mhurhangee/ep-ind-claims huggingface dataset:
A synthetic resin ampule body for a drug-filled ampule, comprising a tip-side sealing portion, a hollow portion having a drug containing portion, and an annular breakable portion provided between a lower portion of the tip-side sealing portion and an upper portion of the hollow portion; wherein the breakable portion includes an annular smallest diameter portion, and the tip-side sealing portion includes a flat plate portion for grasping formed at an upper portion thereof and an internal ceiling portion exposed to an interior of the hollow portion; characterized in that the smallest diameter portion of the breakable portion is located near an annular circumferential edge portion of the internal ceiling portion of the tip-side sealing portion and is located above the annular circumferential edge portion of the internal ceiling portion of the tip-side sealing portion, and the drug containing portion is opened when the ampule body is broken at the breakable portion. a tip-side sealing portion, a hollow portion having a drug containing portion, and an annular breakable portion provided between a lower portion of the tip-side sealing portion and an upper portion of the hollow portion; wherein the breakable portion includes an annular smallest diameter portion, and the tip-side sealing portion includes a flat plate portion for grasping formed at an upper portion thereof and an internal ceiling portion exposed to an interior of the hollow portion; characterized in that the smallest diameter portion of the breakable portion is located near an annular circumferential edge portion of the internal ceiling portion of the tip-side sealing portion and is located above the annular circumferential edge portion of the internal ceiling portion of the tip-side sealing portion, and the drug containing portion is opened when the ampule body is broken at the breakable portion.
A method for using an active sonar comprising an acoustic antenna having a continuous bandwidth having a spectral emission width of at least two octaves and an electronic system for generating signals for controlling said acoustic antenna, the method being characterised in that it comprises: - dynamically selecting a plurality of separate sonar functioning or operating modalities selected from among escorting, surveillance, tracking, deterring and communicating, each using a different fraction of the emission bandwidth of the acoustic antenna, called channel; and - using the electronic system to generate a plurality of signals for controlling said acoustic antenna corresponding to the selected functioning modalities, said electronic system being adapted to allow the sonar to function according to a plurality of independent and simultaneous operating modalities. - dynamically selecting a plurality of separate sonar functioning or operating modalities selected from among escorting, surveillance, tracking, deterring and communicating, each using a different fraction of the emission bandwidth of the acoustic antenna, called channel; and - using the electronic system to generate a plurality of signals for controlling said acoustic antenna corresponding to the selected functioning modalities, said electronic system being adapted to allow the sonar to function according to a plurality of independent and simultaneous operating modalities.
A time-division duplex, TDD, wireless communication method in which a first base station (eNB A) uses multiple antenna ports in MIMO communication with terminals (UE A, UE B) in a first cell (cell A), the MIMO communications to the terminals being performed with application of a respective precoder, the method characterized by, in the first base station (eNB A): determining information about a MIMO channel (H AB) between the first base station (eNB A) and a first said terminal (UE B); transmitting data to the first said terminal (UE B) via the channel (H AB); detecting that the first said terminal (UE B) is subject to interference from a second cell (cell B); storing the information about the channel (H AB) and handing over the first said terminal (UE B) to the second cell (cell B); obtaining information on a resource allocation (RB B) to the first said terminal (UE B) in the second cell; finding an interference-reducing precoder (V 0) on the basis of the stored information about the channel (H AB); selecting a second said terminal (UE A) in the first cell (cell A) with which to precode communications by the interference-reducing precoder; and performing wireless communications with the second said terminal (UE A) with application of the interference-reducing precoder and using a resource allocation in the first cell which includes said resource allocation (RB B) to the first said terminal in the second cell. determining information about a MIMO channel (H AB) between the first base station (eNB A) and a first said terminal (UE B); transmitting data to the first said terminal (UE B) via the channel (H AB); detecting that the first said terminal (UE B) is subject to interference from a second cell (cell B); storing the information about the channel (H AB) and handing over the first said terminal (UE B) to the second cell (cell B); obtaining information on a resource allocation (RB B) to the first said terminal (UE B) in the second cell; finding an interference-reducing precoder (V 0) on the basis of the stored information about the channel (H AB); selecting a second said terminal (UE A) in the first cell (cell A) with which to precode communications by the interference-reducing precoder; and performing wireless communications with the second said terminal (UE A) with application of the interference-reducing precoder and using a resource allocation in the first cell which includes said resource allocation (RB B) to the first said terminal in the second cell.
An electrical duct box including a front plate provided with at least one power socket; a wire housing for internal conduit connections of the electrical duct box, said wire housing being arranged, when seen at the front of the electrical duct box, on the side of the front plate, behind the power socket; and a fixed connector unit provided with an electric connector for connecting at least the wires of the input cable (15; 15 1); cable fastening elements for at least the input cable (15; 15 1); a wire space for at least the wires of the input cable (15; 15 1); and a shielding cover for protecting at least the connections of the input cable (15; 15 1); through which connector unit the electrical duct box is meant to be connected, by the input cable (15; 15 1), to a power mains or to a respective source of electricity, characterized in that the connector unit is arranged, with respect to the front plate, on the opposite side of the electrical duct box, on the side of the wire housing.
Household refrigeration appliance having a heat-insulated inner container which delimits a coolable interior for storing foodstuffs, a refrigeration device for cooling the coolable interior, a door leaf mounted relative to the inner container in an articulated manner relative to an axis by means of hinges for opening and closing the coolable interior, wherein at least one of the hinges is configured as a self-closing hinge capable of automatically closing the door leaf to a first opening angle (α), and an opening aid device which has an actuator and a tappet which can be moved at least indirectly back and forth by means of the actuator between a first position and a second position, and which is configured to enable the door leaf to be closed if the tappet is in the first position thereof, to move the tappet from the first position thereof to the second position thereof in order to push open the closed door leaf by means of the tappet to a second opening angle (β) which is smaller than the first opening angle (α) and to move the tappet automatically into the first position thereof immediately or in a time-delayed manner after the second position has been reached, wherein by pulling on the closed door leaf the opening aid device automatically moves the tappet immediately from the first position thereof into the second position thereof and by pushing on the closed door leaf the opening aid device automatically moves the tappet in a time-delayed manner from the first position thereof into the second position thereof.
A method for forming two different colour laser images from an assembly comprising a substrate, a laserable protective sheet, an array of cylindrical optical lenses, pixels formed by sub-pixels printed in primary colours in the form of parallel columns (C1,C2,C3) characterized in that a laser beam, through the array of optical lenses and via carbonization in the laserable protective sheet opposite each sub-pixel, causes the grey levels to appear of two different colour laser images derived from two photographs of one same subject taken at different angles, and in that these two colour laser images via reverse reflection of ambient light through the array of lenses appear to the observer to be a three-dimensional colour laser image of the subject.
A dual lens driving apparatus comprising: a housing; a first bobbin disposed in the housing; a second bobbin disposed in the housing and spaced apart from the first bobbin; a first coil disposed on the first bobbin; a second coil disposed on the second bobbin; a magnet disposed on the housing and facing the first coil and the second coil; a base disposed below the housing; a substrate comprising a circuit member having a third coil disposed between the housing and the base to face the magnet; and a support member movably supporting the housing with respect to the substrate, wherein the third coil comprises a first axial coil disposed along a first direction, and a second axial coil disposed along a second direction different from the first direction, wherein the first axial coil comprises four first axial coil units each spaced apart, wherein the four first axial coil units are mutually connected, wherein the second axial coil comprises four second axial coil units each mutually spaced apart, wherein the four second axial coil units are mutually connected, and wherein the first axial coil moves the magnet to the second direction and the second axis coil moves the magnet to the first direction. a housing; a first bobbin disposed in the housing; a second bobbin disposed in the housing and spaced apart from the first bobbin; a first coil disposed on the first bobbin; a second coil disposed on the second bobbin; a magnet disposed on the housing and facing the first coil and the second coil; a base disposed below the housing; a substrate comprising a circuit member having a third coil disposed between the housing and the base to face the magnet; and a support member movably supporting the housing with respect to the substrate, wherein the third coil comprises a first axial coil disposed along a first direction, and a second axial coil disposed along a second direction different from the first direction, wherein the first axial coil comprises four first axial coil units each spaced apart, wherein the four first axial coil units are mutually connected, wherein the second axial coil comprises four second axial coil units each mutually spaced apart, wherein the four second axial coil units are mutually connected, and wherein the first axial coil moves the magnet to the second direction and the second axis coil moves the magnet to the first direction.
An electrochemical-based analytical test strip for the determination of an analyte in a blood sample, the electrochemical-based analytical test strip comprising: an electrically insulating base layer; a patterned electrically conductive layer disposed on the electrically insulating base layer and including a plurality of electrodes; an enzymatic reagent layer (140a, 140b) disposed on a portion of the patterned conductive layer to define at least one bare electrode (122, 124) and a plurality of enzymatic reagent covered electrodes (126, 127, 128) from the plurality of electrodes; a patterned spacer layer; a top layer having an underside surface; and a soluble electrochemically-active coating on the underside surface of the top layer; wherein at least the patterned spacer layer and top layer define a sample-receiving chamber within the electrochemical-based analytical test strip; wherein the soluble electrochemically-active coating is disposed on the underside surface of the top layer within at least a portion of the sample-receiving chamber and in an opposing relationship to the at least one bare electrode and not in an opposing relationship to the plurality of reagent covered electrodes; and wherein the soluble electrochemically-active coating is enzyme-free. an electrically insulating base layer; a patterned electrically conductive layer disposed on the electrically insulating base layer and including a plurality of electrodes; an enzymatic reagent layer (140a, 140b) disposed on a portion of the patterned conductive layer to define at least one bare electrode (122, 124) and a plurality of enzymatic reagent covered electrodes (126, 127, 128) from the plurality of electrodes; a patterned spacer layer; a top layer having an underside surface; and a soluble electrochemically-active coating on the underside surface of the top layer;
An optical lens, comprising: a first lens part, including a first lens barrel for sustaining at least one first lens; a second lens part, including a second lens barrel for sustaining at least one second lens, wherein the at least one second lens together with the at least one first lens constitute an imageable optical system; and a first adhesive material, located in a first gap between the first lens part and the second lens part, and adapted for supporting and fixing the first lens part and the second lens part after being cured; wherein, the first lens barrel has a first bottom surface, and the second lens barrel has a second top surface, and an adhesive applying area for arranging the first adhesive material is provided on the first bottom surface and/or the second top surface; and wherein a first adhesive blocking portion is provided on the first bottom surface, and a third adhesive blocking portion is provided on the second top surface; wherein the at least one first lens is mounted in the first lens barrel, and an adhesive applying region arranged with a second adhesive material is between the at least one first lens and the first lens barrel; characterized by wherein a location of the adhesive applying region with the second adhesive material overlaps the third adhesive blocking portion radially, perpendicular to an optical axis direction, avoiding the contact between the first adhesive material and the second adhesive material. a first lens part, including a first lens barrel for sustaining at least one first lens; a second lens part, including a second lens barrel for sustaining at least one second lens, wherein the at least one second lens together with the at least one first lens constitute an imageable optical system; and a first adhesive material, located in a first gap between the first lens part and the second lens part, and adapted for supporting and fixing the first lens part and the second lens part after being cured; wherein, the first lens barrel has a first bottom surface, and the second lens barrel has a second top surface, and an adhesive applying area for arranging the first adhesive material is provided on the first bottom surface and/or the second top surface; and wherein a first adhesive blocking portion is provided on the first bottom surface, and a third adhesive blocking portion is provided on the second top surface; wherein the at least one first lens is mounted in the first lens barrel, and an adhesive applying region arranged with a second adhesive material is between the at least one first lens and the first lens barrel; characterized by wherein a location of the adhesive applying region with the second adhesive material overlaps the third adhesive blocking portion radially, perpendicular to an optical axis direction, avoiding the contact between the first adhesive material and the second adhesive material.
A booklet comprising a book block having at least two sheets, secured together by stitching whereby when the sheets are folded along a fold line substantially parallel with the stitching such that each sheet defines a pair of leaves one on each side of the fold line, the sheets form an innermost sheet and an outermost sheet, wherein an obverse side of the stitching is exposed on the inner surface of the innermost sheet and a reverse side of the stitching is exposed on the outer surface of the outermost sheet; and a cover member having inner and outer surfaces, the inner surface defining first and second cover pages (10A, 10B) one on each side of a cover fold line, wherein the book block is attached to the cover member by attaching a leaf of the book block to the first cover page to define a first end page, the leaf of the book block defining the first end page being selected such that the book block can be opened in two different configurations to reveal respectively the obverse and reverse sides of the stitching without detaching the book block from the cover member.
A hydrostatic packing for a system for sealing the shaft of primary motor-driven pump units of nuclear reactors, intended to provide sealing between the primary circuit and the atmosphere, the packing including an active surface (10, 11) having at least one surface structured by an array of asperities, each asperity having lateral dimensions (D1, D4, D6) between 10 nm and 5 μm, each asperity having a height (H1, H2, H3) between 10 nm and 5 μm, the distance (D2, D3, D5) between two consecutive asperities being between 10 nm and 5 μm, the asperities being holes or pillars.
A compound of formula a pharmaceutically acceptable salt thereof, a hydrate thereof, or a solvate thereof; for use in a method for the treatment and/or prevention of cancer, wherein, R 1 is selected from the group consisting of methyl and hydrogen; R 4 is hydrogen; R 5 is methyl; R 6 is methyl; and R 7 is hydrogen. R 1 is selected from the group consisting of methyl and hydrogen; R 4 is hydrogen; R 5 is methyl; R 6 is methyl; and R 7 is hydrogen.
Insulation device intended to be positioned at a building opening of the door or window type, said device comprising a thermal insulation curtain that itself comprises a flexible screen forming a barrier to air, said device comprising a passage formed through said flexible screen, said curtain being designed to move between a deployed position and a retracted position, said passage being designed to be connected to an air-discharge pipe of a domestic electrical appliance of the air conditioning or tumble dryer type when the curtain is deployed so as to allow the discharge of air out of the building while preserving insulation, characterised in that, in the deployed position, said curtain closes said opening so as to insulate the inside of the building from the outside and in the retracted position said curtain leaves said opening clear, the device comprising: - a drum around which said curtain is intended to be wound when it is situated in the retracted position, said drum being mounted for rotation on a substantially horizontal rotation axis (X-X'), - a guide track (12a-12b) intended to be attached to said opening and designed to guide said curtain between the deployed position thereof and the retracted position thereof, the guide track (12a, 12b) comprising two opposite and parallel hollow rails inside which said curtain is intended to slide, said rails being designed to be attached to the reveal of said opening. - a drum around which said curtain is intended to be wound when it is situated in the retracted position, said drum being mounted for rotation on a substantially horizontal rotation axis (X-X'), - a guide track (12a-12b) intended to be attached to said opening and designed to guide said curtain between the deployed position thereof and the retracted position thereof, the guide track (12a, 12b) comprising two opposite and parallel hollow rails inside which said curtain is intended to slide, said rails being designed to be attached to the reveal of said opening.
Method for forming an aluminium composite material which has a core alloy made from an aluminium alloy of type AA5xxx or AA6xxx and at least one outer aluminium alloy layer provided on one or both sides, wherein the aluminium composite material is formed in a forming tool and the outer aluminium alloy layer provided on one or both sides has a yield strength R p0.2 of 25MPa to 60MPa in the soft or solution-annealed state, characterised in that, k f, outside / k f, core < 0.5 applies for the flow stresses of the aluminium alloys of the core and of the at least one outer layer in the soft or solution-annealed state, the frictional shear stress τ R between the tool and the aluminium composite material in the contact surface reaches the shear flow stress k outside of the outer aluminium alloy layer at at least one local position in the forming tool during the formation of the aluminium composite material and the formation comprises a deep drawing and/or stretch forming procedure and wherein an alloy of type AA6xxx is used as an aluminium core alloy and an aluminium alloy of type AA8xxx is used as at least one outer aluminium alloy layer or an alloy of type AlMg6 is used as an aluminium core alloy and an aluminium alloy of type AA8079, AA1050, AA5005, AA5005A is used as at least one outer aluminium alloy layer.
Linear polyphosphazene compounds represented by the following chemical formula 1. wherein n is an integer from 1 to 300; MPEG represents methoxy poly(ethylene glycol) with a molecular weight of 350 to 1000; S is a space group selected from the group consisting of lysine, arginine, glutamine, asparagine, tyrosine, lysine containing oligopeptide, arginine containing oligopeptide, glutamine containing oligopeptide, asparagine containing oligopeptide, tyrosine containing oligopeptide, amino-ethanol, amino-propanol, amino-butanol, amino-pentanol, and amino-hexanol; 1 equals to 0 ∼ 0.9; m equals to 0.1 ∼ 1 and 1 + m equals to 1.
Method for controlling the temperature inside a cavity of a cooling appliance provided with a first temperature sensor inside said cavity and with means for setting a target temperature inside the cavity, the method comprising the steps of: detecting a second temperature (Tevap, T2) in a zone different from the one where the first temperature sensor is placed, computing a third temperature (Tc) starting from the first and second temperatures (Tp, T1, Tevap, T2), such computation being based on empirical values determined from the actual thermal behaviour of the cavity, and feeding such third temperature (Tc) to a control system of the cooling appliance to which a target temperature (Ts) set by the user is fed as well, characterised in that the zone where the second temperature (Tevap) is detected is on or in the proximity of an evaporator of the refrigeration circuit of the cooling appliance.