mhurhangee/patent-ind-claim-en huggingface dataset:
A device for automatic assembly of a pair of wires , which has at least two wire elements each having a contact element arranged at the end, having - a main gripper for gripping the pair of wires , which is rotatable about an axis of rotation (D) extending in a longitudinal direction (L), - two gripping elements for respectively gripping a wire end of the respective wire element , as well as - a control unit for controlling the main gripper as well as the two gripping elements such that in operation - the wire ends are gripped by the gripping elements - the pair of wires is gripped with the main gripper , - the respective contact element is brought into a predetermined rotary position by rotating the main gripper , characterised in that - the two gripping elements are arranged laterally next to one another with respect to the longitudinal direction (L) and are designed in such a way that a translational and/or rotational alignment of the gripped wire ends relative to one another and independently of one another is made possible. - a main gripper for gripping the pair of wires , which is rotatable about an axis of rotation (D) extending in a longitudinal direction (L), - two gripping elements for respectively gripping a wire end of the respective wire element , as well as - a control unit for controlling the main gripper as well as the two gripping elements such that in operation - the wire ends are gripped by the gripping elements - the pair of wires is gripped with the main gripper , - the respective contact element is brought into a predetermined rotary position by rotating the main gripper , characterised in that - the two gripping elements are arranged laterally next to one another with respect to the longitudinal direction (L) and are designed in such a way that a translational and/or rotational alignment of the gripped wire ends relative to one another and independently of one another is made possible.
An air-floating thin film bonding apparatus, comprising: at least two feed rollers , used to guide a base film and a bonding film to be bonded together, wherein the base film includes a first surface and an opposite second surface , and at least two thin-film components with a gap space therebetween are disposed on the second surface ; a bonding roller , receiving the bonding film guided by one of the feed roller ; and an air-floating roller , receiving the base film guided by the another feed roller , wherein the air-floating roller is disposed adjacent and corresponding to the bonding roller to press the bonding film to bond to the first surface of the base film , comprising: an outer roller , including a plurality of blowing holes on its outer surface and being rotatable; an inner cylinder , disposed in the outer roller and including a plurality of through holes within a predetermined angle (Θ) on its outer surface; and an air source, connected to the inner cylinder to provide an airflow to the inner cylinder , wherein the airflow is guided to the blowing holes of the outer roller via the through holes of the inner cylinder to fill the gap space of the second surface of the base film within the predetermined angle (θ); wherein the predetermined angle (Θ) is 20-90 degrees. at least two feed rollers , used to guide a base film and a bonding film to be bonded together, wherein the base film includes a first surface and an opposite second surface , and at least two thin-film components with a gap space therebetween are disposed on the second surface ; a bonding roller , receiving the bonding film guided by one of the feed roller ; and an air-floating roller , receiving the base film guided by the another feed roller , wherein the air-floating roller is disposed adjacent and corresponding to the bonding roller to press the bonding film to bond to the first surface of the base film , comprising: an outer roller , including a plurality of blowing holes on its outer surface and being rotatable; an inner cylinder , disposed in the outer roller and including a plurality of through holes within a predetermined angle (Θ) on its outer surface; and an air source, connected to the inner cylinder to provide an airflow to the inner cylinder , wherein the airflow is guided to the blowing holes of the outer roller via the through holes of the inner cylinder to fill the gap space of the second surface of the base film within the predetermined angle (θ); wherein the predetermined angle (Θ) is 20-90 degrees. an outer roller , including a plurality of blowing holes on its outer surface and being rotatable; an inner cylinder , disposed in the outer roller and including a plurality of through holes within a predetermined angle (Θ) on its outer surface; and an air source, connected to the inner cylinder to provide an airflow to the inner cylinder , wherein the airflow is guided to the blowing holes of the outer roller via the through holes of the inner cylinder to fill the gap space of the second surface of the base film within the predetermined angle (θ); wherein the predetermined angle (Θ) is 20-90 degrees.
Method for producing an electrode stack for an energy store of a motor vehicle, wherein cathodes and anodes as electrodes are alternately stacked on top of one another with a separator strip interposed, wherein first the cathodes and anodes are laid on the separator strip , so that an electrode strip is produced, wherein after that the electrode strip is folded multiple times to stack the cathodes and the anodes on top of one another, and wherein the electrode strip is oriented in a horizontal plane for the folding, and from there is folded in sections or as a whole between the electrodes, characterized in that the electrode strip is fed in the direction of a holder and folded into the holder in steps, and in that at least two opposite grippers are guided along a curved track , which is oriented at least substantially perpendicular to the extent of the electrode strip or the track , in such a way that they grip the electrode strip in steps between every second electrode and fold the electrode strip into the holder through the curved movement.
A lifesaving system for swimmers in a swimming pool, the lifesaving system comprising: a plurality of autonomously operated lifesaving modules stowable on a floor of the pool, wherein each one of the plurality of said livesaving modules is configured to deploy by an inflatable structure ; and a plurality of sensors configured to monitor the swimmers and identify a swimmer in distress, wherein at least one livesaving module of the plurality of autonomously operated livesaving modules stowed substantially beneath at least one swimmer in distress is deployed so as to raise the swimmer to a surface of the water. a plurality of autonomously operated lifesaving modules stowable on a floor of the pool, wherein each one of the plurality of said livesaving modules is configured to deploy by an inflatable structure ; and a plurality of sensors configured to monitor the swimmers and identify a swimmer in distress, wherein at least one livesaving module of the plurality of autonomously operated livesaving modules stowed substantially beneath at least one swimmer in distress is deployed so as to raise the swimmer to a surface of the water.
A connector for use with a mattress comprising a first set of interconnected chambers and a second set of interconnected chambers , the connector arranged to be joined to the first set of interconnected chambers and second set of interconnected chambers , the connector being configurable between: a first mode in which the connector defines a first airflow path into the first set of interconnected chambers and a second airflow path into the second set of interconnected chambers , and there is no airflow path between the first set of interconnected chambers and second set of interconnected chambers , a second mode in which the connector closes off the first air flow path and second air flow path and defines a third airflow path between the first set of interconnected chambers and second set of interconnected chambers , wherein the connector is arranged such that connection to an air pump automatically configures the connector in the first mode, characterised in that the connector comprises an overpressure valve arranged to allow air to exit the mattress system should the air pressure within the mattress system exceed a predefined level, wherein the connector is arranged such that when the connector is configured in the first mode, the overpressure valve is closed off, and when the connector is configured in the second mode, the overpressure valve is open to airflow from the first set of interconnected chambers and second set of interconnected chambers .
A prefabricated multi-test kit, the prefabricated kit comprising: a plurality of reaction cells, each one of at least two of said reaction cells holding reagents of a respective, different set of at least two tests selected from a group consisting of a plurality of different tests, the tests being distributed among the reaction cells in a manner that leaves reagents of each different one of the tests of the group in a respective different sub-combination of said reaction cells, and allows any sub-combination of said reaction cells to be indicative of a sub-group comprising all positive tests of the group when each reaction cell of the sub-combination that is indicative of the sub-group, contains an at least one positive test and none of the remaining reaction cells contain a positive test, the reaction cells being fewer than the tests being distributed among the reaction cells.
A solid-state image sensor comprising: a plurality of photoelectric conversion elements are two-dimensionally arranged in a semiconductor layer ; a support substrate is provided on a surface side opposite to a light incident side of the semiconductor layer ; an interlayer insulating layer and a plurality of light reflection structures are provided on a surface side of the support substrate which faces toward the semiconductor layer ; the light reflection structures include a light transmission layer and a reflective metal that covers a surface of the light transmission layer opposite to a surface facing the semiconductor layer ; the light reflection structures are provided at positions facing the respective photoelectric conversion elements ; a surface of the reflective metal on a side of the photoelectric conversion elements is a concave curved surface facing the photoelectric conversion elements ; and the interlayer insulating layer is located between adjacent ones of the light reflection structures , characterized in that the plurality of photoelectric conversion elements are separated for each pixel by an element separation wall ; and a flattening layer is provided on the surface of the support substrate and the reflective metal which is a film is provided so as to cover a surface of the flattening layer . a plurality of photoelectric conversion elements are two-dimensionally arranged in a semiconductor layer ; a support substrate is provided on a surface side opposite to a light incident side of the semiconductor layer ; an interlayer insulating layer and a plurality of light reflection structures are provided on a surface side of the support substrate which faces toward the semiconductor layer ; the light reflection structures include a light transmission layer and a reflective metal that covers a surface of the light transmission layer opposite to a surface facing the semiconductor layer ; the light reflection structures are provided at positions facing the respective photoelectric conversion elements ; a surface of the reflective metal on a side of the photoelectric conversion elements is a concave curved surface facing the photoelectric conversion elements ; and the interlayer insulating layer is located between adjacent ones of the light reflection structures , characterized in that the plurality of photoelectric conversion elements are separated for each pixel by an element separation wall ; and a flattening layer is provided on the surface of the support substrate and the reflective metal which is a film is provided so as to cover a surface of the flattening layer .
An antibody-drug conjugate wherein an antitumor compound represented by the following formula: is conjugated to an antibody via a linker, wherein the drug-linker structure moiety in the antibody-drug conjugate has one structure selected from the following drug-linker structure group: - (Succinimid-3-yl-N) -CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-DGGFG-NH-CH 2 CH 2 -C(=O)-( NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-DGGFG-NH-CH 2 CH 2 CH 2 -C(=O) - (NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-KGGFG-NH-CH 2 CH 2 CH 2 -C(=O) - (NH-DX), - (Succinimid-3-yl-N)-(CH 2 ) 5 -C(=O)-N[-(CH 2 CH 2 -O) 3 -CH 2 CH 2 -OH]-CH 2 - (C=O)-GGFG-NH-(CH 2 ) 3 -C(=O)-(NH-DX), - (Succinimid-3-yl-N)-CH[-(CH 2 ) 2 -COOH]-C(=O)-NH-(CH 2 ) 2 -C(=O)-GG FG-NH-(CH 2 ) 3 -C(=O)-(NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-GGFG-(NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-GGFGG-(NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-GGFGGG-(NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-DGGFG-(NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-KGGFG-(NH-DX), wherein -(Succinimid-3-yl-N)- has a structure represented by the following formula: which is connected to the antibody at position 3 thereof and is connected to a methylene group in the linker structure containing this structure on the nitrogen atom at position 1, - (NH-DX) is a group represented by the following formula: wherein the nitrogen atom of the amino group at position 1 is the connecting position. - (Succinimid-3-yl-N) -CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-DGGFG-NH-CH 2 CH 2 -C(=O)-( NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-DGGFG-NH-CH 2 CH 2 CH 2 -C(=O) - (NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-KGGFG-NH-CH 2 CH 2 CH 2 -C(=O) - (NH-DX), - (Succinimid-3-yl-N)-(CH 2 ) 5 -C(=O)-N[-(CH 2 CH 2 -O) 3 -CH 2 CH 2 -OH]-CH 2 - (C=O)-GGFG-NH-(CH 2 ) 3 -C(=O)-(NH-DX), - (Succinimid-3-yl-N)-CH[-(CH 2 ) 2 -COOH]-C(=O)-NH-(CH 2 ) 2 -C(=O)-GG FG-NH-(CH 2 ) 3 -C(=O)-(NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-GGFG-(NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-GGFGG-(NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-GGFGGG-(NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-DGGFG-(NH-DX), - (Succinimid-3-yl-N)-CH 2 CH 2 CH 2 CH 2 CH 2 -C(=O)-KGGFG-(NH-DX), - (NH-DX) is a group represented by the following formula:
A wire electrical discharge machine for performing electrical discharge machining on a workpiece (W) by applying voltage across an electrode gap between a wire electrode stretched between an upper nozzle and a lower nozzle and the workpiece (W) to generate electrical discharges, comprising: a lifting mechanism configured to move the workpiece (W) in a travelling direction of the wire electrode , and a controller including a storage unit and a processing operation unit , characterized in that the processing operation unit comprises: a lifting mechanism control unit configured to control the lifting mechanism , and a drop information acquisition unit configured to acquire information indicating that a core (C) formed in machining the workpiece (W) has fallen into the lower nozzle or interfered with an edge of the lower nozzle , wherein the lifting mechanism control unit is configured to control the lifting mechanism so as to move the workpiece (W) toward the upper nozzle in a case where the information that the core (C) has fallen in the lower nozzle or interfered with the edge of the lower nozzle is acquired by the drop information acquisition unit . a lifting mechanism configured to move the workpiece (W) in a travelling direction of the wire electrode , and a controller including a storage unit and a processing operation unit , characterized in that the processing operation unit comprises: a lifting mechanism control unit configured to control the lifting mechanism , and a drop information acquisition unit configured to acquire information indicating that a core (C) formed in machining the workpiece (W) has fallen into the lower nozzle or interfered with an edge of the lower nozzle , wherein the lifting mechanism control unit is configured to control the lifting mechanism so as to move the workpiece (W) toward the upper nozzle in a case where the information that the core (C) has fallen in the lower nozzle or interfered with the edge of the lower nozzle is acquired by the drop information acquisition unit . a lifting mechanism control unit configured to control the lifting mechanism , and a drop information acquisition unit configured to acquire information indicating that a core (C) formed in machining the workpiece (W) has fallen into the lower nozzle or interfered with an edge of the lower nozzle , wherein the lifting mechanism control unit is configured to control the lifting mechanism so as to move the workpiece (W) toward the upper nozzle in a case where the information that the core (C) has fallen in the lower nozzle or interfered with the edge of the lower nozzle is acquired by the drop information acquisition unit .
A latch mechanism for a nacelle comprising: a first half of a latch housing ; a second half of the latch housing comprising an external surface and a forward wall extending radially inward from the external surface; a latch handle and a first alignment feature coupled to at least one of: the first half of the latch housing , the second half of the latch housing , or the latch handle and configured to prevent damage to the external surface from contact by the latch handle , and characterized by the first alignment feature comprising a guide ramp , and wherein the guide ramp is positioned at an angle of between 10°-20° relative to the forward wall of the first half of the latch housing . a first half of a latch housing ; a second half of the latch housing comprising an external surface and a forward wall extending radially inward from the external surface; a latch handle and a first alignment feature coupled to at least one of: the first half of the latch housing , the second half of the latch housing , or the latch handle and configured to prevent damage to the external surface from contact by the latch handle , and characterized by the first alignment feature comprising a guide ramp , and wherein the guide ramp is positioned at an angle of between 10°-20° relative to the forward wall of the first half of the latch housing .
An oral care implement , in particular a replacement brush head of an electric toothbrush, comprising: a housing extending along a longitudinal extension direction; a functional element mounted at the housing for driven motion relative to the housing; a motion transmitter element disposed within the housing and essentially extending along the longitudinal extension direction, the motion transmitter element having a first coupling portion being coupled with the functional element ; wherein the motion transmitter element has a metal sheet portion that is made from a punched and bent metal sheet, in particular wherein the metal sheet portion has at least one section having a non-flat cross sectional shape in a plane essentially perpendicular to the longitudinal extension direction such as an L-shape or U-shape or S-shape. a housing extending along a longitudinal extension direction; a functional element mounted at the housing for driven motion relative to the housing; a motion transmitter element disposed within the housing and essentially extending along the longitudinal extension direction, the motion transmitter element having a first coupling portion being coupled with the functional element ; wherein the motion transmitter element has a metal sheet portion that is made from a punched and bent metal sheet, in particular wherein the metal sheet portion has at least one section having a non-flat cross sectional shape in a plane essentially perpendicular to the longitudinal extension direction such as an L-shape or U-shape or S-shape.
A high shear liquid metal treatment device comprising: a barrel having a longitudinal axis extending between a first end and a second end , and having an opening at its first and second ends ; a rotor shaft mounted centrally through, and parallel to the longitudinal axis of, the barrel ; a plurality of rotor fans mounted along an axial length of the shaft and within the barrel , each rotor fan formed such that its outer end is within a minimum distance of an internal wall of the barrel ; and a plurality of stator plates formed on an inner surface of the barrel , the stator plates being located between adjacent rotor fans , each stator plate extending from an inner surface to the rotor shaft , each stator plate having a plurality of passages formed therethrough to allow fluid to pass through the plate ; and upper and lower surfaces of each stator plate are formed to be within the minimum distance of an adjacent rotor fan ; wherein, the minimum distance is between 10μm and 10mm. a barrel having a longitudinal axis extending between a first end and a second end , and having an opening at its first and second ends ; a rotor shaft mounted centrally through, and parallel to the longitudinal axis of, the barrel ; a plurality of rotor fans mounted along an axial length of the shaft and within the barrel , each rotor fan formed such that its outer end is within a minimum distance of an internal wall of the barrel ; and a plurality of stator plates formed on an inner surface of the barrel , the stator plates being located between adjacent rotor fans , each stator plate extending from an inner surface to the rotor shaft , each stator plate having a plurality of passages formed therethrough to allow fluid to pass through the plate ; and upper and lower surfaces of each stator plate are formed to be within the minimum distance of an adjacent rotor fan ;
Siphon for closing an outlet pipe , the siphon comprising a housing with an inflow opening arranged in a housing wall, an outflow opening arranged in a housing wall and a separating wall directed downward from above between the inflow opening and the outflow opening and having a passage opening , wherein the passage opening lies in a lower position than both the inflow opening and the outflow opening , wherein a flexible wall part is provided, wherein the separating wall has a length such that it extends below the inflow an outflow openings , to provide a water seal having a first height (h 1 ), and wherein the flexible wall part comprises a flexible flap , characterized in that the flexible flap is arranged as a unidirectional seal and is provided in the passage opening under the separating wall , which flexible flap lengthens the separating wall to increase the water seal height to a second height (h 2 ), wherein the flexible flap is arranged with an end on the separating wall and lying with a free end against an opposite housing wall.
A method of regulating Ni concentration, the method comprising: adding P with a content of up to 1000 ppm in the state of a Sn-P alloy to a molten Sn-Cu-Ni alloy, whereby the Sn-Cu-Ni alloy is a Sn-0.7Cu-(0.04-0.07)Ni solder alloy; holding the mixture of P and Sn-Cu-Ni at 250 to 400°C resulting in a dross floating on the surface of a liquid phase; and removing resulting dross floating on the surface of the liquid phase, wherein the dross contains at least one of a P-Ni compound and a P-Sn-Ni compound wherein the concentration of Ni in the solder alloy after the dross removal step is reduced compared to the initial Ni concentration. adding P with a content of up to 1000 ppm in the state of a Sn-P alloy to a molten Sn-Cu-Ni alloy, whereby the Sn-Cu-Ni alloy is a Sn-0.7Cu-(0.04-0.07)Ni solder alloy; holding the mixture of P and Sn-Cu-Ni at 250 to 400°C resulting in a dross floating on the surface of a liquid phase; and removing resulting dross floating on the surface of the liquid phase, wherein the dross contains at least one of a P-Ni compound and a P-Sn-Ni compound wherein the concentration of Ni in the solder alloy after the dross removal step is reduced compared to the initial Ni concentration.