machine , wherein the third scanner device is arranged at a second distance from the processing plane (BE), which second distance is different from the first distance (A2), wherein the three scanner devices (8a-c) for two-dimensionally deflecting the three laser beams (3a-c) each comprise a first scanner mirror (11a-c) having a first rotary drive (13a-c) for rotating the first scanner mirror (11a-c) about a first axis of rotation (D1a-c) and a second rotary drive (14a-c) for rotating a second scanner mirror (12a-c) about a second axis of rotation (D2a-c), wherein the axis of rotation (D2a) of the second scanner mirror of the first scanner device and the axis of rotation (D2b) of the second scanner mirror of the second scanner device are aligned in parallel with one another, and wherein the axis of rotation (D2c) of the second scanner mirror of the third scanner device is aligned perpendicularly to the axes of rotation (D2a, D2b) of the second scanner mirror of the first and the second scanner devices .
Cleaning device for the manual cleaning of a target surface, having a textile cleaning element which can be fitted over a carrier and/or which is fitted over the carrier and which has a cleaning portion that occupies at least a part of the outer surface of the cleaning element and that is composed of a knitted fabric having a ground stitch structure formed from a ground thread , characterized in that the cleaning portion comprises a first thread , which is in the form of a micro thread or supermicro thread and forms first loops which project beyond the stitch structure , and a second thread , which has a stronger abrasive action than the first thread and forms second loops which project beyond the first loops formed from the first thread .
Use of at least one cyclophane in a plastic scintillator, comprising a polymer matrix, as an agent for discriminating between neutrons and gamma rays.
Image sensor comprising: • an optical system for receiving an optical signal, the optical system comprising a pupil , • a Bayer matrix located on the image focal plane of the optical system and upstream from a photodetector , the Bayer matrix comprising: a reference optical filter (B1) configured to eliminate or attenuate in the received optical signal a first band of wavelengths and to allow through in the received optical signal a second band of wavelengths, and moreover eight optical filters (B2, B3) adjacent to the reference optical filter (B1), the image sensor being characterised in that it further comprises • a phase mask arranged on the pupil and configured to project at least 98% of the energy of the optical signal carried in the first band of wavelengths and 98% of the energy of the optical signal carried in the second band of wavelengths selectively on the reference optical filter (B1) and on at least one adjacent optical filter (B2) which is configured to allow through in the received optical signal the first band of wavelengths. • an optical system for receiving an optical signal, the optical system comprising a pupil , • a Bayer matrix located on the image focal plane of the optical system and upstream from a photodetector , the Bayer matrix comprising: a reference optical filter (B1) configured to eliminate or attenuate in the received optical signal a first band of wavelengths and to allow through in the received optical signal a second band of wavelengths, and moreover eight optical filters (B2, B3) adjacent to the reference optical filter (B1), the image sensor being characterised in that it further comprises • a phase mask arranged on the pupil and configured to project at least 98% of the energy of the optical signal carried in the first band of wavelengths and 98% of the energy of the optical signal carried in the second band of wavelengths selectively on the reference optical filter (B1) and on at least one adjacent optical filter (B2) which is configured to allow through in the received optical signal the first band of wavelengths.
A process for producing treated filler comprising: (a) treating a slurry comprising untreated filler wherein said untreated filler has not been previously dried, with a treating composition comprising a treating agent, thereby forming a treated filler slurry; and (b) drying said treated filler slurry to produce treated filler, wherein said treating agent comprises a polymer comprising (i) at least one first group that interacts with said untreated filler and (ii) at least one second group that interacts with a rubber matrix into which said treated filler is incorporated, wherein said untreated filler is chosen from aluminum silicate, silica gel, colloidal silica, precipitated silica, and mixtures thereof; the at least one first group is selected from an ester, carboxylic acid, imide, anhydride, diacid, lactone, oxirane, isocyanate, hydrolysis products thereof, salts thereof, or combinations thereof; and the at least one second group is selected from formyl, keto, thiol, sulfido, halo, amino, alkenyl, alkynyl, alkyl, hydroxyl, anhydride, oxirane, hydrolysis products thereof, salts thereof, or combinations thereof. (a) treating a slurry comprising untreated filler wherein said untreated filler has not been previously dried, with a treating composition comprising a treating agent, thereby forming a treated filler slurry; and (b) drying said treated filler slurry to produce treated filler, wherein said treating agent comprises a polymer comprising (i) at least one first group that interacts with said untreated filler and (ii) at least one second group that interacts with a rubber matrix into which said treated filler is incorporated, wherein said untreated filler is chosen from aluminum silicate, silica gel, colloidal silica, precipitated silica, and mixtures thereof; the at least one first group is selected from an ester, carboxylic acid, imide, anhydride, diacid, lactone, oxirane, isocyanate, hydrolysis products thereof, salts thereof, or combinations thereof; and the at least one second group is selected from formyl, keto, thiol, sulfido, halo, amino, alkenyl, alkynyl, alkyl, hydroxyl, anhydride, oxirane, hydrolysis products thereof, salts thereof, or combinations thereof. wherein said treating agent comprises a polymer comprising (i) at least one first group that interacts with said untreated filler and (ii) at least one second group that interacts with a rubber matrix into which said treated filler is incorporated, wherein said untreated filler is chosen from aluminum silicate, silica gel, colloidal silica, precipitated silica, and mixtures thereof; the at least one first group is selected from an ester, carboxylic acid, imide, anhydride, diacid, lactone, oxirane, isocyanate, hydrolysis products thereof, salts thereof, or combinations thereof; and the at least one second group is selected from formyl, keto, thiol, sulfido, halo, amino, alkenyl, alkynyl, alkyl, hydroxyl, anhydride, oxirane, hydrolysis products thereof, salts thereof, or combinations thereof.
Rotating electrical machine, for example an alternator, comprising a rotor and a stator provided with a winding and notches receiving the winding, the winding having a number of phases Nphi, Nphi being greater than or equal to 5 and being odd and not divisible by 3, said rotor comprising north (N) and south (S) poles formed alternately in a direction of rotation of the rotor, said rotor having an angular pole pitch (theta) equal to 2n divided by 2P, P being the number of pairs of poles of the rotor; and said rotor comprising: - a rotor coil allowing a magnetic flux to be generated upon the passage of an electrical current; and - a pair of pole wheels composed of: - a cylindrical portion on which said rotor coil is wound; - plates extending radially outwards from the first and second end portions of said cylindrical portion ; and - a plurality of claw-shaped magnetic poles extending axially from said plates so as to cover said rotor coil , said claw-shaped magnetic poles being magnetized with said north and south poles (N, S), said stator surrounding said rotor and an air gap being defined as being the minimum distance between the stator and the rotor in which each claw-shaped magnetic pole comprises a first outer surface which faces said notches, said first outer surface has an angular aperture in a cutting plane of one of the claw-shaped poles, said maximum angular aperture (Obe) for all of the cutting planes of one of the claw-shaped poles is equal to Obe = K x theta, with K lying between 0.4 and 0.8, the cutting plane being defined as being at right angles to the axis of the machine, said angular aperture being defined as the maximum angle between two straight lines each passing through said axis of the machine and through a point of the central outer surface, said two straight lines being contained in said cutting plane. - a rotor coil allowing a magnetic flux to be generated upon the passage of an electrical current; and - a pair of pole wheels composed of: - a cylindrical portion on which said rotor coil is wound; - plates extending radially outwards from the first and second end portions of said cylindrical portion ; and - a plurality of claw-shaped magnetic poles extending axially from said plates so as to cover said rotor coil , said claw-shaped magnetic poles being magnetized with said north and south poles (N, S),
A method for verifying a recording comprising the steps of: a) Creating the recording using a first electronic device ; b) Generating, using the first electronic device , an electronic recording file , the electronic recording file comprising information based on the recording and one or more further pieces of data associated with the recording , wherein the electronic recording file comprises a cryptographic hash function based on the recording ; c) Sending, using the first electronic device , the electronic recording file to a certification server ; d) Generating, using the certification server , a pair of certification requests based on at least a portion of the information in the electronic recording file , wherein a first of the pair of certification requests being based on the cryptographic hash function, and a second of the pair of certification requests being based on the cryptographic hash function in combination with the one or more further pieces of information associated with the recording , and sending the pair of certification requests to a blockchain ; e) Receiving, with the certification server , confirmation of the approval of the pair of certification requests by the blockchain , and sending, from the certification server , the confirmation of the approval to the first electronic device ; and f) Generating and/or displaying a verification confirmation on the first electronic device . a) Creating the recording using a first electronic device ; b) Generating, using the first electronic device , an electronic recording file , the electronic recording file comprising information based on the recording and one or more further pieces of data associated with the recording , wherein the electronic recording file comprises a cryptographic hash function based on the recording ; c) Sending, using the first electronic device , the electronic recording file to a certification server ; d) Generating, using the certification server , a pair of certification requests based on at least a portion of the information in the electronic recording file , wherein a first of the pair of certification requests being based on the cryptographic hash function, and a second of the pair of certification requests being based on the cryptographic hash function in combination with the one or more further pieces of information associated with the recording , and sending the pair of certification requests to a blockchain ; e) Receiving, with the certification server , confirmation of the approval of the pair of certification requests by the blockchain , and sending, from the certification server , the confirmation of the approval to the first electronic device ; and f) Generating and/or displaying a verification confirmation on the first electronic device .
A laser engraver comprising a laser and a camera and a plate for holding a product to be engraved, the plate comprising a reference grid , wherein an optical path of the laser is directed to the plate and an optical path of the camera is directed to the plate and the optical path of the camera to the plate and the optical path of the laser to the plate are at least partially the same before and when hitting the plate , a calibration system with a controller , and a comparator , wherein the controller is set up to use the reference grid of the plate to calibrate the camera , and wherein the laser engraver is characterized in that the controller is set up to have the laser engrave a predefined pattern on a product on the plate and to have the camera to capture the position of this engraved pattern and the controller is set up to have the comparator to compare the predefined position of the engraved pattern and the position according to the camera and to determine a difference between these two positions, wherein the controller is set up to use this difference to calibrate the laser .
A compound of formula (II): wherein A and B are independently from each other selected from the group comprising CH or N, X and Y are independently from each other selected from the group comprising NH, O or S, Z is selected from the group comprising C=O, C=S or CHOH, Q is selected from the group comprising five or six membered aromatic or heteroaromatic systems, R 1 is selected from the group comprising H, alkyl, branched or unbranched, and R 2 is selected from the group comprising H, alkyl residues, OH, an ester, a carbamate, alkoxy, alkoxy or an ester or a carbamate substituted with a group comprising amino, alkylamino, cyclic alkylamino, cyclic diaminoalkyl (such as piperazinyl or 1-methylpiperazinyl), heterocyclic alkylamino as morpholinyl; 2-hydroxysuccinic acid, an amino acid, and pharmaceutically acceptable salts or solvates thereof. A and B are independently from each other selected from the group comprising CH or N, X and Y are independently from each other selected from the group comprising NH, O or S, Z is selected from the group comprising C=O, C=S or CHOH, Q is selected from the group comprising five or six membered aromatic or heteroaromatic systems, R 1 is selected from the group comprising H, alkyl, branched or unbranched, and R 2 is selected from the group comprising H, alkyl residues, OH, an ester, a carbamate, alkoxy, alkoxy or an ester or a carbamate substituted with a group comprising amino, alkylamino, cyclic alkylamino, cyclic diaminoalkyl (such as piperazinyl or 1-methylpiperazinyl), heterocyclic alkylamino as morpholinyl; 2-hydroxysuccinic acid, an amino acid, and pharmaceutically acceptable salts or solvates thereof.
A compound represented by the formula 2 wherein R 2 is H, or when R 3 is H, then R 2 is CHR 5 CHR 6 CHO, CR 5 =CR 6 CHO or C(CH 3 )CHO, wherein R 5 , R 6 each independently may represent H or methyl; R 3 is H, or when R 2 is H, then R 3 is CHR 5 CHR 6 CHO, CR 5 =CR 6 CHO or C(CH 3 )CHO, wherein R 5 , R 6 each independently may represent H or methyl; and R 4 is isobutyl or isoamyl. R 2 is H, or when R 3 is H, then R 2 is CHR 5 CHR 6 CHO, CR 5 =CR 6 CHO or C(CH 3 )CHO, wherein R 5 , R 6 each independently may represent H or methyl; R 3 is H, or when R 2 is H, then R 3 is CHR 5 CHR 6 CHO, CR 5 =CR 6 CHO or C(CH 3 )CHO, wherein R 5 , R 6 each independently may represent H or methyl; and R 4 is isobutyl or isoamyl.
A method of analysing starch concentration in a liquid sample, comprising conducting a sample from a stream of liquid, adding iodine solution to the sample , measuring a light absorbance or transmittance of the sample after the step of adding the iodine solution, converting the measured absorbance or transmittance of the sample into the starch concentration of the sample by means of a predefined correlation between a starch concentration and a light absorbance or transmittance, characterized by eliminating the influence of unreacted iodine on the measured light absorbance or transmittance in the starch concentration analysis by measuring the light absorbance or transmittance of the sample only at a wavelength longer than about 700 nanometers.