mhurhangee/ep-ind-claims huggingface dataset:
A process for manufacturing a security device comprising a first color pattern that is visible along an associated viewing axis (Δα) and at least one second color pattern that is visible along an associated viewing axis (Δβ), such that it comprises the following steps: - assembling an image layer, able to form at least one color pattern (A, B) by laser etching, above a carrier, the image layer comprising a pixel matrix array, each pixel comprising a plurality of sub-pixels, each sub-pixel comprising an elementary color and being able to be selectively activated or deactivated by means of a laser, so as to express or hide said elementary color, the elementary colors being chosen from a color space, - laser etching in the image layer the first color pattern, along its associated viewing axis (Δα), in such a way that it may be seen through a lenticular array, - for each of said at least one second color pattern, laser etching in the image layer said at least one second color pattern, along its associated viewing axis (Δβ), in such a way that it may be seen through a lenticular array - assembling an image layer, able to form at least one color pattern (A, B) by laser etching, above a carrier, the image layer comprising a pixel matrix array, each pixel comprising a plurality of sub-pixels, each sub-pixel comprising an elementary color and being able to be selectively activated or deactivated by means of a laser, so as to express or hide said elementary color, the elementary colors being chosen from a color space, - laser etching in the image layer the first color pattern, along its associated viewing axis (Δα), in such a way that it may be seen through a lenticular array, - for each of said at least one second color pattern, laser etching in the image layer said at least one second color pattern, along its associated viewing axis (Δβ), in such a way that it may be seen through a lenticular array
A balloon catheter comprising: a balloon; an outer shaft adhered to a rear end of the balloon; an inner shaft (50, 50a) that is inserted into the outer shaft and that is adhered to a front end of the balloon; and a reinforcing member (70, 70a, 90) inserted between the outer shaft and the inner shaft (50, 50a), characterized in that the reinforcing member (70, 70a, 90) has a front end that is fixed by an adhesion part (80, 80a, 80b, 80c, 80d) of the outer shaft and the inner shaft (50, 50a). a balloon; an outer shaft adhered to a rear end of the balloon; an inner shaft (50, 50a) that is inserted into the outer shaft and that is adhered to a front end of the balloon; and a reinforcing member (70, 70a, 90) inserted between the outer shaft and the inner shaft (50, 50a), characterized in that the reinforcing member (70, 70a, 90) has a front end that is fixed by an adhesion part (80, 80a, 80b, 80c, 80d) of the outer shaft and the inner shaft (50, 50a).
A method for assembling a control arrangement of an exhaust-gas turbocharger, the method having the following method steps: providing a turbine housing, a valve disk and a spindle, wherein the spindle and the valve disk are separate components; mounting the spindle in the turbine housing; providing an outer lever and fastening the outer lever to the spindle; placing the valve disk onto a valve seat of a wastegate opening; the method being characterized by further comprising the following steps: pulling the outer lever in a closing direction of the valve disk to hold the valve disk firmly with sealing action against the valve seat; welding the valve disk to the spindle in this state. providing a turbine housing, a valve disk and a spindle, wherein the spindle and the valve disk are separate components; mounting the spindle in the turbine housing; providing an outer lever and fastening the outer lever to the spindle; placing the valve disk onto a valve seat of a wastegate opening; the method being characterized by further comprising the following steps: pulling the outer lever in a closing direction of the valve disk to hold the valve disk firmly with sealing action against the valve seat; welding the valve disk to the spindle in this state. pulling the outer lever in a closing direction of the valve disk to hold the valve disk firmly with sealing action against the valve seat; welding the valve disk to the spindle in this state.
A bending tool combination for the v-shaped prebending and subsequent hemming of a flat workpiece section, comprising a bending die and a bending punch, characterized in that the bending die is designed with a die section arranged centrally relative to a working plane of the bending die with a slot leading from a bearing surface into the interior of the bending die for partly receiving the bending punch during the hemming, and a hemming section with a hemming surface arranged laterally relative to the working plane, wherein the hemming surface is set back step-like relative to a bearing surface of the die section, whereby a stop surface is formed extending from the bearing surface to the hemming surface and the bending punch is designed with a punch section arranged centrally relative to the working plane of the bending punch and coming from a punch base surface, and a hemming section with a hemming surface arranged laterally to the latter, wherein the hemming section projects relative to the punch base surface in the direction of the punch tip, whereby the hemming surface projects step-like relative to the punch base surface and between the punch section and the hemming surface a groove-like recess is formed and wherein as measured in operating direction, a slot depth measured from the hemming surface of the bending die is greater than a punch length measured from the hemming surface of the bending punch up to the punch tip.
A wine decanter device comprising a funnel-shaped receptacle ending in lower position with a small tube with vertical axis and means housed inside the funnel-shaped receptacle adapted to break up and divert the vertical wine flow poured inside it; characterized in that said means housed inside the funnel-shaped receptacle consist of a plurality of small glass spheres adapted to create a turbulence in said vertical wine flow for suddenly increasing the oxygen exchange surface.
A method for gain control in a wireless receiver comprising a first receiver chain adapted to receive a first signal in a first frequency range, a second receiver chain adapted to receive a second signal in a second frequency range, wherein the first and second receiver chains each comprise a mixing module (3112, 3212) and a local oscillator module operatively connected to the mixing module; and a common amplifier module operatively connected to the first receiver chain and the second receiver chain, the method comprising: - determining a first target gain level for a first path comprising the common amplifier module and the first receiver chain; - determining a second target gain level for a second path comprising the common amplifier module and the second receiver chain; and - setting a gain GA of the common amplifier module and a gain GRx1 in the first receiver chain and a gain GRx2 in the second receiver chain based on the first target gain level and the second target gain level. - determining a first target gain level for a first path comprising the common amplifier module and the first receiver chain; - determining a second target gain level for a second path comprising the common amplifier module and the second receiver chain; and - setting a gain GA of the common amplifier module and a gain GRx1 in the first receiver chain and a gain GRx2 in the second receiver chain based on the first target gain level and the second target gain level.
A transonic airfoil (12x;12y) for operating in a flow region of a transonic or faster operating fluid, the transonic airfoil comprising: a hub located close to a connection position to a rotation shaft; a midportion located at a medium position in a radial direction which is a radial direction of the rotation shaft; a tip located farthest from the rotation shaft in the radial direction; a leading edge located on the upstream of the inflowing operating fluid; and a trailing edge located on the downstream of the operating fluid; characterized in that sectional profiles stacked in the radial direction of the airfoil (12x;12y) are continuously shifted in parallel to a first direction connecting the leading edge and the trailing edge, wherein the sectional profiles close to the tip and the sectional profiles between the midportion and the hub are shifted to the upstream of the first direction to form an S shape, and the shift amount of the sectional profiles close to the tip in the first direction is greater than the shift amount of the sectional profiles between the midportion and the hub in the first direction. a hub located close to a connection position to a rotation shaft; a midportion located at a medium position in a radial direction which is a radial direction of the rotation shaft; a tip located farthest from the rotation shaft in the radial direction; a leading edge located on the upstream of the inflowing operating fluid; and a trailing edge located on the downstream of the operating fluid; characterized in that sectional profiles stacked in the radial direction of the airfoil (12x;12y) are continuously shifted in parallel to a first direction connecting the leading edge and the trailing edge, wherein the sectional profiles close to the tip and the sectional profiles between the midportion and the hub are shifted to the upstream of the first direction to form an S shape, and the shift amount of the sectional profiles close to the tip in the first direction is greater than the shift amount of the sectional profiles between the midportion and the hub in the first direction.
A stator plate element for a conical mechanical refiner (100, 1200), the stator plate element comprising at least one stator plate segment having a stator plate segment refining area; characterized in that the stator plate element further comprises: a first attaching rail (450a, 450b) configured to couple to the at least one stator plate segment at a first edge portion (411a, 411b) of the at least one stator plate segment; and a second attaching rail (450c, 450d) configured to couple to the at least one stator plate segment at a second edge portion (411c, 411d) of the at least one stator plate segment opposite the first edge portion (411a, 411b), wherein the first attaching rail (450a, 450b) and the second attaching rail (450c, 450d) are configured to attach the at least one stator plate segment to a conical stator support frame of the conical mechanical refiner (100, 1200), and wherein a separation between the first attaching rail (450a, 450b) and the second attaching rail (450c, 450d) that is not covered by the at least one stator plate segment is configured to form at least one feedstock outlet opening. the stator plate element comprising at least one stator plate segment having a stator plate segment refining area; characterized in that the stator plate element further comprises: a first attaching rail (450a, 450b) configured to couple to the at least one stator plate segment at a first edge portion (411a, 411b) of the at least one stator plate segment; and a second attaching rail (450c, 450d) configured to couple to the at least one stator plate segment at a second edge portion (411c, 411d) of the at least one stator plate segment opposite the first edge portion (411a, 411b), wherein the first attaching rail (450a, 450b) and the second attaching rail (450c, 450d) are configured to attach the at least one stator plate segment to a conical stator support frame of the conical mechanical refiner (100, 1200), and wherein a separation between the first attaching rail (450a, 450b) and the second attaching rail (450c, 450d) that is not covered by the at least one stator plate segment is configured to form at least one feedstock outlet opening. a first attaching rail (450a, 450b) configured to couple to the at least one stator plate segment at a first edge portion (411a, 411b) of the at least one stator plate segment; and a second attaching rail (450c, 450d) configured to couple to the at least one stator plate segment at a second edge portion (411c, 411d) of the at least one stator plate segment opposite the first edge portion (411a, 411b), wherein the first attaching rail (450a, 450b) and the second attaching rail (450c, 450d) are configured to attach the at least one stator plate segment to a conical stator support frame of the conical mechanical refiner (100, 1200), and wherein a separation between the first attaching rail (450a, 450b) and the second attaching rail (450c, 450d) that is not covered by the at least one stator plate segment is configured to form at least one feedstock outlet opening.
A method for Polar code encoding, comprising: generating a first common frozen bit index set corresponding to a first Polar code group in m Polar code groups, wherein the m Polar code groups are obtained by dividing multiple polar codes with a same code length and different code rates into the m Polar code groups, each having a common frozen bit set, wherein Polar codes in the first Polar code group have a same code length and different rates, and m is greater than or equal to two; obtaining a frozen bit index set corresponding to a polar code in the first polar code group, from the first common frozen bit index set; and performing Polar code encoding of information to be encoded based on the frozen bit index set to generate the Polar code in the first Polar code group. generating a first common frozen bit index set corresponding to a first Polar code group in m Polar code groups, wherein the m Polar code groups are obtained by dividing multiple polar codes with a same code length and different code rates into the m Polar code groups, each having a common frozen bit set, wherein Polar codes in the first Polar code group have a same code length and different rates, and m is greater than or equal to two; obtaining a frozen bit index set corresponding to a polar code in the first polar code group, from the first common frozen bit index set; and Polar codes in the first Polar code group have a same code length and different rates, and m is greater than or equal to two; obtaining a frozen bit index set corresponding to a polar code in the first polar code group, from the first common frozen bit index set; and performing Polar code encoding of information to be encoded based on the frozen bit index set to generate the Polar code in the first Polar code group.
A device for generating high density illumination patterns, the device comprising: an array of light emitting elements on a common substrate, each light emitting element including a respective bottom reflector on a substrate side and a top reflector on another side of the light emitting element; a common electrical contact on a bottom substrate side of the light emitting elements; a first dielectric layer on the array of light emitting elements, the first dielectric layer covering the substrate and light emitting elements except for a top electrical contact region of each light emitting element; a first top conductor pattern on the first dielectric layer and contacting the respective top electrical contact regions of a first subset of the light emitting elements; a sequence of at least one additional dielectric layer and at least one additional top conductor pattern disposed such that the top electrical contact regions of respective subsets of light emitting elements are connected to a respective one of the at least one additional top conductor patterns; and electrical contact pads at a periphery of the array, wherein each of the first top conductor pattern and the additional top conductor patterns is electrically connected respectively to one or more of the electrical contact pads. an array of light emitting elements on a common substrate, each light emitting element including a respective bottom reflector on a substrate side and a top reflector on another side of the light emitting element; a common electrical contact on a bottom substrate side of the light emitting elements; a first dielectric layer on the array of light emitting elements, the first dielectric layer covering the substrate and light emitting elements except for a top electrical contact region of each light emitting element; a first top conductor pattern on the first dielectric layer and contacting the respective top electrical contact regions of a first subset of the light emitting elements; a sequence of at least one additional dielectric layer and at least one additional top conductor pattern disposed such that the top electrical contact regions of respective subsets of light emitting elements are connected to a respective one of the at least one additional top conductor patterns; and electrical contact pads at a periphery of the array, wherein each of the first top conductor pattern and the additional top conductor patterns is electrically connected respectively to one or more of the electrical contact pads.
A data processing method for a cartridge chip, wherein the cartridge chip comprises a primary storage area (310, 410, 510) and a backup storage area (320, 420, 520), and the data processing method comprises: determining (S10, S20, S30) whether a received instruction is a read instruction or a write instruction; characterized in that if the received instruction is a write instruction, writing (S11, S21, S31), according to an address comprised in the write instruction, data carried in the write instruction to a location to which the address points in the primary storage area, and determining (S15, S25, S36), according to a preset rule, whether data in the backup storage area needs to be updated. determining (S10, S20, S30) whether a received instruction is a read instruction or a write instruction; characterized in that if the received instruction is a write instruction, writing (S11, S21, S31), according to an address comprised in the write instruction, data carried in the write instruction to a location to which the address points in the primary storage area, and determining (S15, S25, S36), according to a preset rule, whether data in the backup storage area needs to be updated.
A tetrazolinone compound represented by formula: wherein R 10 represents a C1-C3 alkyl group optionally having one or more halogen atoms, a C2-C3 alkenyl group optionally having one or more halogen atoms, a C2-C3 alkynyl group optionally having one or more halogen atoms, or a C3-C5 cycloalkyl group optionally having one or more halogen atoms; and X represents an oxygen atom or a sulfur atom: Q is the following group Q4; R 2, R 4, R 5, R 7, R 8, R 9, and R 11 are hydrogen atoms; R 1 is a C1-C3 alkyl group optionally having one or more halogen atoms, or a halogen atom; R 3 is a hydrogen atom or a methyl group; R 6 is a C1-C3 alkyl group optionally having one or more halogen atoms, a C3-C4 cycloalkyl group, a halogen atom, or a C1-C3 alkoxy group optionally having one or more halogen atoms; and R 13, R 14, and R 15 each independently represents a C1-C3 alkyl group optionally having one or more halogen atoms, a halogen atom, a hydrogen atom, a C3-C4 cycloalkyl group optionally having one or more halogen atoms, a cyano group, or a C1-C3 alkoxy group optionally having one or more halogen atoms. R 10 represents a C1-C3 alkyl group optionally having one or more halogen atoms, a C2-C3 alkenyl group optionally having one or more halogen atoms, a C2-C3 alkynyl group optionally having one or more halogen atoms, or a C3-C5 cycloalkyl group optionally having one or more halogen atoms; and X represents an oxygen atom or a sulfur atom: Q is the following group Q4; R 2, R 4, R 5, R 7, R 8, R 9, and R 11 are hydrogen atoms; R 1 is a C1-C3 alkyl group optionally having one or more halogen atoms, or a halogen atom; R 3 is a hydrogen atom or a methyl group; R 6 is a C1-C3 alkyl group optionally having one or more halogen atoms, a C3-C4 cycloalkyl group, a halogen atom, or a C1-C3 alkoxy group optionally having one or more halogen atoms; and R 13, R 14, and R 15 each independently represents a C1-C3 alkyl group optionally having one or more halogen atoms, a halogen atom, a hydrogen atom, a C3-C4 cycloalkyl group optionally having one or more halogen atoms, a cyano group, or a C1-C3 alkoxy group optionally having one or more halogen atoms.
A gas turbine engine component (60A; 60B; 85; 185), comprising: a pedestal that traverses a flow channel (80; 197) disposed between a first wall (84; 184) and a second wall (88; 188); and said pedestal including at least one interior bore (102-A, 102-B) configured to communicate a cooling fluid inside of said pedestal; characterised in that said pedestal includes a body and a head, wherein the head extends transversely from said body. a pedestal that traverses a flow channel (80; 197) disposed between a first wall (84; 184) and a second wall (88; 188); and said pedestal including at least one interior bore (102-A, 102-B) configured to communicate a cooling fluid inside of said pedestal; characterised in that said pedestal includes a body and a head, wherein the head extends transversely from said body.
A method for producing an R-Fe-B based rare-earth sintered magnet, the method comprising the steps of: (a) providing an R-Fe-B based rare-earth sintered magnet body including, as a main phase, crystal grains of an R 2 Fe 14 B type compound that includes a light rare-earth element RL, which is at least one of Nd and Pr, as a major rare-earth element R; (b) arranging a bulk body including a heavy rare-earth element RH, which is at least one element selected from the group consisting of Dy, Ho and Tb, along with the R-Fe-B based rare-earth sintered magnet body in a processing chamber; and (c) heating the bulk body and the R-Fe-B based rare-earth sintered magnet body to a temperature of 700°C to 1,000°C, thereby diffusing the heavy rare-earth element RH into the R-Fe-B based rare-earth sintered magnet body while supplying the heavy rare-earth element RH from the bulk body to the surface of the R-Fe-B based rare-earth sintered magnet body, wherein the step (c) includes arranging the bulk body and the R-Fe-B based rare-earth sintered magnet body out of contact with each other in the processing chamber and setting an average gap between the two bodies within the range of 0.1 mm to 300 mm. (a) providing an R-Fe-B based rare-earth sintered magnet body including, as a main phase, crystal grains of an R 2 Fe 14 B type compound that includes a light rare-earth element RL, which is at least one of Nd and Pr, as a major rare-earth element R; (b) arranging a bulk body including a heavy rare-earth element RH, which is at least one element selected from the group consisting of Dy, Ho and Tb, along with the R-Fe-B based rare-earth sintered magnet body in a processing chamber; and (c) heating the bulk body and the R-Fe-B based rare-earth sintered magnet body to a temperature of 700°C to 1,000°C, thereby diffusing the heavy rare-earth element RH into the R-Fe-B based rare-earth sintered magnet body while supplying the heavy rare-earth element RH from the bulk body to the surface of the R-Fe-B based rare-earth sintered magnet body,
Lift-tilt device for a waste collection vehicle, comprising a pivot arm and a receptacle arranged thereon for waste containers, wherein the receptacle has a central part comprising a central comb and a central clamp for captively holding a waste container, and has a barrel support, wherein the receptacle has at least one side part having a clamping portion comprising a side comb and a side clamp for captively holding a waste container, and having a support portion comprising a barrel support, wherein the clamping portion and the support portion are hingedly connected to the central part such that the at least one side part (8,9) can be brought from a folded-out position, in which it widens the central part to receive wider waste containers, into a folded-in position.