mhurhangee/ep-ind-claims huggingface dataset:
A catheter device, comprising a catheter for introduction into a living being, as well as at least one lumen (69, 70, 74, 79) for leading a fluid flow within a part of the catheter device as well as comprising a valve for the control of the fluid flow or a rinsing fluid through the catheter, with a valve control space (12, 12a), in which a feed channel merges with a feed opening and a discharge channel merges with a discharge opening, and with a closure element (5, 13, 17) which is movable in a controlled manner in the valve control space (12, 12a) and which in at least one first position closes the discharge opening, in at least one second position closes the feed opening and in at least one third position holds open a connection channel between the feed opening and the discharge opening, wherein a valve drive (A, A', B, B', 3, 14, 18) is provided which selectively moves the closure element (5, 13, 17) at least into the first, second or third position, wherein the at least one lumen (69, 70, 74, 79) is connected in a fluid-leading manner to the feed channel or the discharge channel, wherein the catheter comprises a rotatable shaft, wherein the rotatable shaft is flexible, in particular flexible in a manner such that it can be adapted to the curvature of a human aortic arch, wherein a drive device (66, 67) which can be placed outside the living being can be applied for driving the shaft, wherein the catheter is designed as a catheter pump, in particular as an expandable catheter pump, wherein the valve control space (12, 12a) can be separated from the valve drive of the closure element (5, 13, 17) in a non-destructive manner, wherein a part of the closure element consists of a magnet body and the valve drive comprises a magnetic field producing device for moving the closure element between the various positions.
A positive electrode active material for lithium secondary batteries, comprising: a lithium composite metal compound containing secondary particles formed by aggregation of primary particles; and a lithium-containing tungsten oxide, wherein the lithium-containing tungsten oxide is present at least in interparticle spaces of the primary particles, and in a pore distribution of the positive electrode active material for lithium secondary batteries measured by a mercury intrusion method, a pore surface area of pores having a pore diameter in a range of 10 nm or more to 200 nm or less is 0.6 m 2 /g or more and 2.5 m 2 /g or less. a lithium composite metal compound containing secondary particles formed by aggregation of primary particles; and a lithium-containing tungsten oxide, wherein the lithium-containing tungsten oxide is present at least in interparticle spaces of the primary particles, and in a pore distribution of the positive electrode active material for lithium secondary batteries measured by a mercury intrusion method, a pore surface area of pores having a pore diameter in a range of 10 nm or more to 200 nm or less is 0.6 m 2 /g or more and 2.5 m 2 /g or less.
An electrode for a secondary battery comprising: a base material; an intermediate layer comprising a carbon material which comprises graphene nano-sheets on the base material; and an active material layer on the intermediate layer. a base material; an intermediate layer comprising a carbon material which comprises graphene nano-sheets on the base material; and an active material layer on the intermediate layer.
A mount for temperature stabilization of optical components with improved temperature responsiveness of an optomechanic assembly together with uniform heat supply or removal from the entire side surfaces of the optical component, comprising - an optical element (a1, b1), - a holder (a4, b5), - a pressing cover (a5, b4), - a rectangular cavity, which is formed by a triangular cavity of the holder (a4, b5) and a triangular cavity of the pressing cover (a5, b4), wherein the rectangular cavity receives the optical element (a1, b1), - heat conductive brackets (a2 and a3; b2 and b3), which surround the majority of the perimeter of the optical element (a1, b1) and are adapted to the shape of the optical element (a1, b1) and the holder (a4, b5) and the pressing cover (a5, b4), - a heating/cooling element (a6, b6), which thermally regulates the heat conductive brackets (a2 and a3, b2 and b3), characterized in that the holder (a4, b5) and the pressing cover (a5, b4) are made of a material with different thermal conductivity; that when the holder (a4, b5) is made of a material with high thermal conductivity, then the pressing cover (a5, b4) is made of a material with low thermal conductivity, thereby the holder (a4, b5) becoming a thermally active part and the pressing cover (a5, b4) thermally inactive part, the thermally active part also including the optical element (a1, b1), the heat conductive brackets (a2 and a3, b2 and b3) and the heating/cooling element (a6, b6);; that when the holder (a4, b5) is made of a material with low thermal conductivity, then the pressing cover (a5, b4) is made of a material with high thermal conductivity, thereby the holder (a4, b5) becoming a thermally inactive part and the pressing cover (a5, b4) a thermally active part, the thermally active part also including the optical element (a1, b1), the heat conductive brackets (a2 and a3, b2 and b3) and the heating/cooling element (a6, b6); that the thermally active part and the thermally inactive part are disconnected with point or line contacts placed between said thermally active part and said thermally inactive part, wherein the point contacts are steel balls and line contacts are cylinders. - an optical element (a1, b1), - a holder (a4, b5), - a pressing cover (a5, b4), - a rectangular cavity, which is formed by a triangular cavity of the holder (a4, b5) and a triangular cavity of the pressing cover (a5, b4), wherein the rectangular cavity receives the optical element (a1, b1), - heat conductive brackets (a2 and a3; b2 and b3), which surround the majority of the perimeter of the optical element (a1, b1) and are adapted to the shape of the optical element (a1, b1) and the holder (a4, b5) and the pressing cover (a5, b4), - a heating/cooling element (a6, b6), which thermally regulates the heat conductive brackets (a2 and a3, b2 and b3),
A method for detecting H. pylori infection in a subject, wherein the method comprises detecting in a sample from the subject an immune response against FliD, wherein the immune response comprises an anti-FliD antibody, wherein the method comprises reacting the sample with FliD or a fragment thereof, wherein the fragment has an amino acid sequence which is long enough so as to identify the fragment to be a fragment of FliD and to exclude that the fragment is a fragment of a protein or polypeptide different from FliD.
A luminaire module comprising: a memory element for storing lighting system related information; and an interface circuit for providing access to the memory element for a driver of the luminaire module; wherein the interface circuit is configured to provide access to the memory element by coupling the memory element to at least one connection line connectable to the driver, wherein the driver is for driving at least one light source of the luminaire module via the at least one connection line, wherein the interface circuit comprises an isolating element (231; 534; 331) configured to isolate the memory element from the at least one light source during a driving mode for driving the at least one light source, the luminaire module being characterized in that the lighting system related information comprises driving parameters for at least one of the luminaire module and the at least one light source. a memory element for storing lighting system related information; and an interface circuit for providing access to the memory element for a driver of the luminaire module; wherein the interface circuit is configured to provide access to the memory element by coupling the memory element to at least one connection line connectable to the driver, wherein the driver is for driving at least one light source of the luminaire module via the at least one connection line, wherein the interface circuit comprises an isolating element (231; 534; 331) configured to isolate the memory element from the at least one light source during a driving mode for driving the at least one light source, the luminaire module being characterized in that the lighting system related information comprises driving parameters for at least one of the luminaire module and the at least one light source.
A filter comprising: a substrate; an input line formed on the substrate and including an input terminal at an input end of the input line; an output line formed on the substrate and including an output terminal at an output end of the output line; and characterised by further comprising: a first pair of resonant lines (12b, 12c) connected between a ground portion and a first contact point that is connected to the input line via a signal line; a second pair of resonant lines (12e, 12f) connected between the ground portion and a second contact point that is connected to the output line via the signal line; and a coupling section provided between the first contact point and the second contact point; wherein the coupling section includes either a π type coupling circuit or a T type coupling circuit. a substrate; an input line formed on the substrate and including an input terminal at an input end of the input line; an output line formed on the substrate and including an output terminal at an output end of the output line; and characterised by further comprising: a first pair of resonant lines (12b, 12c) connected between a ground portion and a first contact point that is connected to the input line via a signal line; a second pair of resonant lines (12e, 12f) connected between the ground portion and a second contact point that is connected to the output line via the signal line; and a coupling section provided between the first contact point and the second contact point; wherein the coupling section includes either a π type coupling circuit or a T type coupling circuit. a first pair of resonant lines (12b, 12c) connected between a ground portion and a first contact point that is connected to the input line via a signal line; a second pair of resonant lines (12e, 12f) connected between the ground portion and a second contact point that is connected to the output line via the signal line; and a coupling section provided between the first contact point and the second contact point; wherein the coupling section includes either a π type coupling circuit or a T type coupling circuit.
An antenna module, including: an integrated circuit, IC, package, wherein the IC package includes a die and a package substrate, the package substrate includes a first face and an opposing second face, the die is coupled to the first face of the package substrate, and the second face of the package substrate has a recess therein, and a first antenna patch and a second antenna patch coupled to the IC package, wherein the first antenna patch is over or at least partially in the recess, the second antenna patch is between the first antenna patch and the package substrate, and a first air cavity is present between the second antenna patch and a bottom surface of the recess and a second air cavity is present between the first antenna patch and the second antenna patch. an integrated circuit, IC, package, wherein the IC package includes a die and a package substrate, the package substrate includes a first face and an opposing second face, the die is coupled to the first face of the package substrate, and the second face of the package substrate has a recess therein, and a first antenna patch and a second antenna patch coupled to the IC package, wherein the first antenna patch is over or at least partially in the recess, the second antenna patch is between the first antenna patch and the package substrate, and a first air cavity is present between the second antenna patch and a bottom surface of the recess and a second air cavity is present between the first antenna patch and the second antenna patch.
A composition for use in the prevention or treatment of cancer, comprising an interferon alpha conjugate and gemcitabine; wherein the interferon alpha conjugate is a conjugate in which interferon alpha and an immunoglobulin Fc region are covalently linked via a non-peptidyl polymer; and wherein the non-peptidyl polymer is selected from the group consisting of polyethylene glycol, polypropylene glycol, a copolymer of ethylene glycol-propylene glycol, polyoxyethylated polyol, polyvinyl alcohol, polysaccharide, dextran, polyvinyl ethyl ether, polylactic acid, polylactic-glycolic acid, lipopolymers, chitins, hyaluronic acid, and a combination thereof.
Three-way valve structure consisting of a main valve body equipped with an inlet channel and two outlet channels (3, 4) having an interior obturator element housed in the interior of the main valve body and actuated by means of an exterior valve key, the cited inlet channel being capable of communicating internally with the outlet channels (3, 4), wherein the outlet channels (3, 4) referred to are arranged perpendicular to each other, both outlet channels (3, 4) being in the same plane perpendicular to the cited inlet channel, while the obturator element referred to has a surrounding cylindrical shape and is introduced through the inlet channel; the main valve body ends in a flat face in the upper part thereof, said structure being characterized in that the flat face has four indentations distributed crosswise at 90° to each other, on which a positioning washer of the valve key is supported; said positioning washer having a flat shape with at least two diametrically opposing projections and being capable of fitting in the indentations by means of a flexible joining, the shape of a central hole of the positioning washer matching the exterior key seat shape of a rod of the obturator element; and wherein the positioning washer and the two projections form a single piece.
Transceiver of a wireless communication system, wherein the transceiver is configured to operate in a sidelink in-coverage, out of coverage or partial coverage scenario, in which resources for a sidelink communication are (pre-)configured by the wireless communication system or allocated or scheduled autonomously by the transceiver, wherein the transceiver is configured to receive a sidelink discovery signal from another transceiver of the wireless communication system, wherein the transceiver is configured or capable to act as a relay for the other transceiver, if a discovery or sidelink criterion is fulfilled, signals in at least one direction between the other transceiver and a further transceiver of the wireless communication system, characterized in that the sidelink discovery signal is transmitted via a discovery channel, wherein the discovery channel is defined by a destination ID. wherein the transceiver is configured to operate in a sidelink in-coverage, out of coverage or partial coverage scenario, in which resources for a sidelink communication are (pre-)configured by the wireless communication system or allocated or scheduled autonomously by the transceiver, wherein the transceiver is configured to receive a sidelink discovery signal from another transceiver of the wireless communication system, wherein the transceiver is configured or capable to act as a relay for the other transceiver, if a discovery or sidelink criterion is fulfilled, signals in at least one direction between the other transceiver and a further transceiver of the wireless communication system, characterized in that the sidelink discovery signal is transmitted via a discovery channel, wherein the discovery channel is defined by a destination ID.
Pull-out extension ladder for fire fighting purposes made of composite materials with at least a first and second ladder part (0, 0'), comprising first and second stiles (1, 1') to which a plurality of rungs (2, 2') are attached along a longitudinal axis extending transversely to the stiles (1, 1'), wherein stiles (1, 1') and rungs (2, 2') comprise laminates consisting of a plurality of laminate layers, which completely surround the components and are non-detachably attached by means of a resin, wherein a tongue and groove system is formed extending completely along the stiles (1, 1') in direction of the longitudinal axis, formed by integrally formed cranked end portions along the first stiles and integrally formed cranked end portions along the second stiles, so that a secured and guided linear relative movement of the first ladder part to the second ladder part in direction of the longitudinal axis is achievable when using a pull-rope mechanism, characterized in that within the stiles (1, 1') at least one core is arranged, which is shaped board-like with constant cross-sectional area, completely enveloped in a composite laminate.
A piezoelectric element comprising: a first electrode; a second electrode; and a piezoelectric layer which is provided between the first electrode and the second electrode, and is formed of a perovskite type oxide which contains potassium, sodium, niobium, and manganese, wherein, in the piezoelectric layer, a proportion of an A-site constituent element of the perovskite type oxide is smaller than a proportion of a B-site constituent element thereof, characterized in that in XRD measurement of the piezoelectric layer, two or more peaks derived from the perovskite type oxide are provided in a range of 44°<2θ<48°, and an intensity ratio X/Y between a peak X having the highest intensity among the peaks, and a peak Y having the lowest intensity satisfies 2.0<X/Y, and the perovskite type oxide constituting the piezoelectric layer is represented by one of the following formulae: (K 0.4 Na 0.6) 0.90 (Nb 0.995 Mn 0.005)O 3 and (K 0.4 Na 0.6) 0.94 (Nb 0.995 Mn 0.005)O 3. a first electrode; a second electrode; and a piezoelectric layer which is provided between the first electrode and the second electrode, and is formed of a perovskite type oxide which contains potassium, sodium, niobium, and manganese, wherein, in the piezoelectric layer, a proportion of an A-site constituent element of the perovskite type oxide is smaller than a proportion of a B-site constituent element thereof, characterized in that in XRD measurement of the piezoelectric layer, two or more peaks derived from the perovskite type oxide are provided in a range of 44°<2θ<48°, and an intensity ratio X/Y between a peak X having the highest intensity among the peaks, and a peak Y having the lowest intensity satisfies 2.0<X/Y, and the perovskite type oxide constituting the piezoelectric layer is represented by one of the following formulae: (K 0.4 Na 0.6) 0.90 (Nb 0.995 Mn 0.005)O 3 and (K 0.4 Na 0.6) 0.94 (Nb 0.995 Mn 0.005)O 3.
A method for determining a signature of peanut allergens in an aqueous medium comprising: digesting peanut allergens present in an aqueous medium to generate allergen digest products; fragmenting the allergen digest products to generate peptide fragments; and determining the signature of allergen digest products of peanut allergens of the aqueous medium by detecting the peptide fragments, wherein the signature comprises each of Ara h1, Ara h2, Ara h3, and Ara h6 digest products; and wherein the allergen digest products comprise the amino acid sequences of SEQ ID NO:17, SEQ ID NO:70, SEQ ID NO:177, SEQ ID NO:155, SEQ ID NO:93, SEQ ID NO:40, SEQ ID SEQ ID NO: 197, SEQ ID NO: 198, SEQ ID NO:199, SEQ ID NO:200, SEQ ID NO:201, SEQ ID NO:236 and SEQ ID NO:237. digesting peanut allergens present in an aqueous medium to generate allergen digest products; fragmenting the allergen digest products to generate peptide fragments; and determining the signature of allergen digest products of peanut allergens of the aqueous medium by detecting the peptide fragments, wherein the signature comprises each of Ara h1, Ara h2, Ara h3, and Ara h6 digest products; and wherein the allergen digest products comprise the amino acid sequences of SEQ ID NO:17, SEQ ID NO:70, SEQ ID NO:177, SEQ ID NO:155, SEQ ID NO:93, SEQ ID NO:40, SEQ ID SEQ ID NO: 197, SEQ ID NO: 198, SEQ ID NO:199, SEQ ID NO:200, SEQ ID NO:201, SEQ ID NO:236 and SEQ ID NO:237.
A valve (10, 310) for controlling the flow of fluid, said valve being suitable to operate at frequencies of 20 kHz or higher, comprising: a first plate having apertures extending generally perpendicular through said first plate, wherein the apertures in the first plate are less than 500 μm in diameter; a second plate having first apertures extending generally perpendicular through said second plate, the first apertures being substantially offset from the apertures of said first plate; a spacer disposed between said first plate and said second plate to form a cavity therebetween in fluid communication with the apertures of said first plate and the first apertures of said second plate; and a flap disposed and moveable between said first plate and said second plate, said flap having apertures substantially offset from the apertures of said first plate and substantially aligned with the first apertures of said second plate; wherein the flap has a thickness of less than 45 μm, whereby said flap is operable to be motivated between said first and second plates (16, 14) in response to a change in direction of the differential pressure of the fluid across said valve. a first plate having apertures extending generally perpendicular through said first plate, wherein the apertures in the first plate are less than 500 μm in diameter; a second plate having first apertures extending generally perpendicular through said second plate, the first apertures being substantially offset from the apertures of said first plate; a spacer disposed between said first plate and said second plate to form a cavity therebetween in fluid communication with the apertures of said first plate and the first apertures of said second plate; and a flap disposed and moveable between said first plate and said second plate, said flap having apertures substantially offset from the apertures of said first plate and substantially aligned with the first apertures of said second plate; wherein the flap has a thickness of less than 45 μm, whereby said flap is operable to be motivated between said first and second plates (16, 14) in response to a change in direction of the differential pressure of the fluid across said valve.