mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle side body structure comprising: a rear wheel house configured to include a rear wheel house outer and a rear wheel house inner ; a side sill extending forward in a vehicle body from a front end of the rear wheel house outer ; a pillar extending in a vehicle body vertical direction along a rear door opening edge (Er) from an intermediate portion in a vehicle body front-rear direction of the rear wheel house outer , wherein the rear wheel house outer includes: an outer overhang configured to overhang outward in the vehicle width direction; and an outer flange that extends upward from an inner end in the vehicle width direction of the outer overhang , a reinforcing member is provided to cooperate with the outer overhang and the outer flange so as to define a closed cross section (C4) in a substantially triangular shape, and a lower portion of the reinforcing member is joined to the outer overhang , characterized in that an upper portion of the reinforcing member is joined to the outer flange , a front portion of the reinforcing member is welded to a rear end upper portion of the side sill , and a rear portion of the reinforcing member is welded to a lower end front portion of a pillar outer member of the pillar . a rear wheel house configured to include a rear wheel house outer and a rear wheel house inner ; a side sill extending forward in a vehicle body from a front end of the rear wheel house outer ; a pillar extending in a vehicle body vertical direction along a rear door opening edge (Er) from an intermediate portion in a vehicle body front-rear direction of the rear wheel house outer , wherein the rear wheel house outer includes: an outer overhang configured to overhang outward in the vehicle width direction; and an outer flange that extends upward from an inner end in the vehicle width direction of the outer overhang , a reinforcing member is provided to cooperate with the outer overhang and the outer flange so as to define a closed cross section (C4) in a substantially triangular shape, and a lower portion of the reinforcing member is joined to the outer overhang , characterized in that an upper portion of the reinforcing member is joined to the outer flange , a front portion of the reinforcing member is welded to a rear end upper portion of the side sill , and a rear portion of the reinforcing member is welded to a lower end front portion of a pillar outer member of the pillar .
Method for manufacturing a heterojunction photovoltaic cell, the method comprising the following steps: - (E1) providing a crystalline silicon substrate ; - (E2) implanting hydrogen ions at the surface of the substrate , through a first face of the substrate ; - (E3) depositing a passivation layer on the first face of the substrate ; - (E4) performing a thermal treatment at a temperature lower than 250°C so that the hydrogen ions implanted in the substrate diffuse towards the interface between the substrate and the passivation layer . - (E1) providing a crystalline silicon substrate ; - (E2) implanting hydrogen ions at the surface of the substrate , through a first face of the substrate ; - (E3) depositing a passivation layer on the first face of the substrate ; - (E4) performing a thermal treatment at a temperature lower than 250°C so that the hydrogen ions implanted in the substrate diffuse towards the interface between the substrate and the passivation layer .
An introducer system for positioning, testing, and deploying a lead for percutaneous peripheral nerve stimulation, the system comprising: an electrical stimulus generator unit; an open-coiled structure stimulation lead having a conductive distal anchor and a proximal end in communication with the stimulus generator unit, a needle assembly including an outer sheath having an outer circumference and defining a lumen, an inner sheath carried completely within the lumen during positioning and test, and at least one test electrode positioned along the circumference and electrically communicating with the stimulus generator unit; wherein the lead is configured to be carried within the inner sheath during positioning and testing of the needle assembly until the lead is deployed; wherein, when testing of the stimulus generator unit is activated, the at least one test electrode is configured to deliver test stimulation at one or more desired positions; wherein the needle assembly is repeatedly repositionable without deploying the lead ; and wherein, as the lead is deployed from the needle assembly, the distal anchor is configured to be exposed from the needle assembly and anchors at one of the desired positions. an electrical stimulus generator unit; an open-coiled structure stimulation lead having a conductive distal anchor and a proximal end in communication with the stimulus generator unit, a needle assembly including an outer sheath having an outer circumference and defining a lumen, an inner sheath carried completely within the lumen during positioning and test, and at least one test electrode positioned along the circumference and electrically communicating with the stimulus generator unit; wherein the lead is configured to be carried within the inner sheath during positioning and testing of the needle assembly until the lead is deployed; wherein, when testing of the stimulus generator unit is activated, the at least one test electrode is configured to deliver test stimulation at one or more desired positions; wherein the needle assembly is repeatedly repositionable without deploying the lead ; and wherein, as the lead is deployed from the needle assembly, the distal anchor is configured to be exposed from the needle assembly and anchors at one of the desired positions.
A needling device, comprising: a sheath assembly comprising a needle array on a needle holder that is secured to a drive shaft interface ; and a main unit comprising a motor for driving the needle array, wherein the main unit is configured to be fully encapsulated within the sheath assembly so that all parts of the main unit are protected from the outside environment, wherein the internal components of the sheath assembly include a bio-barrier as a layer of protection and sealing of the main unit wherein the bio-barrier is attached about the needle holder and configured to travel with the needle holder and wherein the needle array is driven axially by the motor in a direction that is parallel with a longitudinal axis of the needling device along which the needling device extends. a sheath assembly comprising a needle array on a needle holder that is secured to a drive shaft interface ; and a main unit comprising a motor for driving the needle array, wherein the main unit is configured to be fully encapsulated within the sheath assembly so that all parts of the main unit are protected from the outside environment, wherein the internal components of the sheath assembly include a bio-barrier as a layer of protection and sealing of the main unit wherein the bio-barrier is attached about the needle holder and configured to travel with the needle holder and wherein the needle array is driven axially by the motor in a direction that is parallel with a longitudinal axis of the needling device along which the needling device extends.
Method for supplying cross-wound package tubes to a plurality of workstations of a textile machine producing cross-wound packages , at least two service units that supply cross-wound package tubes to the workstations being served by a feed device running the length of the machine, the service units comprising handling means for stopping the cross-wound package tubes on the feed device and for receiving the cross-wound package tubes from the feed device , when a cross-wound package tube is requested by a service unit , a cross-wound package tube being assigned to said service unit and transferred to the feed device , characterised in that the time at which the cross-wound package tube is transferred to the feed device , the transport speed of the feed device and the position and speed of the requesting service unit are recorded and evaluated, and in that the handling means of the requesting service unit are actuated depending on the evaluation in such a way that the requesting service unit receives its assigned cross-wound package tube . at least two service units that supply cross-wound package tubes to the workstations being served by a feed device running the length of the machine, the service units comprising handling means for stopping the cross-wound package tubes on the feed device and for receiving the cross-wound package tubes from the feed device , when a cross-wound package tube is requested by a service unit , a cross-wound package tube being assigned to said service unit and transferred to the feed device , characterised in that the time at which the cross-wound package tube is transferred to the feed device , the transport speed of the feed device and the position and speed of the requesting service unit are recorded and evaluated, and in that the handling means of the requesting service unit are actuated depending on the evaluation in such a way that the requesting service unit receives its assigned cross-wound package tube .
Gearbox comprising, in a casing, a hollow primary shaft concentric to a solid shaft , and a lubricating device comprising, on the one hand, a cannula for supplying targeted lubrication points of the gearbox, said cannula being fixed to the casing of the gearbox and extending inside the hollow shaft , and, on the other hand, a lubricating circuit external to the gearbox ,said lubricating device in which the inlet of the cannula receives oil from the external circuit through an opening in the housing, characterized in that the external circuit comprises a pump circulating the oil contained in the lower part of the gearbox , a first duct connected to the inlet of the cannula, and a second circuit connected to an inlet point of the gearbox higher than the hollow shaft .
A method for identification of a site of fragmentation of an antibody, said method comprising: contacting a sample including at least one fragment of an antibody to a chromatographic system having a mixed-mode size-exclusion chromatography resin with an additional functionality; washing said mixed-mode size-exclusion chromatography resin using a mobile phase to provide an eluent with the at least one fragment of the antibody; determining molecular weight data of the at least one fragment of the antibody in said eluent using a mass spectrometer coupled to said chromatographic system; and correlating the molecular weight data of the at least one fragment of the antibody to data obtained from at least one known protein standard to identify the site of fragmentation of the antibody, characterized in that a concentration of salt in said mobile phase is selected on the basis of separating said at least one fragment of the antibody by charge and/or hydrophobicity. contacting a sample including at least one fragment of an antibody to a chromatographic system having a mixed-mode size-exclusion chromatography resin with an additional functionality; washing said mixed-mode size-exclusion chromatography resin using a mobile phase to provide an eluent with the at least one fragment of the antibody; determining molecular weight data of the at least one fragment of the antibody in said eluent using a mass spectrometer coupled to said chromatographic system; and correlating the molecular weight data of the at least one fragment of the antibody to data obtained from at least one known protein standard to identify the site of fragmentation of the antibody, characterized in that a concentration of salt in said mobile phase is selected on the basis of separating said at least one fragment of the antibody by charge and/or hydrophobicity.
A method for combining a mask with a video stream , the method comprising: - displaying one or more image frames of the video stream - receiving a selection of at least one mask to insert into the video stream , the mask comprising a mask zone that outlines or obscures at least a portion of a corresponding image frame of the video stream that the mask is inserted therein; - receiving a selection to emplace the at least one mask at a first location within a displayed image frame of the video stream ; - receiving a selection to enable a tracking icon to move the at least one mask to a second location within at least another displayed image frame of the video stream while the displaying of the video stream progresses; and - generating a video stream copy of the video stream with the at least one mask inserted therein as emplaced and moved during the displaying of the video stream progression. - displaying one or more image frames of the video stream - receiving a selection of at least one mask to insert into the video stream , the mask comprising a mask zone that outlines or obscures at least a portion of a corresponding image frame of the video stream that the mask is inserted therein; - receiving a selection to emplace the at least one mask at a first location within a displayed image frame of the video stream ; - receiving a selection to enable a tracking icon to move the at least one mask to a second location within at least another displayed image frame of the video stream while the displaying of the video stream progresses; and - generating a video stream copy of the video stream with the at least one mask inserted therein as emplaced and moved during the displaying of the video stream progression.
A method of manufacturing an optoelectronic device, comprising the steps of: a) transferring, onto a surface of an integrated control circuit comprising a plurality of metal connection pads , an active diode stack comprising at least first and second doped semiconductor layers of opposite conductivity types, so that the second layer of the stack is electrically connected to the metal pads of the control circuit ; b) depositing a hard mask on the surface of the actif stack opposite to the control circuit ; c) forming in the active stack , by etching across openings previously formed in the mask , trenches delimiting a plurality of diodes connected to separate metal pads of the control circuit ; d) depositing an insulating layer on the lateral walls of the trenches ; e) partially removing the insulating layer (178 178') to expose the sides of the portions of the first semiconductor layer delimited by the trenches while keeping at least part of the thickness of the mask ; f) depositing, on the upper surface of the mask and in trenches , a metal layer having a thickness sufficient for entirely filling the trenches ; and g) removing, by chemical mechanical polishing, the metal layer on the upper surface of the mask , so as to keep from the metal layer only a metallization coating the lateral walls and the bottom of the trenches and contacting the sides of the portions of the first semiconductor layer delimited by the trenches. a) transferring, onto a surface of an integrated control circuit comprising a plurality of metal connection pads , an active diode stack comprising at least first and second doped semiconductor layers of opposite conductivity types, so that the second layer of the stack is electrically connected to the metal pads of the control circuit ; b) depositing a hard mask on the surface of the actif stack opposite to the control circuit ; c) forming in the active stack , by etching across openings previously formed in the mask , trenches delimiting a plurality of diodes connected to separate metal pads of the control circuit ; d) depositing an insulating layer on the lateral walls of the trenches ; e) partially removing the insulating layer (178 178') to expose the sides of the portions of the first semiconductor layer delimited by the trenches while keeping at least part of the thickness of the mask ; f) depositing, on the upper surface of the mask and in trenches , a metal layer having a thickness sufficient for entirely filling the trenches ; and g) removing, by chemical mechanical polishing, the metal layer on the upper surface of the mask , so as to keep from the metal layer only a metallization coating the lateral walls and the bottom of the trenches and contacting the sides of the portions of the first semiconductor layer delimited by the trenches.
A powder-layer three-dimensional printer comprising a recoater , the recoater including: a traveling powder dispenser having (i) a hopper adapted to contain a build powder, (ii) a first chamber having a bottom, the bottom including a mesh , and (iii) an opening adapted to controllably discharge the build powder laterally from the hopper into the first chamber ; and a vibrator operably connected to the powder dispenser ; wherein the first chamber is located beside the opening and the vibrator is adapted to selectively cause the build powder to flow from the hopper through the opening and to be discharged through the mesh . (i) a hopper adapted to contain a build powder, (ii) a first chamber having a bottom, the bottom including a mesh , and (iii) an opening adapted to controllably discharge the build powder laterally from the hopper into the first chamber ; and
A molding made of foam, said foam comprising at least two mutually bonded foam segments, wherein at least one fiber (F) is present with a fiber region (FB2) within the molding and is surrounded by the foam, while a fiber region (FB1) of the fiber (F) projects from a first side of the molding and a fiber region (FB3) of the fiber (F) projects from a second side of the molding, where the fiber (F) has been partly introduced by a process comprising the following steps a) to f): a) optionally applying at least one layer (S2) to at least one side of the foam, b) producing one hole per fiber (F) in the foam and in any layer (S2), the hole extending from a first side to a second side of the foam and through any layer (S2), c) providing at least one fiber (F) on the second side of the foam, d) passing a needle from the first side of the foam through the hole to the second side of the foam, and passing the needle through any layer (S2), e) securing at least one fiber (F) on the needle on the second side of the foam, and f) returning the needle along with the fiber (F) through the hole, such that the fiber (F) is present with the fiber region (FB2) within the molding and is surrounded by the foam, while the fiber region (FB1) of the fiber (F) projects from a first side of the molding or from any layer (S2) and the fiber region (FB3) of the fiber (F) projects from a second side of the molding. a) optionally applying at least one layer (S2) to at least one side of the foam, b) producing one hole per fiber (F) in the foam and in any layer (S2), the hole extending from a first side to a second side of the foam and through any layer (S2), c) providing at least one fiber (F) on the second side of the foam, d) passing a needle from the first side of the foam through the hole to the second side of the foam, and passing the needle through any layer (S2), e) securing at least one fiber (F) on the needle on the second side of the foam, and f) returning the needle along with the fiber (F) through the hole, such that the fiber (F) is present with the fiber region (FB2) within the molding and is surrounded by the foam, while the fiber region (FB1) of the fiber (F) projects from a first side of the molding or from any layer (S2) and the fiber region (FB3) of the fiber (F) projects from a second side of the molding.
A particulate material which is mainly composed of alumina, whose volume average particle diameter is from 70 to 200 μm, whose degree of sphericity is from 0.92 or more to less than 0.99, and whose degree of alfa-aluminization is from 50 to 85%, wherein: the particulate material produces a result of 0.017 g or less in an abrasion test for equipment, wherein the abrasion test for equipment is performed by the method as specified in the description.
A surface cleaning apparatus , comprising a housing including an upright handle assembly and a base mounted to the handle assembly and adapted for movement across a surface to be cleaned, a suction source , a suction nozzle assembly provided on the base and defining a suction nozzle in fluid communication with the suction source , the suction nozzle assembly comprising a nozzle housing and a cover on the nozzle housing , and a fluid delivery system provided on the housing and comprising a fluid supply chamber adapted to hold a supply of liquid, a fluid dispenser provided on the base in fluid communication with the fluid supply chamber , and a fluid delivery pathway between the fluid supply chamber and the fluid dispenser ; further comprising integrated fluid delivery channels forming a portion of the fluid delivery pathway; and characterised in that the nozzle housing comprises a front interference wiper mounted at a forward position relative to the brushroll chamber in the base and disposed horizontally.
A radiopharmaceutical solution comprising uncomplexed 224 Ra and complexes between a complexing agent and 212 Pb; wherein said complexing agent is selected from the group consisting acyclic chelators, cyclic chelators, cryptands, crown ethers, porphyrins or cyclic or noncyclic polyphosphonates, DOTMP, EDTMP, bisphosphonate, pamidronate conjugated to DOTA, pamidronate conjugated to TCMC, TCMC, DOTA, p-SCN-Bn-DOTA, p-SCN-Bn-TCMC, antibody-conjugated-DOTA, and antibody-conjugated-TCMC.
A laser transfer apparatus comprising: a laser oscillator configured to perform irradiation with a laser beam; a first stage movably disposed below the laser oscillator; a second stage movably disposed below the first stage; a flatness measurement sensor ; and a controller , wherein the controller is configured to: once a transfer substrate on which a plurality of light emitting diodes (LEDs) are arranged is loaded on the first stage, and a target substrate is loaded on the second stage, control the flatness measurement sensor to measure flatness of each of the transfer substrate and the target substrate, respectively; and adjust a height of at least one of the first stage or the second stage based on the flatness. a laser oscillator configured to perform irradiation with a laser beam; a first stage movably disposed below the laser oscillator; a second stage movably disposed below the first stage; a flatness measurement sensor ; and a controller , wherein the controller is configured to: once a transfer substrate on which a plurality of light emitting diodes (LEDs) are arranged is loaded on the first stage, and a target substrate is loaded on the second stage, control the flatness measurement sensor to measure flatness of each of the transfer substrate and the target substrate, respectively; and adjust a height of at least one of the first stage or the second stage based on the flatness. once a transfer substrate on which a plurality of light emitting diodes (LEDs) are arranged is loaded on the first stage, and a target substrate is loaded on the second stage, control the flatness measurement sensor to measure flatness of each of the transfer substrate and the target substrate, respectively; and adjust a height of at least one of the first stage or the second stage based on the flatness.