mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a composite molded body in which a metal molded body and a resin molded body are joined, the method comprising the steps of: continuously irradiating a joint surface of the metal molded body with laser light at an irradiation speed of 2,000 mm/sec or more by using a continuous-wave laser; and arranging, within a mold, a portion of the metal molded body including the joint surface irradiated with the laser light in the preceding step and performing injection molding of a resin forming the resin molded body. continuously irradiating a joint surface of the metal molded body with laser light at an irradiation speed of 2,000 mm/sec or more by using a continuous-wave laser; and arranging, within a mold, a portion of the metal molded body including the joint surface irradiated with the laser light in the preceding step and performing injection molding of a resin forming the resin molded body.
An exposure function entity configured to process to: receive a request for Non-IP Data Delivery, NIDD, including downlink non-IP data from a server; buffer the downlink non-IP data; and buffer additional downlink non-IP data and purge downlink non-IP data buffered in the exposure function entity having the same Attribute ID as the additional downlink non-IP data, without sending a request for NIDD including the additional downlink non-IP data toward a control device before a terminal (40; 42) becomes reachable or is about to become reachable, if receiving an additional request for NIDD including the additional downlink non-IP data from the server while already buffering downlink non-IP data, the exposure function entity is a Service Capability Exposure Function, SCEF, entity; the server is a Service Capability Server / Application Server, SCS/AS, (34, 32); and the control device is a Mobility Management Entity, MME, or a Serving General Packet Radio Service, GPRS Support Node, SGSN,. receive a request for Non-IP Data Delivery, NIDD, including downlink non-IP data from a server; buffer the downlink non-IP data; and buffer additional downlink non-IP data and purge downlink non-IP data buffered in the exposure function entity having the same Attribute ID as the additional downlink non-IP data, without sending a request for NIDD including the additional downlink non-IP data toward a control device before a terminal (40; 42) becomes reachable or is about to become reachable, if receiving an additional request for NIDD including the additional downlink non-IP data from the server while already buffering downlink non-IP data, the exposure function entity is a Service Capability Exposure Function, SCEF, entity; the server is a Service Capability Server / Application Server, SCS/AS, (34, 32); and the control device is a Mobility Management Entity, MME, or a Serving General Packet Radio Service, GPRS Support Node, SGSN,.
A method for manufacturing a light emitting device package, comprising the steps of: mounting a light emitting device having an electrode pad (301, 302) formed on at least one of the top and bottom of the light emitting device on a substrate with a conductive pad formed thereon; forming a light transmitting material film for surrounding the conductive pad and the light emitting device while exposing a portion of each of the conductive pad and the electrode pad formed on the at least one of the top and bottom of the light emitting device by etching; and forming a conductive line formed along a surface of the light transmitting material film from the exposed portion of the conductive pad to the exposed portion of the electrode pad of the light emitting device, wherein the light transmitting material film is formed by coating a light transmitting material on the conductive pad and the light emitting device to form a film and selectively removing the film to expose a portion of each of the conductive pad and the electrode pad formed on the top of the light emitting device, characterized in that: the light transmitting material film is made of a photosensitive substance through which light can be transmitted, the substrate is a conductive substrate, and an insulation film is further interposed between the conductive pad and the conductive substrate, wherein the film is formed by means of a spray coating method. wherein the film is formed by means of a spray coating method. mounting a light emitting device having an electrode pad (301, 302) formed on at least one of the top and bottom of the light emitting device on a substrate with a conductive pad formed thereon; forming a light transmitting material film for surrounding the conductive pad and the light emitting device while exposing a portion of each of the conductive pad and the electrode pad formed on the at least one of the top and bottom of the light emitting device by etching; and forming a conductive line formed along a surface of the light transmitting material film from the exposed portion of the conductive pad to the exposed portion of the electrode pad of the light emitting device, wherein the light transmitting material film is formed by coating a light transmitting material on the conductive pad and the light emitting device to form a film and selectively removing the film to expose a portion of each of the conductive pad and the electrode pad formed on the top of the light emitting device, the light transmitting material film is made of a photosensitive substance through which light can be transmitted, the substrate is a conductive substrate, and an insulation film is further interposed between the conductive pad and the conductive substrate, wherein the film is formed by means of a spray coating method. wherein the film is formed by means of a spray coating method.
A lubrication system for a gas turbine engine comprising: a primary fluid tank to receive a primary fluid; a plurality of secondary fluid tanks to receive at least one fluid additive, wherein each secondary fluid tank (64a, 64b, 64c) includes a different fluid additive; and a mixer having at least a first inlet in fluid communication with the primary fluid tank and a second inlet in fluid communication with at least one secondary fluid tank, and including at least one outlet configured to deliver a mixture of the primary fluid and the at least one fluid additive to a gas turbine engine component, and wherein the mixer includes an additional fluid inlet (70, 78, 80) for each additional secondary fluid tank (64a, 64b, 64c); and one or more valves associated with supply lines that connect each secondary fluid tank (64a, 64b, 64c) to the mixer. a primary fluid tank to receive a primary fluid; a plurality of secondary fluid tanks to receive at least one fluid additive, wherein each secondary fluid tank (64a, 64b, 64c) includes a different fluid additive; and a mixer having at least a first inlet in fluid communication with the primary fluid tank and a second inlet in fluid communication with at least one secondary fluid tank, and including at least one outlet configured to deliver a mixture of the primary fluid and the at least one fluid additive to a gas turbine engine component, and wherein the mixer includes an additional fluid inlet (70, 78, 80) for each additional secondary fluid tank (64a, 64b, 64c); and one or more valves associated with supply lines that connect each secondary fluid tank (64a, 64b, 64c) to the mixer.
A process for producing mesophase pitch from high-temperature coal tar, comprising: removing salts and quinoline insoluble fraction from a high-temperature coal tar to obtain a decant oil; obtaining a hydrogenation feedstock from the decant oil by pre-distilling the decant oil to obtain a residue with a boiling point higher than 230°C, and mixing the residue with formulated oil to obtain the hydrogenation feedstock, wherein the formulated oil comprises one or more components selected from the group consisting of distillation fractions of coal tar and the hydrogenated product of the distillation fractions of coal tar; and then catalytic hydrorefining the hydrogenation feedstock to obtain a hydrofined oil; distilling the hydrofined oil to obtain hydrogenated pitch and a hydrogenated high boiling point solvent with a boiling spread of 300-360°C and a hydrogenated distillation fraction with a boiling spread of 80-300°C; subjecting the hydrogenated pitch to thermal polymerization to obtain the mesophase pitch, wherein a part of the hydrogenated high boiling point solvent obtained from the step is used in at least one of the following steps: as solvent in addition to deionized water in the step of removing salts in the step; as solvent in addition to an aliphatic solvent in the step of removing the quinoline insoluble fraction in the step; as component for said formulated oil in the preparation of the hydrogenation feedstock in the step. removing salts and quinoline insoluble fraction from a high-temperature coal tar to obtain a decant oil; obtaining a hydrogenation feedstock from the decant oil by pre-distilling the decant oil to obtain a residue with a boiling point higher than 230°C, and mixing the residue with formulated oil to obtain the hydrogenation feedstock, wherein the formulated oil comprises one or more components selected from the group consisting of distillation fractions of coal tar and the hydrogenated product of the distillation fractions of coal tar; and then catalytic hydrorefining the hydrogenation feedstock to obtain a hydrofined oil; distilling the hydrofined oil to obtain hydrogenated pitch and a hydrogenated high boiling point solvent with a boiling spread of 300-360°C and a hydrogenated distillation fraction with a boiling spread of 80-300°C; subjecting the hydrogenated pitch to thermal polymerization to obtain the mesophase pitch, wherein a part of the hydrogenated high boiling point solvent obtained from the step is used in at least one of the following steps: as solvent in addition to deionized water in the step of removing salts in the step; as solvent in addition to an aliphatic solvent in the step of removing the quinoline insoluble fraction in the step; as component for said formulated oil in the preparation of the hydrogenation feedstock in the step.
A printable medium comprising: a. a composite supporting substrate comprising: i. a first fabric layer; and ii. a second layer, containing fibers, laminated to the first layer, b. an image receiving layer coated on the second layer; c. and an external layer, coated over the image receiving layer, characterised in that the external layer comprises, at least, two polymeric networks and polymeric particles, the two polymeric networks are substantially not reactive with each other and are, at least, partially interlaced on a polymer scale but not covalently bonded to each other, and the external layer comprises a first polymeric network that is created by using a self-cross linked polyurethane polymer, and a second polymeric network that is created by using cross-linkable polyglycidyl or polyoxirane resins, or the external layer comprises a first polymeric network that is created by using vinyl-urethane hybrid copolymer or acrylic-urethane hybrid polymer, and a second polymeric network that is created by using water-based epoxy resin and water-based polyamine. a. a composite supporting substrate comprising: i. a first fabric layer; and ii. a second layer, containing fibers, laminated to the first layer, i. a first fabric layer; and ii. a second layer, containing fibers, laminated to the first layer, b. an image receiving layer coated on the second layer; c. and an external layer, coated over the image receiving layer,
A rounding machine for manufacturing pieces of tubing comprising a pair of clamping rollers and a feed roll with which adjusting means (22, 24) are associated for selecting the relative position of the feed roll in relation to clamping rollers (4, 6) of the pair of clamping rollers, the pair of clamping rollers and the feed roll being supported at their free ends at bearing blocks (12, 16, 18), wherein the distance between them in the direction of the longitudinal axis of the pair of clamping rollers can be varied, wherein the pair of clamping rollers and the feed roll are operatively connected to a drive, characterized in that one of the clamping rollers is supported at one of its ends at a transversely movable bearing block which can be moved transverse to the longitudinal axis of the pair of clamping rollers such that the one of the clamping rollers can be moved from an operating position for bending the piece of tubing to a removal position in which a piece of tubing positioned on the one of the clamping rollers can be pulled off the one of the clamping rollers in the axial direction.
A transmission apparatus, comprising: a video encoder section that generates a video stream including video data; a subtitle encoder section that generates a subtitle stream including bitmap data, the bitmap data being obtained by converting subtitle graphics data; and a transmission section that transmits a container having a predetermined format containing the video stream and the subtitle stream, the subtitle stream including a bitmap conversion table containing conversion information for converting a color gamut and/or a luminance of the subtitle graphics data to a color gamut and/or a luminance of target video data so as to enable a reception apparatus to match the color gamut and/or the luminance of the subtitle graphics data with the color gamut and/or the luminance of the target video data, wherein the subtitle stream includes a plurality of bitmap conversion tables each containing the conversion information different from one another, wherein each of the plurality of bitmap conversion tables additionally contains matching characteristic information of the subtitle graphics data and the target video data, the matching characteristic information indicating the color gamut and/or the luminance of the subtitle graphics data before conversion to the bitmap data and the color gamut and/or the luminance of target video data. a video encoder section that generates a video stream including video data; a subtitle encoder section that generates a subtitle stream including bitmap data, the bitmap data being obtained by converting subtitle graphics data; and a transmission section that transmits a container having a predetermined format containing the video stream and the subtitle stream, the subtitle stream including a bitmap conversion table containing conversion information for converting a color gamut and/or a luminance of the subtitle graphics data to a color gamut and/or a luminance of target video data so as to enable a reception apparatus to match the color gamut and/or the luminance of the subtitle graphics data with the color gamut and/or the luminance of the target video data, wherein the subtitle stream includes a plurality of bitmap conversion tables each containing the conversion information different from one another, wherein each of the plurality of bitmap conversion tables additionally contains matching characteristic information of the subtitle graphics data and the target video data, the matching characteristic information indicating the color gamut and/or the luminance of the subtitle graphics data before conversion to the bitmap data and the color gamut and/or the luminance of target video data.
A thermoelectric cooling device comprising a multi-layer foam stack and a thermoelectric string, wherein the thermoelectric string is inserted into the multi-layer foam stack, wherein a first layer of the multi-layer foam stack is configured for softness, wherein a second layer of the multi-layer foam stack is configured for softness and airflow combined, wherein the links of the thermoelectric string are made from woven wires, characterized in that strands of the woven wires of the links on a surface of the multi-layer foam stack are shaped to permit the strands of the woven wires to lengthen beyond that possible by the weave of the woven wire.
Device for preparing one or more calibrated solid specimens for analysis from the one same material sample, characterized in that it comprises a body and a structure with three superposed tiers, said structure comprising: - a first tier comprising one or more cups (13, 130) which are secured to the body and each intended to receive a dissolution or resuspension liquid (14, 140) and that each have an opening, - a second tier comprising a support secured to the body and comprising at least one perforable membrane (16, 160) covering the opening of each cup, said membrane having a sample deposition surface, - a third tier which comprises a sampling device comprising one or more core cutters (12, 120) able to move relative to the body, - each core cutter (12, 120) engaging translationally with said body in a main direction, moving between at least a state of rest in which the core cutter (12, 120) is vertically above the deposition surface and an actuated state in which the core cutter is situated inside said cup (13, 130), and in that: - the body comprises an assembly formed of a receptacle (10, 100) and of a lid (11, 110) closing said receptacle, said assembly delimiting an internal space in which the support comprising the deposition surface is placed, and an external space, - mechanical means for actuating the translational movement of said core cutters. - a first tier comprising one or more cups (13, 130) which are secured to the body and each intended to receive a dissolution or resuspension liquid (14, 140) and that each have an opening, - a second tier comprising a support secured to the body and comprising at least one perforable membrane (16, 160) covering the opening of each cup, said membrane having a sample deposition surface, - a third tier which comprises a sampling device comprising one or more core cutters (12, 120) able to move relative to the body, - each core cutter (12, 120) engaging translationally with said body in a main direction, moving between at least a state of rest in which the core cutter (12, 120) is vertically above the deposition surface and an actuated state in which the core cutter is situated inside said cup (13, 130), and in that: - the body comprises an assembly formed of a receptacle (10, 100) and of a lid (11, 110) closing said receptacle, said assembly delimiting an internal space in which the support comprising the deposition surface is placed, and an external space, - mechanical means for actuating the translational movement of said core cutters.
A threaded connection (300, 400, 600) comprising: - a pin member (301, 401, 601) comprising a first pin step and a second pin step, and pin wedge threads disposed on each of the first and second pin steps; and - a box member (302, 402, 602) comprising a first box step and a second box step, and box wedge threads disposed on each of the first and second box steps; wherein a distance A measured from fixed coaxial locations on the box member (302, 402, 602) from the first box step to the second box step defines an axial separation of the first and second box steps, wherein a distance B measured from fixed coaxial locations on the pin member (301, 401, 601) from the first pin step to the second pin step defines an axial separation of the first and second pin steps, wherein the coaxial locations on the pin and box members are corresponding pin and box thread flanks, and wherein the axial separation of the first and second pin steps differs from the axial separation of the first and second box steps. - a pin member (301, 401, 601) comprising a first pin step and a second pin step, and pin wedge threads disposed on each of the first and second pin steps; and - a box member (302, 402, 602) comprising a first box step and a second box step, and box wedge threads disposed on each of the first and second box steps; wherein a distance A measured from fixed coaxial locations on the box member (302, 402, 602) from the first box step to the second box step defines an axial separation of the first and second box steps, wherein a distance B measured from fixed coaxial locations on the pin member (301, 401, 601) from the first pin step to the second pin step defines an axial separation of the first and second pin steps, wherein the coaxial locations on the pin and box members are corresponding pin and box thread flanks, and wherein the axial separation of the first and second pin steps differs from the axial separation of the first and second box steps.
A method of wireless communication for reducing hand over signaling at an evolved Node B, eNB, comprising: forming a set of connected cells, each cell having a corresponding coverage area; preserving a state of a user equipment, UE, in an anchor eNB, wherein the anchor eNB is one of the set of connected cells, wherein the UE is in a connected mode; maintaining the state of the UE in the anchor eNB, when the UE moves from a coverage area of the anchor eNB to a coverage area of another one of the cells from the set of connected cells; characterized by: receiving a data packet at the anchor eNB; and forwarding the data packet to each of the cells in the set of connected cells in order to transmit the data packet to the UE. forming a set of connected cells, each cell having a corresponding coverage area; preserving a state of a user equipment, UE, in an anchor eNB, wherein the anchor eNB is one of the set of connected cells, wherein the UE is in a connected mode; maintaining the state of the UE in the anchor eNB, when the UE moves from a coverage area of the anchor eNB to a coverage area of another one of the cells from the set of connected cells; characterized by: receiving a data packet at the anchor eNB; and forwarding the data packet to each of the cells in the set of connected cells in order to transmit the data packet to the UE. receiving a data packet at the anchor eNB; and forwarding the data packet to each of the cells in the set of connected cells in order to transmit the data packet to the UE.
An ignition coil device for an ignition system of a motor vehicle for energy storage and transformation, comprising: a primary magnetic core, shaped substantially as an E, having a slot with a permanent magnet received in said slot and having an enlarged area; and a secondary magnetic core, shaped substantially as an I, that closes the magnetic path of said primary magnetic core, wherein said primary magnetic core includes two saturation sections (6, 7), adapted to store energy during coil charging, extending over a distance between said permanent magnet and a lamination edge of said primary magnetic core, the two saturations sections (6, 7) located at opposing ends of said slot, and wherein the enlarged area lies between the two saturation sections (6,7) and extends over a distance between said permanent magnet and a lamination edge of said primary magnetic core. a primary magnetic core, shaped substantially as an E, having a slot with a permanent magnet received in said slot and having an enlarged area; and a secondary magnetic core, shaped substantially as an I, that closes the magnetic path of said primary magnetic core, wherein said primary magnetic core includes two saturation sections (6, 7), adapted to store energy during coil charging, extending over a distance between said permanent magnet and a lamination edge of said primary magnetic core, the two saturations sections (6, 7) located at opposing ends of said slot, and wherein the enlarged area lies between the two saturation sections (6,7) and extends over a distance between said permanent magnet and a lamination edge of said primary magnetic core.