mhurhangee/ep-ind-claims huggingface dataset:
A circuit board inspection method of inspecting wiring patterns (P1, P2, P3, P4) on a circuit board with a built-in electronic component by using a circuit board inspection apparatus configured to perform electrical inspection of the wiring patterns (P1, P2, P3, P4) formed on the circuit board and a circuit board inspection tool (32, 42) comprising a plurality of contactors (35a, 35b, 35c) for electrically connecting the circuit board and the circuit board inspection apparatus, said circuit board inspection method comprising the steps of: grounding a wiring pattern electrically connected to the electronic component of the circuit board via a contactor of the plurality of contactors of the circuit board inspection tool (32, 42), wherein an amount of projection of the contactor is formed to be greater than an amount of projection of the other contactors (35a, 35b) of the plurality of contactors; setting all wiring patterns (P1, P3, P4) other than the grounded wiring pattern of the wiring patterns (P1, P2, P3, P4) formed on the circuit board in conductive contact with the circuit board inspection apparatus via the other contactors (35a, 35b) of the circuit board inspection tool (32,42); and transmitting and receiving an electrical signal from the circuit board inspection apparatus, to and from the circuit board via the circuit board inspection tool, thereby performing the electrical inspection of the circuit board. grounding a wiring pattern electrically connected to the electronic component of the circuit board via a contactor of the plurality of contactors of the circuit board inspection tool (32, 42), wherein an amount of projection of the contactor is formed to be greater than an amount of projection of the other contactors (35a, 35b) of the plurality of contactors; setting all wiring patterns (P1, P3, P4) other than the grounded wiring pattern of the wiring patterns (P1, P2, P3, P4) formed on the circuit board in conductive contact with the circuit board inspection apparatus via the other contactors (35a, 35b) of the circuit board inspection tool (32,42); and transmitting and receiving an electrical signal from the circuit board inspection apparatus, to and from the circuit board via the circuit board inspection tool, thereby performing the electrical inspection of the circuit board.
A lateral electrostatic discharge protection device, comprising: a semiconductor substrate of a first conductivity type and first doping level; a semiconductor layer overlying the substrate, and of the first conductivity type and a second doping level and having an outer surface spaced a first distance from the substrate; emitter and collector regions of a second, opposite, conductivity type, located within said semiconductor layer and laterally spaced apart by a second distance, and having third doping level greater than the second doping level; a well region of the first conductivity type in but not extending through the semiconductor layer and having a doping level higher than the second doping level but less than or equal to the third doping level, and extending laterally from the emitter region toward but separated from the collector region by a third distance; characterised in that it comprises a buried layer of the second conductivity type and a doping level higher than the third doping level Ohmically coupled to and located beneath the emitter region, and in that it does not comprise a further buried layer of the second conductivity type Ohmically coupled to the collector region. a semiconductor substrate of a first conductivity type and first doping level; a semiconductor layer overlying the substrate, and of the first conductivity type and a second doping level and having an outer surface spaced a first distance from the substrate; emitter and collector regions of a second, opposite, conductivity type, located within said semiconductor layer and laterally spaced apart by a second distance, and having third doping level greater than the second doping level; a well region of the first conductivity type in but not extending through the semiconductor layer and having a doping level higher than the second doping level but less than or equal to the third doping level, and extending laterally from the emitter region toward but separated from the collector region by a third distance; a buried layer of the second conductivity type and a doping level higher than the third doping level Ohmically coupled to and located beneath the emitter region, and in that it does not comprise a further buried layer of the second conductivity type Ohmically coupled to the collector region.
Clasp for a watch bracelet or strap or a belt including a cover connected on a first side to a first bracelet strand or belt strand and to a second bracelet strand or belt strand on a second side, with the insertion of a folding system between the second bracelet strand or belt strand and the cover of the clasp, wherein said folding system includes a first link and a second links (12, 14), the first link is hinged by a first end to the second bracelet strand or belt strand and by a second end to the second link, the second link is hinged in turn to the cover of the clasp, the folding system is moveable between a first position in which the first and second links (12, 14) are superposed on each other inside the cover of the clasp, and a second position in which the first and second links (12, 14) are unfolded, the first link including first and second elastic locking points (22, 24) for fixing the first link in the cover of the clasp, said clasp being characterized in that, in the first position of the folding system, the first link is held folded down on the second link, the first elastic locking point being located on the side of the second end of the first link by which the first link is articulated to the second link, and the second elastic locking point is located on the side of the first end of the first link by which the first link is articulated to the second bracelet strand..
A method for producing a test element for detecting at least one analyte in a body fluid, the test element having at least one test chemical adapted to perform at least one detection reaction in the presence of the analyte, the method comprising the following steps: a) a transport step, wherein a continuous substrate tape is provided, the continuous substrate tape being transported in a transport direction parallel to a direction of extension of the continuous substrate tape; b) an adhesive application step, wherein at least one continuous adhesive strip is applied to the continuous substrate tape, by using a liquid adhesive, the continuous adhesive strip being oriented parallel to the transport direction, wherein the liquid adhesive is provided in a liquid form, such as in the form of a solution, an emulsion and/or a dispersion, wherein the liquid adhesive comprises one or more solvents; c) a cover element application step, wherein at least one cover element is applied to the continuous adhesive strip, thereby securing the cover element to the continuous substrate tape; and d) an individualization step, wherein the continuous substrate tape is individualized into single test elements characterised in that the adhesive application step uses a slot coating process, and in that the method further comprises at least one drying step, wherein the continuous adhesive strip is partially dried in the drying step, wherein the at least one drying step is performed before the cover element application step, wherein the at least one liquid adhesive is not fully cured or dried during the at least one drying step. a) a transport step, wherein a continuous substrate tape is provided, the continuous substrate tape being transported in a transport direction parallel to a direction of extension of the continuous substrate tape; b) an adhesive application step, wherein at least one continuous adhesive strip is applied to the continuous substrate tape, by using a liquid adhesive, the continuous adhesive strip being oriented parallel to the transport direction, wherein the liquid adhesive is provided in a liquid form, such as in the form of a solution, an emulsion and/or a dispersion, wherein the liquid adhesive comprises one or more solvents; c) a cover element application step, wherein at least one cover element is applied to the continuous adhesive strip, thereby securing the cover element to the continuous substrate tape; and d) an individualization step, wherein the continuous substrate tape is individualized into single test elements characterised in that the adhesive application step uses a slot coating process,
A method for generating a target perspective model referenced for depth map generation, comprising: receiving a first input image; utilizing a region-based analysis unit for analyzing a plurality of regions in the first input image to extract image characteristics of the regions; and determining the target perspective model according to at least the image characteristics characterized in that analyzing the regions in the first input image comprises: performing edge detection upon each region; and counting edges detected in each region to set an image characteristic of each region, and determining the target perspective model according to at least the image characteristics comprises: selecting a specific region with a specific image characteristic from the regions of the first input image, wherein the specific image characteristic is the largest count number of detected edges; and referring to at least the specific region to determine the target perspective model by setting a feature point according to the selected region, wherein the feature point has a smallest depth value which represents the farthest distance in the depth map. receiving a first input image; utilizing a region-based analysis unit for analyzing a plurality of regions in the first input image to extract image characteristics of the regions; and determining the target perspective model according to at least the image characteristics characterized in that analyzing the regions in the first input image comprises: performing edge detection upon each region; and counting edges detected in each region to set an image characteristic of each region, and performing edge detection upon each region; and counting edges detected in each region to set an image characteristic of each region, and determining the target perspective model according to at least the image characteristics comprises: selecting a specific region with a specific image characteristic from the regions of the first input image, wherein the specific image characteristic is the largest count number of detected edges; and referring to at least the specific region to determine the target perspective model by setting a feature point according to the selected region, wherein the feature point has a smallest depth value which represents the farthest distance in the depth map. selecting a specific region with a specific image characteristic from the regions of the first input image, wherein the specific image characteristic is the largest count number of detected edges; and referring to at least the specific region to determine the target perspective model by setting a feature point according to the selected region, wherein the feature point has a smallest depth value which represents the farthest distance in the depth map.
A fiber optic module comprising: a housing having a first major surface and an opposite second major surface, and a circumferential edge connecting the first major surface to the second major surface, the housing defining an interior between the first and second major surfaces (208,210); an input (96/214) configured to receive at least one module input fiber; at least one connectorized output pigtail (28/206) routed from the housing, the at least one output pigtail (28/206) being configured to carry a signal from the at least one module input fiber entering the housing via the input (96/214); and at least one connector storage feature, disposed on the first major surface of the housing, the at least one connector storage feature being configured to receive and store the at least one connectorized output pigtail (28/206) on the first major surface. a housing having a first major surface and an opposite second major surface, and a circumferential edge connecting the first major surface to the second major surface, the housing defining an interior between the first and second major surfaces (208,210); an input (96/214) configured to receive at least one module input fiber; at least one connectorized output pigtail (28/206) routed from the housing, the at least one output pigtail (28/206) being configured to carry a signal from the at least one module input fiber entering the housing via the input (96/214); and at least one connector storage feature, disposed on the first major surface of the housing, the at least one connector storage feature being configured to receive and store the at least one connectorized output pigtail (28/206) on the first major surface.
A device for collection of hot gas from an electrolysis process producing metals in a cell, comprising a collection cap located above a gas evolving area, where the collection cap is connected to a gas evacuating system that generates suction flow, characterised in that the gas collection cap has at least two inlets (11, 12; 15, 16) for the gas to be collected where one first inner inlet (12; 16) is surrounded by a second inlet (11; 15).
A method for the production of a hindered phenolic alkyl ester compound comprising: a) reacting methyl acrylate with an alkylphenol compound in the presence of a first catalyst to form a methyl ester intermediate compound, b) reacting an alcohol having at least 2 carbon atoms with the methyl ester intermediate compound in the presence of a second catalyst to form the hindered phenolic alkyl ester compound, c) neutralizing any catalyst residue with an aqueous phosphoric acid to form a precipitated salt, and d) separating the precipitated salt from the hindered phenolic alkyl ester compound. a) reacting methyl acrylate with an alkylphenol compound in the presence of a first catalyst to form a methyl ester intermediate compound, b) reacting an alcohol having at least 2 carbon atoms with the methyl ester intermediate compound in the presence of a second catalyst to form the hindered phenolic alkyl ester compound, c) neutralizing any catalyst residue with an aqueous phosphoric acid to form a precipitated salt, and d) separating the precipitated salt from the hindered phenolic alkyl ester compound.
A distributor apparatus adapted for positioning individual pieces of a length of growth medium cut into pieces of suitable size into a propagation tray, characterised in that the distributor apparatus comprising: - a plurality of distributor units configured to move between a loading position and an unloading position; each distributor unit comprising an open-ended channel or cavity adapted for receiving a whole number of growth medium pieces; wherein the distributor units, in a loading position, are positioned relatively to each other such that their open-ended channels or cavities are disposed in continuation to each other to form a receiving unit with an open-ended channel or cavity adapted for receiving a single length of growth medium pieces; and wherein the distributor units, when in an unloading position, are rotated, relative to their loading position, such that their open-ended channels or cavities are disposed parallel relative to each other. - a plurality of distributor units configured to move between a loading position and an unloading position; each distributor unit comprising an open-ended channel or cavity adapted for receiving a whole number of growth medium pieces; wherein the distributor units, in a loading position, are positioned relatively to each other such that their open-ended channels or cavities are disposed in continuation to each other to form a receiving unit with an open-ended channel or cavity adapted for receiving a single length of growth medium pieces; and wherein the distributor units, when in an unloading position, are rotated, relative to their loading position, such that their open-ended channels or cavities are disposed parallel relative to each other.
A method for operating a power supply circuit of a communications device, the method comprising: operating the power supply circuit in a first operating mode in which a switching frequency of the power supply circuit is higher than an operating frequency band of the communications device; and switching the power supply circuit to operate in a second operating mode in response to connecting the power supply circuit to a battery, wherein switching the power supply circuit to operate in the second operating mode comprises decreasing the switching frequency of the power supply circuit. operating the power supply circuit in a first operating mode in which a switching frequency of the power supply circuit is higher than an operating frequency band of the communications device; and switching the power supply circuit to operate in a second operating mode in response to connecting the power supply circuit to a battery, wherein switching the power supply circuit to operate in the second operating mode comprises decreasing the switching frequency of the power supply circuit.
A conveyor of the type with articulated links for transporting products, in a working zone, plant or industrial machine; wherein each link of the conveyor comprises a portion defining the product supporting surface, and a portion, defining corresponding means for articulation to the adjacent links; the respective product supporting portion comprising a first and a second plurality of protrusions (30, 20) extending longitudinally towards opposite and adjacent links, the protrusions being separated from each other by corresponding longitudinal gaps, or indentations, (21, 31) designed to receive the corresponding protrusions of the opposite and adjacent links; wherein the first plurality of protrusions, or links, which face towards a respective adjacent link, in particular opposite, comprise a respective central protrusion and respective and opposite first and second lateral protrusions; and wherein between the central protrusion and each of the respective lateral protrusions (34, 34), there are corresponding first intermediate protrusions (36, 36), respectively outer, and wherein the second plurality of protrusions, which are directed towards a respective adjacent link, comprise a first and a second central protrusion (22, 22) and a first and a second end protrusion (24, 24) at the opposite lateral ends of the link; wherein between each of the first and second central protrusions (22, 22) and the respective lateral protrusions (24, 24) there are first intermediate protrusions (26, 26), respectively outer; and characterized in that: - in the first plurality of protrusions, between the central protrusion and each of the respective lateral protrusions (34, 34), there are corresponding second intermediate protrusions (38, 38), respectively inner; - in the second plurality of protrusions, between each of the first and second central protrusions (22, 22) and the respective lateral protrusions, there are second intermediate protrusions (28, 28), respectively inner; - the ratio between the width of the product supporting portion of the link to the diameter of a housing which receives a lock stud of an articulation pin and which is formed perpendicularly in an articulation end, or core is greater than 7.25. - in the first plurality of protrusions, between the central protrusion and each of the respective lateral protrusions (34, 34), there are corresponding second intermediate protrusions (38, 38), respectively inner; - in the second plurality of protrusions, between each of the first and second central protrusions (22, 22) and the respective lateral protrusions, there are second intermediate protrusions (28, 28), respectively inner; - the ratio between the width of the product supporting portion of the link to the diameter of a housing which receives a lock stud of an articulation pin and which is formed perpendicularly in an articulation end, or core is greater than 7.25.
A process implemented on a computing device for producing one or more predicted target sparkle values of a target coating composition, said process comprising the steps of: obtaining training data of a plurality of training coatings, said training data comprise measured color characteristics, measured sparkle values and an individual training coating formulation associated with each of the training coatings; training an artificial neural network with said training data to produce a trained artificial neural network that is capable of producing a predicted sparkle value based on a coating formulation and color characteristics associated with said coating formulation, wherein said trained artificial neural network is trained based on said measured color characteristics, said measured sparkle values and said individual training coating formulation associated with each of the training coatings; producing the predicted target sparkle values from said trained artificial neural network based on the target coating formulation and target color characteristics associated with said target coating formulation; and outputting said predicted target sparkle values to an output device. obtaining training data of a plurality of training coatings, said training data comprise measured color characteristics, measured sparkle values and an individual training coating formulation associated with each of the training coatings; training an artificial neural network with said training data to produce a trained artificial neural network that is capable of producing a predicted sparkle value based on a coating formulation and color characteristics associated with said coating formulation, wherein said trained artificial neural network is trained based on said measured color characteristics, said measured sparkle values and said individual training coating formulation associated with each of the training coatings; producing the predicted target sparkle values from said trained artificial neural network based on the target coating formulation and target color characteristics associated with said target coating formulation; and outputting said predicted target sparkle values to an output device.
Method for processing video pictures for display on a display device having at least a first kind of luminous elements with a first time response and a second kind of luminous elements with a second time response being slower than the first time response and wherein frames for said first kind of luminous elements are superposed by a fixed ratio of anterior frames characterized by driving said luminous element of said first kind in one frame with a first part of energy and in a following frame with a second part of energy, wherein - the sum of the first and second part of energy corresponds to the total energy provided for one frame for said luminous element and - said luminous element of the second kind is driven in said one frame with total energy provided for one frame for said luminous element of the second kind, so that - energy is emitted from said luminous elements of said first and second kind in said following frame. - the sum of the first and second part of energy corresponds to the total energy provided for one frame for said luminous element and - said luminous element of the second kind is driven in said one frame with total energy provided for one frame for said luminous element of the second kind, so that - energy is emitted from said luminous elements of said first and second kind in said following frame.