mhurhangee/ep-ind-claims huggingface dataset:
A press-molded product (100; 120; 130) of a metal plate which is formed by a steel plate having a tensile strength of 340 MPa or more and includes a ridge portion (112a, 112b) extending in a predetermined direction and first and second surface portions respectively extending from both ends of a ridge line formed by the ridge portion, the press-molded product comprising: an inward continuous flange in at least one end portion in the predetermined direction, wherein the inward continuous flange is obtained by continuously forming a ridge-portion flange (115, 115', 115a, 115b) formed inward in an end portion of the ridge portion, a first flange (116, 116', 116a, 116b) formed inward in at least a part of an area of an end portion of the first surface portion (113a, 113b), and a second flange (117, 117') formed inward in at least a part of an area of an end portion of the second surface portion, and wherein regarding a plate thickness of an edge portion of the ridge-portion flange, the ridge-portion flange has a plate thickness distribution in which a plate thickness of a portion of each of areas on both sides of a circumferential center area is larger than a plate thickness of the center area. an inward continuous flange in at least one end portion in the predetermined direction, wherein the inward continuous flange is obtained by continuously forming a ridge-portion flange (115, 115', 115a, 115b) formed inward in an end portion of the ridge portion, a first flange (116, 116', 116a, 116b) formed inward in at least a part of an area of an end portion of the first surface portion (113a, 113b), and a second flange (117, 117') formed inward in at least a part of an area of an end portion of the second surface portion, and wherein regarding a plate thickness of an edge portion of the ridge-portion flange, the ridge-portion flange has a plate thickness distribution in which a plate thickness of a portion of each of areas on both sides of a circumferential center area is larger than a plate thickness of the center area.
An electrical continuity apparatus (200, 300) for a coaxial cable interface port, comprising: an interface port (14, 150, 250) having a first end with a threaded outer surface (162, 262); a cable connector (2, 110, 310) including a coupler (116, 316) having a threaded inner surface (126, 326), the coupler being configured to rotatably couple the threaded inner surface with the threaded outer surface of the first end of the interface port; and a resilient member (270, 370) arranged between the interface port and the coupler, the resilient member urging threads of the threaded inner surface of the coupler into engagement with threads of the threaded outer surface of the interface port to provide electrical continuity between the coupler and the threaded outer surface of interface port even when the coupler is loosely tightened to the interface port, characterized by the fact that the resilient member (270, 370) is arranged between the interface port (14, 150, 250) and the cable connector (2, 110, 310) in a radial direction relative to a longitudinal axis of the interface port. an interface port (14, 150, 250) having a first end with a threaded outer surface (162, 262); a cable connector (2, 110, 310) including a coupler (116, 316) having a threaded inner surface (126, 326), the coupler being configured to rotatably couple the threaded inner surface with the threaded outer surface of the first end of the interface port; and a resilient member (270, 370) arranged between the interface port and the coupler, the resilient member urging threads of the threaded inner surface of the coupler into engagement with threads of the threaded outer surface of the interface port to provide electrical continuity between the coupler and the threaded outer surface of interface port even when the coupler is loosely tightened to the interface port, characterized by the fact that the resilient member (270, 370) is arranged between the interface port (14, 150, 250) and the cable connector (2, 110, 310) in a radial direction relative to a longitudinal axis of the interface port.
A method for producing a hydrogenated conjugated diene polymer latex, comprising: a hydrogenation step of dissolving or dispersing a hydrogenation catalyst containing a platinum group element in a latex of a conjugated diene polymer to hydrogenate a carbon-carbon unsaturated bond in the conjugated diene polymer; and an insoluble complex formation step of complexing the platinum group element in the latex with a complexing agent to form an insoluble complex; wherein pH of the latex at the insoluble complex formation step is adjusted in a range of 5.0 to 8.0, and in the insoluble complex formation step, the insoluble complex is formed by adding a solution or a dispersion containing the complexing agent to the latex. a hydrogenation step of dissolving or dispersing a hydrogenation catalyst containing a platinum group element in a latex of a conjugated diene polymer to hydrogenate a carbon-carbon unsaturated bond in the conjugated diene polymer; and an insoluble complex formation step of complexing the platinum group element in the latex with a complexing agent to form an insoluble complex; wherein pH of the latex at the insoluble complex formation step is adjusted in a range of 5.0 to 8.0, and in the insoluble complex formation step, the insoluble complex is formed by adding a solution or a dispersion containing the complexing agent to the latex.
A superconducting cable comprising a superconducting cable core and a storage pipe part storing the superconducting cable core, wherein the superconducting cable core includes a first corrugated pipe, a superconductor provided on the outer peripheral side of the first corrugated pipe, a first heat insulating pipe that is stored in the first corrugated pipe, has a smooth inner peripheral surface, and is made of a first heat insulating material, a first flow passage configured to permit the flow of a coolant for cooling the superconducting cable core in the first heat insulating pipe, and a second flow passage configured to permit the flow of the coolant between an outer peripheral surface of the first corrugated pipe and an inner peripheral surface of the storage pipe part, wherein the first flow passage is further configured to permit the flow of the coolant from the first side toward the side opposite to the first side in a length direction of the superconducting cable core, and wherein the second flow passage is further configured to permit the flow of the coolant discharged from the first flow passage from the side opposite to the first side toward the first side in the length direction of the superconducting cable core. wherein the superconducting cable core includes a first corrugated pipe, a superconductor provided on the outer peripheral side of the first corrugated pipe, a first heat insulating pipe that is stored in the first corrugated pipe, has a smooth inner peripheral surface, and is made of a first heat insulating material, a first flow passage configured to permit the flow of a coolant for cooling the superconducting cable core in the first heat insulating pipe, and a second flow passage configured to permit the flow of the coolant between an outer peripheral surface of the first corrugated pipe and an inner peripheral surface of the storage pipe part, wherein the first flow passage is further configured to permit the flow of the coolant from the first side toward the side opposite to the first side in a length direction of the superconducting cable core, and wherein the second flow passage is further configured to permit the flow of the coolant discharged from the first flow passage from the side opposite to the first side toward the first side in the length direction of the superconducting cable core.
A system comprising a placement structure (500,600,650) in combination with an implantable device, said implantable device having at least two electrodes (112a,112b) proximate to neural or muscular tissue, said placement structure (500,600,650) comprising: a holder comprised of elastic material, having a hollow elongate cavity (506,608) retaining the implantable device, the hollow elongate cavity (506, 508) having an axial dimension of less than 60 mm and a lateral dimension of less than 6 mm, such that the implantable device is snapped into the cavity (506,608) and is held by the elasticity of the holder; at least one set of elastic wings for capturing neural / muscular tissue; and wherein said placement structure (500,600,650) is primarily formed from a biocompatible plastic. a holder comprised of elastic material, having a hollow elongate cavity (506,608) retaining the implantable device, the hollow elongate cavity (506, 508) having an axial dimension of less than 60 mm and a lateral dimension of less than 6 mm, such that the implantable device is snapped into the cavity (506,608) and is held by the elasticity of the holder; at least one set of elastic wings for capturing neural / muscular tissue; and wherein said placement structure (500,600,650) is primarily formed from a biocompatible plastic.
A system, comprising: an image data processor configured to: receive image data from a camera image sensor; generate a brightness representation for an image comprising luminance data based on the received image data; and generate, for each of a plurality of blocks of the image, a respective luminance histogram based on the received image data; a target luminance component configured to: apply a tone adjustment algorithm to the brightness representation to generate target luminance values for each of the plurality of blocks and modify the luminance data of the brightness representation to generate a modified brightness representation that comprises the target luminance values for each of the plurality of blocks; and a local tone curve generator configured to: determine one or more tone adjustment values for each of the plurality of blocks, wherein the tone adjustment values for a block, when jointly applied to the respective luminance histograms for the block and one or more neighboring blocks generates luminance values that match respective target luminance values for the block and the neighboring blocks; wherein the image data processor is further configured to: adjust image data for a current image based on the one or more tone adjustment values. receive image data from a camera image sensor; generate a brightness representation for an image comprising luminance data based on the received image data; and generate, for each of a plurality of blocks of the image, a respective luminance histogram based on the received image data; a target luminance component configured to: apply a tone adjustment algorithm to the brightness representation to generate target luminance values for each of the plurality of blocks and modify the luminance data of the brightness representation to generate a modified brightness representation that comprises the target luminance values for each of the plurality of blocks; and a local tone curve generator configured to: determine one or more tone adjustment values for each of the plurality of blocks, wherein the tone adjustment values for a block, when jointly applied to the respective luminance histograms for the block and one or more neighboring blocks generates luminance values that match respective target luminance values for the block and the neighboring blocks; wherein the image data processor is further configured to: adjust image data for a current image based on the one or more tone adjustment values.
Method for monitoring the temperature of at least one LED as an illuminant of a light fixture, having the following steps: i) arranging an infrared sensor in a light fixture housing of the light fixture and outside of a light-emission angle of the illuminant; ii) arranging the light fixture in an area at risk of explosion; iii) measuring a heat radiation of the illuminant by means of the infrared sensor; iv) evaluating the infrared sensor signal for determining the temperature of the illuminant; and v) switching off the illuminant when the determined temperature value exceeds a predetermined, maximum temperature limit value in order to prevent ignition in the area at risk of explosion by an overheated illuminant. i) arranging an infrared sensor in a light fixture housing of the light fixture and outside of a light-emission angle of the illuminant; ii) arranging the light fixture in an area at risk of explosion; iii) measuring a heat radiation of the illuminant by means of the infrared sensor; iv) evaluating the infrared sensor signal for determining the temperature of the illuminant; and v) switching off the illuminant when the determined temperature value exceeds a predetermined, maximum temperature limit value in order to prevent ignition in the area at risk of explosion by an overheated illuminant.
A blister pack (110,210) comprising: - a backing (112, 212); - a cover (114, 214) being configured to attach to at least a portion of the backing, the cover and backing in combination being configured to form at least one sealed cavity (118, 218) for containing at least one product (117, 217) therein; and - at least one active member (116, 216) being configured to fit within the at least one sealed cavity, characterized in that the at least one active member includes a depression therein or an opening extending therethrough, or both, the active member being configured to surround the product or support the product in the depression, the product (117, 217) being within the at least one sealed cavity (118, 218). - a backing (112, 212); - a cover (114, 214) being configured to attach to at least a portion of the backing, the cover and backing in combination being configured to form at least one sealed cavity (118, 218) for containing at least one product (117, 217) therein; and - at least one active member (116, 216) being configured to fit within the at least one sealed cavity, characterized in that the at least one active member includes a depression therein or an opening extending therethrough, or both, the active member being configured to surround the product or support the product in the depression, the product (117, 217) being within the at least one sealed cavity (118, 218).
An antagonist of the FGFR3 of formula: or a composition comprising such an antagonist, for use in the treatment or prevention of FGFR3-related skeletal disease.
A mold for forming a single-use floss holder containing a length of dental floss comprising a wax composition applied thereto, said mold comprising: a first part comprising a first cavity disposed therein, said first cavity defined by a bottom base surface and a peripheral sidewall, said first cavity comprising, a base portion, and first and second spaced-apart portions having proximal (100h, 100i) and distal (100j, 100k) sections, and extending from said base portion, a second part comprising a second cavity disposed therein, said second cavity defined by a bottom base surface and a peripheral sidewall, said second cavity comprising, a base portion, and first and second spaced-apart portions having proximal (110h, 110i) and distal (110j, 110k) sections, said later portions extending from said base portion and terminating in said distal section; and a groove having first and second terminal sections and a mid-section, said groove extending an entire width of said second part, said first and second terminal sections of said groove traversing and coincident with said distal section of said first and second spaced-apart portions, respectively, said groove having an aspect ratio (width:depth) of 10:1 or greater. a first part comprising a first cavity disposed therein, said first cavity defined by a bottom base surface and a peripheral sidewall, said first cavity comprising, a base portion, and first and second spaced-apart portions having proximal (100h, 100i) and distal (100j, 100k) sections, and extending from said base portion, a base portion, and first and second spaced-apart portions having proximal (100h, 100i) and distal (100j, 100k) sections, and extending from said base portion, a second part comprising a second cavity disposed therein, said second cavity defined by a bottom base surface and a peripheral sidewall, said second cavity comprising, a base portion, and first and second spaced-apart portions having proximal (110h, 110i) and distal (110j, 110k) sections, said later portions extending from said base portion and terminating in said distal section; and a groove having first and second terminal sections and a mid-section, said groove extending an entire width of said second part, said first and second terminal sections of said groove traversing and coincident with said distal section of said first and second spaced-apart portions, respectively, said groove having an aspect ratio (width:depth) of 10:1 or greater. a base portion, and first and second spaced-apart portions having proximal (110h, 110i) and distal (110j, 110k) sections, said later portions extending from said base portion and terminating in said distal section; and a groove having first and second terminal sections and a mid-section, said groove extending an entire width of said second part, said first and second terminal sections of said groove traversing and coincident with said distal section of said first and second spaced-apart portions, respectively, said groove having an aspect ratio (width:depth) of 10:1 or greater.
A door hinge arrangement having a mounting plate for fastening to a door frame, a door hinge, which can be fastened to the mounting plate, and a bracket disposed at the mounting plate having a spindle, wherein the door hinge is supported on the bottom side of the spindle, wherein the bracket, which is embodied as separate component, is held in a guide recess of the mounting plate by means of a sliding seat in a form-fitting manner and is supported on a stop surface, which bounds the guide recess on the bottom side, under the impact of a load, which is transferred from the door hinge to the spindle, and is fixed in the guide recess through this.
A resin composition comprising an ethylene-acrylic acid alkyl ester copolymer, a graft copolymer, and a styrene-based elastomer, wherein the graft copolymer is obtained by a reaction among an ethylene-acrylic acid alkyl ester copolymer, a monomer component containing at last one monomer selected from the group consisting of a (meth)acrylic acid alkyl ester monomer and an aromatic vinyl monomer, and t-butyl peroxymethacryloyloxyethyl carbonate, the styrene-based elastomer is one or more block copolymers selected from the group consisting of a styrene-ethylene-propylene block copolymer, a styrene-ethylene-butylene-styrene (SEBS) block copolymer, a styrene-ethylene-propylene-styrene (SEPS) block copolymer, and a styrene-ethylene-ethylene-propylene-styrene (SEEPS) block copolymer, and a weight ratio between the ethylene-acrylic acid alkyl ester copolymer and the monomer component ( /) is 50/50 to 98/2. the graft copolymer is obtained by a reaction among an ethylene-acrylic acid alkyl ester copolymer, a monomer component containing at last one monomer selected from the group consisting of a (meth)acrylic acid alkyl ester monomer and an aromatic vinyl monomer, and t-butyl peroxymethacryloyloxyethyl carbonate, the styrene-based elastomer is one or more block copolymers selected from the group consisting of a styrene-ethylene-propylene block copolymer, a styrene-ethylene-butylene-styrene (SEBS) block copolymer, a styrene-ethylene-propylene-styrene (SEPS) block copolymer, and a styrene-ethylene-ethylene-propylene-styrene (SEEPS) block copolymer, and a weight ratio between the ethylene-acrylic acid alkyl ester copolymer and the monomer component ( /) is 50/50 to 98/2.
A cell bag rotator (10, 100), comprising: a rotator (20, 120) including a rotation rod (30, 130) driven by the rotator; a rotator rod connector (70, 170) coupled to a distal end of the rotation rod (30, 130); a bag holder (42, 142), comprising: a plurality of plates (40, 140) for holding a respective plurality of cell bags (90, 190) in an orientation perpendicular to the rotation rod, wherein each of the plates includes at least one respective fastener (80, 180) for attaching to a cell bag and wherein the rotator rod connector (70, 170) is attached to a first plate of the plurality of plates (40, 140) of the bag holder (42, 142) to couple the rotation rod to the bag holder; and a plurality of structural rods (50, 150) for holding the plates parallel to each other and for spacing each of the plates apart from one another by a distance, the distance corresponding to a thickness of the cell bags, wherein the rotator is enabled to rotate the bag holder to collectively agitate the cell bags in a uniform manner; a support rod connector attached to the bag holder at an opposite end from the rotator rod connector; and a support rod attached to the support rod connector. a rotator (20, 120) including a rotation rod (30, 130) driven by the rotator; a rotator rod connector (70, 170) coupled to a distal end of the rotation rod (30, 130); a bag holder (42, 142), comprising: a plurality of plates (40, 140) for holding a respective plurality of cell bags (90, 190) in an orientation perpendicular to the rotation rod, wherein each of the plates includes at least one respective fastener (80, 180) for attaching to a cell bag and wherein the rotator rod connector (70, 170) is attached to a first plate of the plurality of plates (40, 140) of the bag holder (42, 142) to couple the rotation rod to the bag holder; and a plurality of structural rods (50, 150) for holding the plates parallel to each other and for spacing each of the plates apart from one another by a distance, the distance corresponding to a thickness of the cell bags, wherein the rotator is enabled to rotate the bag holder to collectively agitate the cell bags in a uniform manner; a plurality of plates (40, 140) for holding a respective plurality of cell bags (90, 190) in an orientation perpendicular to the rotation rod, wherein each of the plates includes at least one respective fastener (80, 180) for attaching to a cell bag and wherein the rotator rod connector (70, 170) is attached to a first plate of the plurality of plates (40, 140) of the bag holder (42, 142) to couple the rotation rod to the bag holder; and a plurality of structural rods (50, 150) for holding the plates parallel to each other and for spacing each of the plates apart from one another by a distance, the distance corresponding to a thickness of the cell bags, wherein the rotator is enabled to rotate the bag holder to collectively agitate the cell bags in a uniform manner; a support rod connector attached to the bag holder at an opposite end from the rotator rod connector; and a support rod attached to the support rod connector.
Method of renewable energy storage comprising the step of filling a tank with a substance held at high temperature and pressure for conversion into electrical energy characterized by the step of accumulating energy by heating the substance in the tank and thereby increasing pressure and temperature of the substance; use of a sensor to give the information to a control system about an actual stream of renewable energy and based on this information, the control system steers: a converter, a valve module, a first heat exchanger, a valve, a turbine, a second exchanger and a control module of an additional generator; the control system uses the energy accumulated in the rotating mass of the turbine to generate electrical energy which is transferred to the grid.