mhurhangee/ep-ind-claims huggingface dataset:
Use of a divalent metal salt in a pre-treatment for antithrombin III to be subjected to limulus test, which divalent metal salt is used for subjecting antithrombin III to a protein inactivation treatment in the co-presence of the divalent metal salt, before antithrombin III is subjected to limulus test, wherein the protein inactivation treatment is not an alkali treatment in which the antithrombin III co-present with the divalent metal salt is brought into contact with an alkali, and wherein the antithrombin III is an injection preparation of antithrombin III.
A micro mirror array comprising: a polymer film part (2310, 2320, 2330); and a plurality of mirror surfaces (2325a, 2325b) formed in one layer of the polymer film part (2310, 2320, 2330); and afterglow light absorption layers on the mirror surfaces (2325a, 2325b); wherein the mirror surfaces (2325a, 2325b) are arranged in a lattice arrangement, wherein the mirror surfaces (2325a, 2325b) comprise first surfaces and second surfaces that are perpendicular to each other, wherein the lattice arrangement is constituted by a plurality of quadrangles, wherein the polymer film part is formed to have a single layer, wherein the polymer film part comprises a plurality of unit polymer films, each having mirror surfaces formed on opposite surfaces thereof. a polymer film part (2310, 2320, 2330); and a plurality of mirror surfaces (2325a, 2325b) formed in one layer of the polymer film part (2310, 2320, 2330); and afterglow light absorption layers on the mirror surfaces (2325a, 2325b); wherein the mirror surfaces (2325a, 2325b) are arranged in a lattice arrangement, wherein the mirror surfaces (2325a, 2325b) comprise first surfaces and second surfaces that are perpendicular to each other, wherein the lattice arrangement is constituted by a plurality of quadrangles, wherein the polymer film part is formed to have a single layer, wherein the polymer film part comprises a plurality of unit polymer films, each having mirror surfaces formed on opposite surfaces thereof.
A data carrier having a foil security element that comprises, in a feature region, a photochromic substance whose photochromic properties are permanently modified in a sub-region of the feature region by the action of electromagnetic radiation, characterized in that the modified sub-region forms a hidden marking that, without the action of light on the foil security element, has substantially no contrast to the surrounding regions of the feature region, while the modified sub-region stands out in contrast within the feature region when light acts on the foil security element.
A server for providing sensing data to at least one electronic device, the server comprising: a communication interface configured to communicate with the at least one electronic device; a memory storing at least one instruction; and at least one processor configured to execute the at least one instruction stored in the memory, wherein the at least one processor executes the at least one instruction to: receive, from a first electronic device, a first template including information about a type of sensing data required by the first electronic device and a format of the sensing data, receive a request for the sensing data from the first electronic device, select the requested sensing data from among pieces of sensing data received from at least one second electronic device, based on the received first template, in response to the request, convert the selected sensing data, based on the first template, to obtain converted sensing data, and provide a response message including the converted sensing data to the first electronic device. a communication interface configured to communicate with the at least one electronic device; a memory storing at least one instruction; and at least one processor configured to execute the at least one instruction stored in the memory, wherein the at least one processor executes the at least one instruction to: receive, from a first electronic device, a first template including information about a type of sensing data required by the first electronic device and a format of the sensing data, receive a request for the sensing data from the first electronic device, select the requested sensing data from among pieces of sensing data received from at least one second electronic device, based on the received first template, in response to the request, convert the selected sensing data, based on the first template, to obtain converted sensing data, and provide a response message including the converted sensing data to the first electronic device. receive, from a first electronic device, a first template including information about a type of sensing data required by the first electronic device and a format of the sensing data, receive a request for the sensing data from the first electronic device, select the requested sensing data from among pieces of sensing data received from at least one second electronic device, based on the received first template, in response to the request, convert the selected sensing data, based on the first template, to obtain converted sensing data, and provide a response message including the converted sensing data to the first electronic device.
Rotary heat exchanger device, in particular for use in a decentralized room ventilation device having heat recovery, comprising a rotary heat exchanger having a heat exchanger rotary axis, a drive motor having a stator and a rotor having a rotor rotary axis and having a housing, in which the rotary heat exchanger is installed and in which this exchanger rotates, characterized in that the rotor rotary axis and the heat exchanger rotary axis extend coaxially and the rotor is fixedly connected to the rotary heat exchanger.
A lead storage battery comprising: a positive electrode having a positive electrode material containing β-PbO 2 and α-PbO 2; a negative electrode having a negative electrode material containing an organic compound having at least one selected from the group consisting of a sulfone group and a sulfonate group, wherein a specific surface area of the positive electrode material is 10 m 2 /g or more, wherein the specific surface area is measured by a BET method using nitrogen gas, and a ratio (α-PbO 2 /β-PbO 2) between peak intensities of β-PbO 2 and α-PbO 2 in an X-ray diffraction pattern in the positive electrode material is 0.4 or less, wherein the peak intensity of α-PbO 2 is that of the 110 plane and the peak intensity of β-PbO 2 is that of the 111 plane. a positive electrode having a positive electrode material containing β-PbO 2 and α-PbO 2; a negative electrode having a negative electrode material containing an organic compound having at least one selected from the group consisting of a sulfone group and a sulfonate group, wherein a specific surface area of the positive electrode material is 10 m 2 /g or more, wherein the specific surface area is measured by a BET method using nitrogen gas, and a ratio (α-PbO 2 /β-PbO 2) between peak intensities of β-PbO 2 and α-PbO 2 in an X-ray diffraction pattern in the positive electrode material is 0.4 or less, wherein the peak intensity of α-PbO 2 is that of the 110 plane and the peak intensity of β-PbO 2 is that of the 111 plane.
Nebulizer for a fluid, comprising: a housing, a delivery mechanism for dispensing the fluid, a housing part which can be connected to the housing, and a counter device arranged at the housing part, the counter device comprising a rotatable element that, in a closed state of the nebulizer when the housing part is connected to the housing, meshes with a drive member arranged at the housing, characterized in that the nebulizer comprises a blocking device for blocking the rotatable element until connecting the housing part to the housing, wherein the blocking device blocks the rotatable element against rotation by form-fit engagement. a housing, a delivery mechanism for dispensing the fluid, a housing part which can be connected to the housing, and a counter device arranged at the housing part, the counter device comprising a rotatable element that, in a closed state of the nebulizer when the housing part is connected to the housing, meshes with a drive member arranged at the housing, characterized in that the nebulizer comprises a blocking device for blocking the rotatable element until connecting the housing part to the housing, wherein the blocking device blocks the rotatable element against rotation by form-fit engagement.
A solenoid valve drive control device in which a plunger is moved by energizing a solenoid (18, 66), a valve element installed in the plunger is moved closely and departed to a valve seat and being entered in the state of an open valve by separating the valve element from the valve seat and adsorbing to an attracting member when energizing, the valve element is abutted to the valve seat when non-energizing and being entered in the state of the valve closing, the solenoid valve drive control device comprising, a switching device that energizes and intercepts the solenoid, a zero cross timing generation device (72, 74, 76), in which energizing to the solenoid by the switching device is controlled, so that energizing of zero cross timing at the power supply period is started, and an electric current sensing device that detects current value that flows to the solenoid, after energizing to the solenoid is started by the switching device, when the current value that flows to the solenoid detected by the electric current sensing device is reached to setting a circuit protection current value Ic(αA) that is predetermined, an adsorption operation mode (A1-A4) that adsorbs the plunger by energizing of the constant current which is set to the predetermined adsorption current value, after the adsorption operation mode, by controlling of the zero cross timing generation device, after energizing of zero cross timing to the solenoid is started by the switching device, when the current value that flows to the solenoid detected by the electric current sensing device is reached to the circuit protection current value Ic(αA), a stabilization mode (A5-A9) that repeats the ON-OFF cycle plural times, in which energizing to the solenoid is intercepted by further switching means, after the stabilization mode, by controlling of the zero cross timing generation device, after energizing of zero cross timing to the solenoid is started by the switching device, when the current value that flows to the solenoid detected by the electric current sensing device is reached to predetermined setting current value Ia(βA), an interception mode (B2-B5) in which energizing to the solenoid is intercepted by the switching means, after the interception mode, the holding power is generated by discharging the energy that accumulated in the solenoid between the following zero cross timings through a snubber circuit, a hold mode in which the current value that flows to the solenoid is set to reach predetermined holding current value Ib (γA) or more.
A control method for a wiper system, the wiper system including a wiper blade for performing a reciprocating wiping operation on a wiping surface and an electric motor for causing the wiper blade to perform the reciprocating wiping operation, wherein the wiper blade operates at error angles different in direction between during a forward-path wiping operation and during a return-path wiping operation, and when the wiper blade reaches a reversing position, the error angle is changed, characterized in that: the electric motor is a motor provided with a rotary shaft for reciprocating the wiper blade, having a degree of operation freedom in three axial directions, and rotatable about axes of two directions orthogonal to the rotary shaft, and when the wiper blade reaches the reversing position, the motor is made to rotate about one of the two axes about which the motor can rotate that extends in an extending direction of the wiper blade to change the error angle in an opposite direction. the electric motor is a motor provided with a rotary shaft for reciprocating the wiper blade, having a degree of operation freedom in three axial directions, and rotatable about axes of two directions orthogonal to the rotary shaft, and when the wiper blade reaches the reversing position, the motor is made to rotate about one of the two axes about which the motor can rotate that extends in an extending direction of the wiper blade to change the error angle in an opposite direction.
A method for identifying a cat at an elevated risk of developing a disease or condition resulting from low hydration, comprising: testing whether the cat expresses a single nucleotide polymorphism, wherein the disease or condition is selected from development of urinary stones, feline idiopathic cystitis, and FLUTD, and wherein testing whether the cat exhibits one or more SNPs comprises testing whether the cat exhibits one or more SNPs selected from chrB4.101464677, chrB4.101341304, and chrB4.101438741. testing whether the cat expresses a single nucleotide polymorphism, wherein the disease or condition is selected from development of urinary stones, feline idiopathic cystitis, and FLUTD, and wherein testing whether the cat exhibits one or more SNPs comprises testing whether the cat exhibits one or more SNPs selected from chrB4.101464677, chrB4.101341304, and chrB4.101438741.
A method of receiving a reception acknowledgment for hybrid automatic repeat request, HARQ, in a wireless communication system, the method comprising: receiving, by a user equipment, from a base station, an uplink resource allocation including information regarding a plurality of allocated resource blocks, RBs, in an uplink subframe; transmitting, by the user equipment, an uplink transport block through a physical uplink shared channel, PUSCH, by using the plurality of the allocated RBs in the uplink subframe; and receiving, by the user equipment, a positive-acknowledgment, ACK/negative-acknowledgement, NACK, signal through a physical hybrid-ARQ indicator channel, PHICH, from the base station, said method being characterized in that: a downlink resource used for the PHICH is identified by a lowest index among indices of the plurality of the allocated RBs in the uplink subframe, and wherein when the plurality of the allocated RBs in the uplink subframe include basic RBs and additional RBs thereby expending a bandwidth, natural number indices of the additional RBs are mapped to the same downlink resource used for the PHICH by being overlapped with natural number indices of some of said basic RBs. receiving, by a user equipment, from a base station, an uplink resource allocation including information regarding a plurality of allocated resource blocks, RBs, in an uplink subframe; transmitting, by the user equipment, an uplink transport block through a physical uplink shared channel, PUSCH, by using the plurality of the allocated RBs in the uplink subframe; and receiving, by the user equipment, a positive-acknowledgment, ACK/negative-acknowledgement, NACK, signal through a physical hybrid-ARQ indicator channel, PHICH, from the base station, said method being characterized in that: a downlink resource used for the PHICH is identified by a lowest index among indices of the plurality of the allocated RBs in the uplink subframe, and wherein when the plurality of the allocated RBs in the uplink subframe include basic RBs and additional RBs thereby expending a bandwidth, natural number indices of the additional RBs are mapped to the same downlink resource used for the PHICH by being overlapped with natural number indices of some of said basic RBs. a downlink resource used for the PHICH is identified by a lowest index among indices of the plurality of the allocated RBs in the uplink subframe, and wherein when the plurality of the allocated RBs in the uplink subframe include basic RBs and additional RBs thereby expending a bandwidth, natural number indices of the additional RBs are mapped to the same downlink resource used for the PHICH by being overlapped with natural number indices of some of said basic RBs.
Chair with two stable seating positions, especially for office or working place applications, comprising a seat having a conventional seat portion, a chair support that has a vertical central support line, and a position adjusting assembly placed between the chair support and the seat to enable adjustment of the position of the seat, wherein the seat comprises a saddle shaped seat portion attached and fitted to a front end of the conventional seat portion, and the position adjusting assembly can be used to place the seat in a first stable conventional sitting position, wherein a central portion of said conventional seat portion is substantially horizontal and the load is predominantly held by the conventional seat portion, and the vertical central support line of the chair support substantially falls in the extension of a central weight line of a subject when sitting on the chair; and in a second stable position, the seat is inclined in forward direction, the load is predominantly held by the saddle shaped seat portion and the chair support is shifted in forward direction relative to the seat so that the vertical central support line of the chair support falls substantially again in the extension of the weight line of the subject, characterized in that the saddle shaped seat portion has a central ridge with an upwardly curved upper central contour line and two sides around the central ridge that define a curved surface which is convex when looked from above and the curved sides have inflexion when the previously convex shape becomes gradually concave.
Para-aminohippuric acid or a pharmaceutically acceptable salt thereof for use in a method for the reduction of nephrotoxic side effects of radiolabeled therapeutic and diagnostic compounds as a radiopharmaceutical in radio ligand therapy or diagnosis in a subject, wherein the radiopharmaceutical is a radionuclide containing conjugate molecule comprising a carrier molecule, a chelator and a radionuclide, wherein the radionuclide is a tri-valent radionuclide.
Calendering installation for the production of a reinforcing ply for a tyre, which has a frame, two extruders (200, 300) for feeding elastomer material, a reinforcing-thread feeding device for conveying the reinforcing threads into a calender, the calender having a first pair of counter-rotating rollers, with a first working roller and a first shaping roller, and a second pair of counter-rotating rollers, with a second working roller and a second shaping roller, a first flat die that is provided between the first extruder and the first pair of rollers (51, 52) and projects into a first rubber-ply calendering nip defined between the first pair of rollers (51, 52), and a second flat die that is provided between the second extruder and the second pair of rollers (53, 54) and projects into a second rubber-ply calendering nip defined between the second pair of rollers (53, 54), wherein a calendering nip is formed between the working rolls (52, 53) in order to receive a first calendered rubber ply delivered by the first pair of rollers (51, 52), a second calendered rubber ply delivered by the second pair of rollers (53, 54), and the reinforcing threads delivered by the reinforcing-thread feeding device in order to supply the calendered reinforcing ply, which is conveyed to the outlet of the installation via guide rollers (62, 63), characterized in that the two extruders (200, 300) are superposed and arranged on either side of a horizontal plane P extending at the level of the guide rollers (62, 63) of the reinforcing ply.
A fluid conduit (1200, 1300), comprising: a wall (1202, 1302) defining a fluid flow path and comprising a composite material formed of at least a matrix and reinforcing elements comprising fibres embedded within the matrix; and a component (1204, 1304) at least partially embedded within the wall (1202, 1302) and configured to transmit energy to and/or receive energy from the flow path, wherein the region (1202b, 1302b) of the wall (1202, 1302) between the component (1204, 1304) and the fluid flow path is devoid of reinforcing elements to define a transmission path for energy between the fluid flow path and the component (1204, 1304), wherein the matrix material defines a monolithic structure. a wall (1202, 1302) defining a fluid flow path and comprising a composite material formed of at least a matrix and reinforcing elements comprising fibres embedded within the matrix; and a component (1204, 1304) at least partially embedded within the wall (1202, 1302) and configured to transmit energy to and/or receive energy from the flow path, wherein the region (1202b, 1302b) of the wall (1202, 1302) between the component (1204, 1304) and the fluid flow path is devoid of reinforcing elements to define a transmission path for energy between the fluid flow path and the component (1204, 1304), wherein the matrix material defines a monolithic structure.
An image processing device comprising: an illuminating portion that irradiates a subject with illumination light and excitation light; a fluorescence image-acquisition portion that acquires a fluorescence image by capturing fluorescence generated at the subject due to the irradiation with the excitation light from the illuminating portion; a return-light image-acquisition portion that acquires a return-light image by capturing return light returning from the subject due to the irradiation with the illumination light from the illuminating portion; a color-image generating portion that generates a plurality of color images by adding different types of color information that constitute a color space to the fluorescence image acquired by the fluorescence image-acquisition portion and the return-light image acquired by the return-light image-acquisition portion; and an image combining portion that combines the plurality of color images generated by the color-image generating portion, wherein the distance characteristics of the return-light and fluorescence images, which are the respective relations between the amount of light and the distance to the subject, are approximated to power functions, and at least one of the fluorescence image and the return-light image is subjected, at the color-image generating portion, to a correction processing in which exponents of the distance characteristics of the fluorescence image and the return-light image are made to match with each other. an illuminating portion that irradiates a subject with illumination light and excitation light; a fluorescence image-acquisition portion that acquires a fluorescence image by capturing fluorescence generated at the subject due to the irradiation with the excitation light from the illuminating portion; a return-light image-acquisition portion that acquires a return-light image by capturing return light returning from the subject due to the irradiation with the illumination light from the illuminating portion; a color-image generating portion that generates a plurality of color images by adding different types of color information that constitute a color space to the fluorescence image acquired by the fluorescence image-acquisition portion and the return-light image acquired by the return-light image-acquisition portion; and an image combining portion that combines the plurality of color images generated by the color-image generating portion, wherein the distance characteristics of the return-light and fluorescence images, which are the respective relations between the amount of light and the distance to the subject, are approximated to power functions, and at least one of the fluorescence image and the return-light image is subjected, at the color-image generating portion, to a correction processing in which exponents of the distance characteristics of the fluorescence image and the return-light image are made to match with each other.