mhurhangee/ep-ind-claims huggingface dataset:
Method for checking tyres, each tyre having an axial middle line plane defining respective axial halves of said tyre, the method comprising: simultaneously advancing, by pitches, the tyres along a check path and acquiring high-definition images of a surface of every tyre in a time corresponding to at least two times a cycle time, between successive pitches and in respective at least two check stations; wherein by "high-definition image" it is meant an image having a definition in every spatial direction relative to the image itself less than or equal to 0.05 mm; wherein acquiring high-definition images comprises: acquiring a plurality of high-definition three-dimensional images and a plurality of high-definition two-dimensional images of the surface of the tyre; combining together at least the high-definition three-dimensional images acquired in order to obtain at least one axial half of a complete three-dimensional image of said surface of the tyre; wherein provision is made for acquiring the high-definition three-dimensional images during a single cycle time in a single check station. simultaneously advancing, by pitches, the tyres along a check path and acquiring high-definition images of a surface of every tyre in a time corresponding to at least two times a cycle time, between successive pitches and in respective at least two check stations; wherein by "high-definition image" it is meant an image having a definition in every spatial direction relative to the image itself less than or equal to 0.05 mm; wherein acquiring high-definition images comprises: acquiring a plurality of high-definition three-dimensional images and a plurality of high-definition two-dimensional images of the surface of the tyre; combining together at least the high-definition three-dimensional images acquired in order to obtain at least one axial half of a complete three-dimensional image of said surface of the tyre; acquiring a plurality of high-definition three-dimensional images and a plurality of high-definition two-dimensional images of the surface of the tyre; combining together at least the high-definition three-dimensional images acquired in order to obtain at least one axial half of a complete three-dimensional image of said surface of the tyre; wherein provision is made for acquiring the high-definition three-dimensional images during a single cycle time in a single check station.
A compound represented by the following formula or a salt thereof. wherein, Ring A is cyclopentene or cyclohexene, Ring B is an optionally substituted benzene ring, R 1 and R 2 are independently a hydrogen atom or a substituent, or R 1 and R 2 may bond together to form an optionally substituted ring, W is CH 2, NH or O, and, R 3 is a C 1-6 alkoxy group optionally substituted by 1 to 3 C 3-10 cycloalkyl group(s) optionally substituted by 1 to 3 C 1-6 alkyl group(s). Ring A is cyclopentene or cyclohexene, Ring B is an optionally substituted benzene ring, R 1 and R 2 are independently a hydrogen atom or a substituent, or R 1 and R 2 may bond together to form an optionally substituted ring, W is CH 2, NH or O, and, R 3 is a C 1-6 alkoxy group optionally substituted by 1 to 3 C 3-10 cycloalkyl group(s) optionally substituted by 1 to 3 C 1-6 alkyl group(s).
A multifunctional protection device for a nuclear power plant piping, which comprise: an inner pressure-bearing layer sleeved on the periphery of a piping and used for positioning and fixing the piping; a buffer layer, an absorption layer and an outer pressure-bearing layer are sequentially connected from inside to outside by taking the inner pressure-bearing layer as a center; the buffer layer comprises a plurality of hollow tube bundle layers, and the plurality of hollow tube bundle layers are connected around the inner pressure-bearing layer to form the buffer layer; the absorption layer comprises a plurality of multi-gap portions which are arranged in a staggered manner, and each multi-gap portion is provided with a plurality of absorption layer pores; the outer pressure-bearing layer is arranged on the outermost layer of the multifunctional protection device of nuclear power plant piping and is used for providing rigid support and preventing the piping from leaking. an inner pressure-bearing layer sleeved on the periphery of a piping and used for positioning and fixing the piping; a buffer layer, an absorption layer and an outer pressure-bearing layer are sequentially connected from inside to outside by taking the inner pressure-bearing layer as a center; the buffer layer comprises a plurality of hollow tube bundle layers, and the plurality of hollow tube bundle layers are connected around the inner pressure-bearing layer to form the buffer layer; the absorption layer comprises a plurality of multi-gap portions which are arranged in a staggered manner, and each multi-gap portion is provided with a plurality of absorption layer pores; the outer pressure-bearing layer is arranged on the outermost layer of the multifunctional protection device of nuclear power plant piping and is used for providing rigid support and preventing the piping from leaking.
A tunable optical frequency comb generator, comprising: an optical resonator which exhibits optical nonlinearity and is configured to be a whispering gallery mode resonator supporting optical whispering gallery modes; a laser that is tunable and produces laser light; an optical coupler that couples the laser light into the optical resonator to cause generation of an optical frequency comb signal of periodic different frequencies based on nonlinear wave mixing in the optical resonator, wherein frequencies of the optical frequency comb signal are tunable by tuning the frequency of the laser, and wherein a comb spacing of the optical frequency comb signal is adjustable by locking the laser to the optical resonator and controlling a locking condition of the laser; an atomic reference device that includes atoms or molecules providing an atomic or molecular transition as a frequency reference; and a locking circuit that locks at least one of the optical resonator or the laser in frequency relative to the atomic or molecular transition of the atomic reference device to stabilize the optical comb signal of periodic different frequencies. an optical resonator which exhibits optical nonlinearity and is configured to be a whispering gallery mode resonator supporting optical whispering gallery modes; a laser that is tunable and produces laser light; an optical coupler that couples the laser light into the optical resonator to cause generation of an optical frequency comb signal of periodic different frequencies based on nonlinear wave mixing in the optical resonator, wherein frequencies of the optical frequency comb signal are tunable by tuning the frequency of the laser, and wherein a comb spacing of the optical frequency comb signal is adjustable by locking the laser to the optical resonator and controlling a locking condition of the laser; an atomic reference device that includes atoms or molecules providing an atomic or molecular transition as a frequency reference; and a locking circuit that locks at least one of the optical resonator or the laser in frequency relative to the atomic or molecular transition of the atomic reference device to stabilize the optical comb signal of periodic different frequencies.
An apparatus for detecting false fingerprints, comprising: - an optical element having a detection surface on which at least one body is intended to be positioned, of which cutaneous imprints are intended to be detected, - an illuminator configured to generate bright zones and dark zones on said detection surface, - an optical sensor having a surface arranged to capture light radiation reflected and diffused by said detection surface, - a processing unit that receives signals coming from said optical sensor indicative of the light intensity on the surface of the optical sensor, wherein the processing unit is configured to detect on the surface of the optical sensor bright zones (BZ') and dark zones (DZ') corresponding to said bright zones and to said dark zones of said detection surface, and wherein the processing unit is configured to compare the average light intensity in said bright zones (BZ') and the average light intensity in said dark zones (DZ') of the optical sensor with respective predetermined reference ranges (L1, L2) corresponding to average brightness of real fingers previously detected, and wherein the processing unit is configured to recognize a true cutaneous imprint when the average light intensity in said bright zones (BZ') and the average light intensity in said dark zones (DZ') of the optical sensor are contained within respective predetermined reference ranges (L1, L2). - an optical element having a detection surface on which at least one body is intended to be positioned, of which cutaneous imprints are intended to be detected, - an illuminator configured to generate bright zones and dark zones on said detection surface, - an optical sensor having a surface arranged to capture light radiation reflected and diffused by said detection surface, - a processing unit that receives signals coming from said optical sensor indicative of the light intensity on the surface of the optical sensor, wherein the processing unit is configured to detect on the surface of the optical sensor bright zones (BZ') and dark zones (DZ') corresponding to said bright zones and to said dark zones of said detection surface, and wherein the processing unit is configured to compare the average light intensity in said bright zones (BZ') and the average light intensity in said dark zones (DZ') of the optical sensor with respective predetermined reference ranges (L1, L2) corresponding to average brightness of real fingers previously detected, and wherein the processing unit is configured to recognize a true cutaneous imprint when the average light intensity in said bright zones (BZ') and the average light intensity in said dark zones (DZ') of the optical sensor are contained within respective predetermined reference ranges (L1, L2).
Wearable sitting posture assisting device, comprising at least one leg unit featuring at least one knee joint and featuring at least one locking unit for the knee joint; comprising at least one second leg unit featuring at least one second knee joint and featuring at least one second locking unit; and comprising at least one actuation unit (14a; 14f; 14g; 14h; 14i; 14j) featuring at least one manually operable actuation element (16a; 16g; 16h; 16i; 16j) for mechanically controlling the locking unit and/or the second locking unit, characterized in that the actuation unit comprises at least one transmission unit, which transmission unit is configured for at least partly transmitting an actuation force from the actuation element to the locking unit and/or to the second locking unit and which transmission unit is at least partly implemented as a Bowden cable.
A molten steel level detecting apparatus for a mould of a conticaster, comprising a sensor (101; 201), a signal wire and a signal processor, wherein there is one transmitting coil (p1; p2), one receiving coil (s1; s2) and one bucking coil (c1; c2) in the sensor (101; 201), said three coils are embedded in each other, the bucking coil (c1; c2) and the transmitting coil (p1; p2) are arranged coaxially, characterized in that the receiving coil (s1; s2) is provided outside the coaxially arranged transmitting coil (p1; p2) and bucking coil (c1; c2), and in that the axes of the receiving coil (s1; s2) and the transmitting coil (p1; p2) are perpendicular to each other.
A method for determining an actual volume V r of an injection-moldable compound during an injection molding process, wherein the injection-moldable compound is introduced into at least one cavity of a mold, having the steps: a) determining a theoretical volume V t from process variables at least during a filling phase of the injection molding process, b) determining and/or measuring at least one value for at least one compound pressure p M, characterized by the steps c) selecting a material-specific compression k(p), corresponding to the value of p M of the injection-moldable compound, and d) calculating an actual volume V r by taking into account the compression k(p). a) determining a theoretical volume V t from process variables at least during a filling phase of the injection molding process, b) determining and/or measuring at least one value for at least one compound pressure p M, characterized by the steps c) selecting a material-specific compression k(p), corresponding to the value of p M of the injection-moldable compound, and d) calculating an actual volume V r by taking into account the compression k(p).
Method of stiffening the membrane of an acoustic transducer, comprising the successive method steps of: applying a stiffening mesh to the front side and/or reverse side of the membrane of an acoustic transducer, coating the membrane with the stiffening mesh applied with at least two synthetic resins, wherein a polyester resin layer is applied and cured in a first stage, which is then coated and bonded with an epoxy resin in the second stage, and applying an acrylic coating to the front side and/or reverse side of the membrane. applying a stiffening mesh to the front side and/or reverse side of the membrane of an acoustic transducer, coating the membrane with the stiffening mesh applied with at least two synthetic resins, wherein a polyester resin layer is applied and cured in a first stage, which is then coated and bonded with an epoxy resin in the second stage, and applying an acrylic coating to the front side and/or reverse side of the membrane.
A printing method for forming a conductive line on a plastic substrate for use in an automobile, comprising: fixing the plastic substrate in a fixture of an automatic printing machine; dispensing a conductive mixture to an inkjet print head of the automatic printing machine, the inkjet print head being coupled to the fixture and configured for printing on the plastic substrate; and controlling the inkjet print head of the automatic printing machine with a computer controller under automatic controls and printing the conductive mixture onto the plastic substrate with the inkjet print head while the plastic substrate is fixed in the fixture to form the conductive line; wherein the conductive line is a busbar (22, 24), a grid line, or an antenna line in the automobile; wherein the conductive mixture comprises a conductive paste; a solvent; and an adhesion agent. fixing the plastic substrate in a fixture of an automatic printing machine; dispensing a conductive mixture to an inkjet print head of the automatic printing machine, the inkjet print head being coupled to the fixture and configured for printing on the plastic substrate; and controlling the inkjet print head of the automatic printing machine with a computer controller under automatic controls and printing the conductive mixture onto the plastic substrate with the inkjet print head while the plastic substrate is fixed in the fixture to form the conductive line; wherein the conductive line is a busbar (22, 24), a grid line, or an antenna line in the automobile; wherein the conductive mixture comprises a conductive paste; a solvent; and an adhesion agent.
An ethylenically unsaturated aminocarboxylate monomer having the following general Structure I: wherein X 1, X 2 and X 3 are each, independently, hydrogen or a mono- or polyvalent cation and the total charge on the monomer is zero; R 1 is an -OH group, and R 2 is a polymerizable arm comprising a vinyl group and derived from one or more ethylenically unsaturated monomers.
A lip cosmetic comprising the following ingredients (a), (b), (c), (d), and (e): (a) polyglyceryl-10 (behenate/eicosadioate); (b) a polyol; (c) water; (d) an ester oil composed of a carboxylic acid having 2 to 36 carbon atoms and an alcohol having 1 to 36 carbon atoms and being in a liquid or paste form at ordinary temperature, and having a hydroxyl group value of 5 or more; and (e) glyceryl (behenate/eicosadioate); Wherein: the content of ingredient (a) is 1 to 16% by mass; the content of ingredient (b) is 18 to 40% by mass; the content of ingredient (c) is 0.1 to 10% by mass; the content of ingredient (d) is 34 to 70% by mass; the content of ingredient(e) is 0.5 to 7% by mass; based on the total mass of the lip cosmetic; and wherein the mass ratio ((a + b + c):(d + e)) of the total mass (a + b + c) of the ingredients (a), (b), and (c) and the total mass (d + e) of the ingredients (d) and (e) is 8:2 to 3:7. (a) polyglyceryl-10 (behenate/eicosadioate); (b) a polyol; (c) water; (d) an ester oil composed of a carboxylic acid having 2 to 36 carbon atoms and an alcohol having 1 to 36 carbon atoms and being in a liquid or paste form at ordinary temperature, and having a hydroxyl group value of 5 or more; and (e) glyceryl (behenate/eicosadioate); the content of ingredient (a) is 1 to 16% by mass; the content of ingredient (b) is 18 to 40% by mass; the content of ingredient (c) is 0.1 to 10% by mass; the content of ingredient (d) is 34 to 70% by mass; the content of ingredient(e) is 0.5 to 7% by mass; based on the total mass of the lip cosmetic; and wherein the mass ratio ((a + b + c):(d + e)) of the total mass (a + b + c) of the ingredients (a), (b), and (c) and the total mass (d + e) of the ingredients (d) and (e) is 8:2 to 3:7.
A nozzle, comprising: a nozzle main body having a fuel passage; a cover ring arranged at an outside of a front end-outer peripheral portion of the nozzle main body at a predetermined interval to form an inner air passage for injecting air toward a front side of the nozzle main body; fuel injection nozzles (81;91;96), characterised in that the fuel injection nozzles (81; 91; 96) are formed so as to penetrate nozzle tips (80;90;95) attached to a front end portion of the cover ring at a predetermined interval in a circumferential direction and to communicate with the fuel passage; and in that a swirling force application unit (82,92,97) is provided at an outlet of the inner air passage so as to apply a swirling force to air injected through the inner air passage. a nozzle main body having a fuel passage; a cover ring arranged at an outside of a front end-outer peripheral portion of the nozzle main body at a predetermined interval to form an inner air passage for injecting air toward a front side of the nozzle main body; fuel injection nozzles (81;91;96), characterised in that the fuel injection nozzles (81; 91; 96) are formed so as to penetrate nozzle tips (80;90;95) attached to a front end portion of the cover ring at a predetermined interval in a circumferential direction and to communicate with the fuel passage; and in that a swirling force application unit (82,92,97) is provided at an outlet of the inner air passage so as to apply a swirling force to air injected through the inner air passage.
Scanning unit for scanning a scale element that can be rotated relative to the scanning unit about an axis, wherein the scanning unit comprises a metal frame (1.1) and a printed circuit board (1.2), wherein - the printed circuit board (1.2) has a substrate (1.21) which has a first surface (1.211), a second surface (1.212) opposite the first surface (1.211) and a circumferential third surface (1.213), wherein a transducer assembly (1.23) is arranged on the first surface (1.211) and electronic components (1.22) are mounted on the second surface (1.212), and the third surface (1.213) has a plurality of concave indentations (1.214), wherein - the metal frame (1.1) has a continuous first aperture (1.11), which is delimited radially by an inner side of the metal frame (1.1), wherein the inner side has a plurality of inwardly projecting elements (1.12), wherein the inner side of the metal frame (1.1) encloses the indentations (1.214) of the substrate (1.21), and the inwardly projecting elements (1.12) engage in the concave indentations (1.214) in such a way that the substrate (1.21) is fixed in the metal frame (1.1) under mechanical tension. - the printed circuit board (1.2) has a substrate (1.21) which has a first surface (1.211), a second surface (1.212) opposite the first surface (1.211) and a circumferential third surface (1.213), wherein a transducer assembly (1.23) is arranged on the first surface (1.211) and electronic components (1.22) are mounted on the second surface (1.212), and the third surface (1.213) has a plurality of concave indentations (1.214), wherein a second surface (1.212) opposite the first surface (1.211) and a circumferential third surface (1.213), wherein a transducer assembly (1.23) is arranged on the first surface (1.211) and electronic components (1.22) are mounted on the second surface (1.212), and the third surface (1.213) has a plurality of concave indentations (1.214), wherein - the metal frame (1.1) has a continuous first aperture (1.11), which is delimited radially by an inner side of the metal frame (1.1), wherein the inner side has a plurality of inwardly projecting elements (1.12), wherein the inner side of the metal frame (1.1) encloses the indentations (1.214) of the substrate (1.21), and the inwardly projecting elements (1.12) engage in the concave indentations (1.214) in such a way that the substrate (1.21) is fixed in the metal frame (1.1) under mechanical tension.
Device for changing a filtering and/or separating-off element accommodated by the device, wherein the device forms a constituent part of a wall (14, 16) between a first, inner region and a second, outer region, wherein the device has a cylindrical, or essentially cylindrical, enveloping contour and can be rotated about an axis of rotation, and wherein, by means of the device or of the wall (14, 16) being rotated about the axis of rotation, a filtering and/or separating-off element, which has its outer surface directed towards the outer region, can be rotated into the inner region, and vice versa.