mhurhangee/ep-ind-claims huggingface dataset:
Method of applying a sealing gasket assembly to a case for preserving and displaying objects in a protected environment, comprising: - providing said case with a box having a fixed abutment framework, a mobile panel able to close onto said fixed abutment framework through its own mobile abutment framework; - providing a support with a flat rear face and a front face with a central channel defined by two longitudinal heels; - applying the support with the rear face to one from the fixed framework and the mobile framework; - extruding an elastomeric material in paste state into the channel of the support to form a gasket; - closing the openable panel so as to shape the gasket into the thickness point by point necessary for the case; - allowing the shaped elastomeric material to solidify; - cutting away the solidified elastomeric material exceeding in width, so as to form the gasket. - providing said case with a box having a fixed abutment framework, a mobile panel able to close onto said fixed abutment framework through its own mobile abutment framework; - providing a support with a flat rear face and a front face with a central channel defined by two longitudinal heels; - applying the support with the rear face to one from the fixed framework and the mobile framework; - extruding an elastomeric material in paste state into the channel of the support to form a gasket; - closing the openable panel so as to shape the gasket into the thickness point by point necessary for the case; - allowing the shaped elastomeric material to solidify; - cutting away the solidified elastomeric material exceeding in width, so as to form the gasket.
Injection molding device for producing at least one tube head with a tube shoulder and a neck molded thereon with a squeezing-out opening with - a molding tool defining a molding cavity and - a nozzle cooperating with the molding tool with - a nozzle body and - a valve needle, movable in the nozzle body in a first direction that corresponds to the longitudinal axis of the tube head to be produced, with a valve needle stem and a terminal valve needle head, - at least a first annular space surrounding the valve needle that serves as a first flow channel for a first material component and - a nozzle opening that is closed by the valve needle head in a retracted position of the valve needle and that is released by the valve needle head in a moved forward position of the valve needle, characterized in that - an annular squeezing-out opening is formed in the moved forward position of the valve needle that correlates with an annular space of the molding tool serving as a casting opening and - a movable valve sleeve that surrounds the valve needle stem is provided, wherein a second annular space that serves as a second flow channel for a second material component exists between the valve needle stem and the valve sleeve. - a molding tool defining a molding cavity and - a nozzle cooperating with the molding tool with - a nozzle body and - a valve needle, movable in the nozzle body in a first direction that corresponds to the longitudinal axis of the tube head to be produced, with a valve needle stem and a terminal valve needle head, - at least a first annular space surrounding the valve needle that serves as a first flow channel for a first material component and - a nozzle opening that is closed by the valve needle head in a retracted position of the valve needle and that is released by the valve needle head in a moved forward position of the valve needle, characterized in that - a nozzle body and - a valve needle, movable in the nozzle body in a first direction that corresponds to the longitudinal axis of the tube head to be produced, with a valve needle stem and a terminal valve needle head, - at least a first annular space surrounding the valve needle that serves as a first flow channel for a first material component and - a nozzle opening that is closed by the valve needle head in a retracted position of the valve needle and that is released by the valve needle head in a moved forward position of the valve needle, - an annular squeezing-out opening is formed in the moved forward position of the valve needle that correlates with an annular space of the molding tool serving as a casting opening and - a movable valve sleeve that surrounds the valve needle stem is provided, wherein a second annular space that serves as a second flow channel for a second material component exists between the valve needle stem and the valve sleeve.
An organic electroluminescence device comprising: a light transmissive electrode, a light reflective electrode, and an organic luminescent layer disposed between said light transmissive electrode and said light reflective electrode, said organic luminescent layer including at least one light emissive layer that contains a light emitting material, characterized by a light transmissive substrate disposed on said light transmissive electrode away from said organic luminescent layer; and a light scattering region disposed on an outer surface of said light transmissive substrate, wherein at least one said light emissive layer of said organic luminescent layer has a luminescent point which is spaced from said light reflective electrode by a distance (d) defined by the following equation: nd = a × λ 4 2 + φ π wherein φ = tan -1 2 n 1 k 2 − n 2 k 1 n 1 2 − n 2 2 + k 1 2 − k 2 2 and wherein λ is a wavelength of a specific light emitted from said light emissive layer, n is a refractive index of a layer disposed between the luminescent point of the light emissive layer and the light reflective electrode, with respect to the wavelength of λ, n 1 and k 1 are respectively a refractive index and an attenuation coefficient of the layer disposed between the luminescent point of the light emissive layer and the light reflective electrode, and is in contact with said light reflective electrode, with respect to the wavelength of λ, n 2 and k 2 are respectively a refractive index and an attenuation coefficient of the light reflective electrode, with respect to the wavelength of λ, a is a value that satisfies a relation of "1.28<a<=-5.56*n org /n EML +7.74", wherein n org is a refractive index of the layer disposed which is located between the luminescent point of the light emissive layer and the light reflective electrode and which is in contact with the light emissive layer, with respect to the wavelength of λ, and n EML is a refractive index of the light emissive layer with respect to the wavelength of, and wherein the luminescent point is a point where the at least one said light emissive layer emits the light which has a highest luminescent intensity in the at least one said light emissive layer in a thickness direction of the at least one said light emissive layer. a light transmissive electrode, a light reflective electrode, and an organic luminescent layer disposed between said light transmissive electrode and said light reflective electrode, said organic luminescent layer including at least one light emissive layer that contains a light emitting material,
A surgical device comprising: a closure assembly including: a movement unit including: a bar that moves in a direction of a prescribed motion; a latch unit including: a latch plate including a hook latch that selectively receives the bar, and a stop that restricts movement of the movement unit relative to the hook latch; wherein the latch plate is movable in the direction of the prescribed motion between a lockable state where the hook latch is engageable by the bar of the movement unit, and an unlockable state where the bar does not reach the hook latch or the hook latch is moved out of alignment with the prescribed motion so that the hook latch is not engaged by the bar. a closure assembly including: a movement unit including: a bar that moves in a direction of a prescribed motion; a latch unit including: a latch plate including a hook latch that selectively receives the bar, and a stop that restricts movement of the movement unit relative to the hook latch; a movement unit including: a bar that moves in a direction of a prescribed motion; a latch unit including: a latch plate including a hook latch that selectively receives the bar, and a stop that restricts movement of the movement unit relative to the hook latch; a latch plate including a hook latch that selectively receives the bar, and a stop that restricts movement of the movement unit relative to the hook latch; wherein the latch plate is movable in the direction of the prescribed motion between a lockable state where the hook latch is engageable by the bar of the movement unit, and an unlockable state where the bar does not reach the hook latch or the hook latch is moved out of alignment with the prescribed motion so that the hook latch is not engaged by the bar.
A lighting device comprising: a substrate; a light source fixed relative to a front surface of the substrate with a gap therebetween; and a reflective sheet provided to cover the front surface of the substrate, the reflective sheet: including first and second portions (3a, 3b) that are separated with respect to each other and are arranged with respect to each other in a first direction along the front surface of the substrate, and being configured to expand and contract with heat; characterized in that the reflective sheet is configured such that a thermal expansion amount of the reflective sheet in the first direction is greater than a thermal expansion amount of the reflective sheet in a second direction that is along the front surface of the substrate and is perpendicular to the first direction; both the first and second portions (3a, 3b) extend into the gap between the light source and the front surface of the substrate as viewed from a perpendicular direction that is perpendicular to the front surface of the substrate; as viewed from the second direction, among both end portions (1c, 1c) of the light source in the first direction, one end portion in the first direction overlaps with the first portion of the reflective sheet, and the other end portion in the first direction overlaps with the second portion of the reflective sheet. a substrate; a light source fixed relative to a front surface of the substrate with a gap therebetween; and a reflective sheet provided to cover the front surface of the substrate, the reflective sheet: including first and second portions (3a, 3b) that are separated with respect to each other and are arranged with respect to each other in a first direction along the front surface of the substrate, and being configured to expand and contract with heat; including first and second portions (3a, 3b) that are separated with respect to each other and are arranged with respect to each other in a first direction along the front surface of the substrate, and being configured to expand and contract with heat; characterized in that the reflective sheet is configured such that a thermal expansion amount of the reflective sheet in the first direction is greater than a thermal expansion amount of the reflective sheet in a second direction that is along the front surface of the substrate and is perpendicular to the first direction; both the first and second portions (3a, 3b) extend into the gap between the light source and the front surface of the substrate as viewed from a perpendicular direction that is perpendicular to the front surface of the substrate; as viewed from the second direction, among both end portions (1c, 1c) of the light source in the first direction, one end portion in the first direction overlaps with the first portion of the reflective sheet, and the other end portion in the first direction overlaps with the second portion of the reflective sheet. one end portion in the first direction overlaps with the first portion of the reflective sheet, and the other end portion in the first direction overlaps with the second portion of the reflective sheet.
A compound semiconductor device having a transistor configuration comprising: a substrate; a buffer layer formed on the substrate; and an electron supplying layer containing AlGaN formed on the buffer layer; wherein the buffer layer comprises a first layer containing AlN and a second layer containing GaN; characterised in that the amount of Ga holes is within the range of 1×10 12 /cm 3 to 1×10 14 /cm 3 and the carbon concentration is within the range of 1×10 13 /cm 3 to 2×10 14 /cm 3 in the second layer, and in that the second layer, at least at one portion thereof, exhibits A/B ratio of 0.2 or less obtained by photoluminescence measurement, where "A" is the maximum yellow luminescence intensity value in the 500-600 nm band light emission wavelength, and "B" is the light-emission intensity at the GaN band-edge. a substrate; a buffer layer formed on the substrate; and an electron supplying layer containing AlGaN formed on the buffer layer; wherein the buffer layer comprises a first layer containing AlN and a second layer containing GaN; characterised in that the amount of Ga holes is within the range of 1×10 12 /cm 3 to 1×10 14 /cm 3 and the carbon concentration is within the range of 1×10 13 /cm 3 to 2×10 14 /cm 3 in the second layer, and in that the second layer, at least at one portion thereof, exhibits A/B ratio of 0.2 or less obtained by photoluminescence measurement, where "A" is the maximum yellow luminescence intensity value in the 500-600 nm band light emission wavelength, and "B" is the light-emission intensity at the GaN band-edge.
A control system for UAV incorporating autopilot, the control system comprising: a main processor; and a co-processor, wherein the main processor is configured to compute one or more motor control signals based on the desired body rate values; the control system being characterised in that: the co-processor is configured to compute the desired body rate values and to feed the desired body rate values to the main processor; and the main processor is configured to execute a rate damping loop algorithm to maintain stability of the UAV even in events of latency in the desired body rate values from the co-processor. a main processor; and a co-processor, wherein the main processor is configured to compute one or more motor control signals based on the desired body rate values; the control system being characterised in that: the co-processor is configured to compute the desired body rate values and to feed the desired body rate values to the main processor; and the main processor is configured to execute a rate damping loop algorithm to maintain stability of the UAV even in events of latency in the desired body rate values from the co-processor. the co-processor is configured to compute the desired body rate values and to feed the desired body rate values to the main processor; and the main processor is configured to execute a rate damping loop algorithm to maintain stability of the UAV even in events of latency in the desired body rate values from the co-processor.
A method for manufacturing a plurality of dental aligners or mouthguards from liquid photopolymer, the method comprising: providing digital representations defining layers of a plurality of dental aligners or mouthguards to be manufactured; sequentially exposing liquid photopolymer to light emitted by a visual display screen or a plurality of visual display screens, thereby forming layers of the plurality of cured polymer aligners or mouthguards simultaneously, wherein the photopolymer contains a visible light or UV light photoinitiator. providing digital representations defining layers of a plurality of dental aligners or mouthguards to be manufactured; sequentially exposing liquid photopolymer to light emitted by a visual display screen or a plurality of visual display screens, thereby forming layers of the plurality of cured polymer aligners or mouthguards simultaneously, wherein the photopolymer contains a visible light or UV light photoinitiator.
An X-ray generating device comprising: an X-ray tube; a drive circuit that drives the X-ray tube; a voltage generation circuit that generates an electron acceleration voltage applied to the X-ray tube; and a control unit that communicates with the drive circuit and the voltage generation circuit, wherein at least the X-ray tube, the drive circuit, and the voltage generation circuit are arranged inside a storage container filled with an insulating oil, wherein at least a part of a path connecting the drive circuit and the control unit is formed of an optical fiber cable arranged inside the storage container, wherein the optical fiber cable has a coating that suppresses fluctuation of the optical fiber cable due to a convective flow of the insulating oil generated at driving of the voltage generation circuit, characterized in that the coating is cured by, from a resin material containing a plasticizer, at least a part of the plasticizer being leaching out, and wherein the control unit is configured to facilitate leaching of the plasticizer by driving the voltage generation circuit to apply a voltage for a predetermined time to the optical fiber cable in a state of no X-ray being generated. wherein at least a part of a path connecting the drive circuit and the control unit is formed of an optical fiber cable arranged inside the storage container, wherein the optical fiber cable has a coating that suppresses fluctuation of the optical fiber cable due to a convective flow of the insulating oil generated at driving of the voltage generation circuit, characterized in that the coating is cured by, from a resin material containing a plasticizer, at least a part of the plasticizer being leaching out, and wherein the control unit is configured to facilitate leaching of the plasticizer by driving the voltage generation circuit to apply a voltage for a predetermined time to the optical fiber cable in a state of no X-ray being generated.
A method comprising: for a plurality of applications, at least one queue associated with a respective application of said plurality; receiving at a user equipment (102, 104, 105, 200) a scheduling grant for the at least one queue from a base station (106, 107); enabling quality of service information associated with the respective application of said plurality to be provided by the user equipment (102, 104, 105, 200) to the base station (106, 107) after receiving the scheduling grant for the at least one queue, the quality of service information comprising head of line delay information, the quality of service information associated with the respective application of said plurality being provided to a scheduler in the base station (106, 107). receiving at a user equipment (102, 104, 105, 200) a scheduling grant for the at least one queue from a base station (106, 107); enabling quality of service information associated with the respective application of said plurality to be provided by the user equipment (102, 104, 105, 200) to the base station (106, 107) after receiving the scheduling grant for the at least one queue, the quality of service information comprising head of line delay information, the quality of service information associated with the respective application of said plurality being provided to a scheduler in the base station (106, 107).
Forced-induction air intake manifold or collector for an internal combustion engine, comprising a heat exchanger of which the body has a parallelepipedal overall shape, which is mounted in the casing of said manifold and is intended to be exposed to the gas flow passing through said casing, said exchanger having or being secured to a support and fastening plate or crossmember, which is attached to or forms a face of the body of the exchanger and ensures rigid mounting of the exchanger in this casing, said exchanger being positioned in said casing with formation of an interstitial volume between them that substantially surrounds the body of said exchanger, and peripheral sealing means (6, 7) being attached to the body of the exchanger and to the support and fastening plate or crossmember so as to form a substantially continuous circumferential sealed barrier between these and the casing of the manifold, peripherally dividing the interstitial volume in two along a plane that is substantially perpendicular to the direction of circulation of the gas flow passing though said exchanger, the plane of subdivision of the interstitial volume being separate from the main plane of the support and fastening plate or crossmember, and advantageously being inclined and preferentially substantially perpendicular with respect to the main plane, which manifold is characterized in that the peripheral sealing means are constituted by two components that complement one another peripherally by butting together (6 and 7), which are connected to one another and are secured to the exchanger, these namely being a first component in the form of a U-shaped seal that is attached by premounting to the three faces (4', 4", 4'") of the body of the exchanger that are not associated with the support and fastening crossmember or plate, and a second component in the form of a substantially linear seal that is attached by premounting to the face that is associated with said crossmember or plate, said substantially linear seal being, at its two opposite longitudinal ends (7', 7"), butted-together with, and mechanically joined to, the free ends of the two legs (8, 8') of the U-shaped seal, in that the two seals (6 and 7) are joined together, in their two connection zones, by complementary joining means (10, 11) that cooperate with one another by mechanical engagement with interlocking, clipping or elastic locking, and in that the two seals (6 and 7) forming the two components of the peripheral sealing means are also mechanically connected to the support and fastening crossmember or plate.
A pultrusion apparatus comprising: a) a portion for receiving fibres, b) a portion for injecting resin into the fibres comprising a resin injection device, c) a portion for impregnating the resin injected fibres, and d) a portion for shaping the impregnated fibres; wherein the resin injection device is positioned centrally within the resin injection portion so that the fibres, following their passage through the receiving portion, converge in the resin injection portion to receive the resin, and the resin flows outwards from the point of injection into peripherally arranged fibres as the fibres progress from the injection portion through the impregnation portion; and characterized in that the impregnation portion reduces in cross-sectional area along its length extending to the shaping portion. a) a portion for receiving fibres, b) a portion for injecting resin into the fibres comprising a resin injection device, c) a portion for impregnating the resin injected fibres, and d) a portion for shaping the impregnated fibres;
Method for connecting conductor rails, adjoining at the end faces, of an overhead catenary system comprising connection pieces (4A, 4B) that are inserted into recesses in the conductor rails at the joints and are connected to the conductor rails, characterised in that the conductor rails to be interconnected are loosely fastened to predetermined support points at a predetermined height, after which the conductor rails suspended at their ends from the support points sag under their own weight, the conductor rails are then raised at predetermined points between the support points by a predetermined amount, and the conductor rails adjoining at the joints are rigidly connected to the connection pieces (4A, 4B) inserted into the recesses in the conductor rails.