mhurhangee/ep-ind-claims huggingface dataset:
Auto-injector for administering a dose of a liquid medicament, comprising: - a tubular chassis arranged to contain a syringe with a hollow needle and a stopper for sealing the syringe and displacing the medicament, the chassis having a distal end and a proximal end with an orifice intended to be applied against an injection site, wherein the syringe is slidably arranged with respect to the chassis, - a drive spring capable of operating the syringe to supply the dose of medicament, - a control spring capable of - pushing the needle from a covered position inside the chassis into an advanced position through the orifice and past the proximal end for needle insertion, and - advance the chassis over the needle after at least partially delivering the medicament, - activating means arranged to lock the drive spring and the control spring in a pressurized state prior to manual operation and capable of, upon manual operation, releasing the control spring and/or the drive spring for injection, wherein the activating means comprises a wrap-over trigger sleeve arranged over the distal end of the auto-injector and wherein, for triggering the auto-injector, the trigger sleeve translates in proximal direction relative to the chassis and releases the control spring for starting an injection cycle. - a tubular chassis arranged to contain a syringe with a hollow needle and a stopper for sealing the syringe and displacing the medicament, the chassis having a distal end and a proximal end with an orifice intended to be applied against an injection site, wherein the syringe is slidably arranged with respect to the chassis, - a drive spring capable of operating the syringe to supply the dose of medicament, - a control spring capable of - pushing the needle from a covered position inside the chassis into an advanced position through the orifice and past the proximal end for needle insertion, and - advance the chassis over the needle after at least partially delivering the medicament, - activating means arranged to lock the drive spring and the control spring in a pressurized state prior to manual operation and capable of, upon manual operation, releasing the control spring and/or the drive spring for injection, wherein the activating means comprises a wrap-over trigger sleeve arranged over the distal end of the auto-injector and wherein, for triggering the auto-injector, the trigger sleeve translates in proximal direction relative to the chassis and releases the control spring for starting an injection cycle.
A compound comprising a ligand L A of wherein: ring A is independently a 5-membered to 10-membered heterocyclic ring; X 1 -X 6 are each independently C or N; K 3 is a direct bond, O, or S; R A, R B, and R C each independently represents zero, mono, or up to the maximum allowed number of substitutions to its associated ring; and each of R 1, R A, R B, R C is independently a hydrogen or a substituent selected from the group consisting of deuterium, halogen, alkyl, cycloalkyl, heteroalkyl, heterocycloalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, germyl, boryl, selenyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carboxylic acid, ether, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof, wherein: the ligand L A is complexed to a metal M through the two indicated dashed lines; M is Pt, and can be coordinated to other ligands; the ligand L A can be joined with other ligands to form a tridentate, tetradentate, pentadentate, or hexadentate ligand; and any two adjacent R A, R B, R C, or R 1 can be joined or fused to form a ring, with a condition that the compound does not comprise either one of the following structures: ring A is independently a 5-membered to 10-membered heterocyclic ring; X 1 -X 6 are each independently C or N; K 3 is a direct bond, O, or S; R A, R B, and R C each independently represents zero, mono, or up to the maximum allowed number of substitutions to its associated ring; and each of R 1, R A, R B, R C is independently a hydrogen or a substituent selected from the group consisting of deuterium, halogen, alkyl, cycloalkyl, heteroalkyl, heterocycloalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, germyl, boryl, selenyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carboxylic acid, ether, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof, the ligand L A is complexed to a metal M through the two indicated dashed lines; M is Pt, and can be coordinated to other ligands; the ligand L A can be joined with other ligands to form a tridentate, tetradentate, pentadentate, or hexadentate ligand; and any two adjacent R A, R B, R C, or R 1 can be joined or fused to form a ring,
Light-emitting diode module (100, 200, 210, 300, 400, 500, 600, 610, 620, 700, 1100, 1200), for a vehicle, comprising: - a glazing unit with main faces (11, 12), and an edge face, the glazing comprising at least one first transparent sheet having a first main face and a second main face; - light-emitting diodes each comprising an emitting chip able to emit one or more wavelengths in the visible, guided in the first sheet; - a bracket (3, 3', 52, 80) supporting the diodes, extending as a border of the glazing and fastened to the glazing; and - means, for sealing against fluid(s), able to protect the chips and the light-emission volume of the chips before injection into the first sheet, and - a polymer encapsulation, located bordering the glazing, surrounding said volume and forming additional means for sealing said volume against fluid(s), and covering the fastening bracket (3, 3', 30), said means for sealing against fluid(s) being chosen to seal against the liquid encapsulation material injected at a given temperature and pressure. - a glazing unit with main faces (11, 12), and an edge face, the glazing comprising at least one first transparent sheet having a first main face and a second main face; - light-emitting diodes each comprising an emitting chip able to emit one or more wavelengths in the visible, guided in the first sheet; - a bracket (3, 3', 52, 80) supporting the diodes, extending as a border of the glazing and fastened to the glazing; and - means, for sealing against fluid(s), able to protect the chips and the light-emission volume of the chips before injection into the first sheet, and - a polymer encapsulation, located bordering the glazing, surrounding said volume and forming additional means for sealing said volume against fluid(s), and covering the fastening bracket (3, 3', 30), said means for sealing against fluid(s) being chosen to seal against the liquid encapsulation material injected at a given temperature and pressure.
A data processing apparatus, comprising: a control information generation unit configured to generate control information for controlling a method of using data by a reception side, the data being wirelessly transmitted and received by the reception side; and a data generation unit configured to add the control information to data to generate data-with-control-information, characterized in that the control information generation unit generates the control information on the basis of a characteristic amount when insertion or discard of data is performed by the reception side, the characteristic amount representing a degree that the insertion or discard of the data is detected. a control information generation unit configured to generate control information for controlling a method of using data by a reception side, the data being wirelessly transmitted and received by the reception side; and a data generation unit configured to add the control information to data to generate data-with-control-information, characterized in that the control information generation unit generates the control information on the basis of a characteristic amount when insertion or discard of data is performed by the reception side, the characteristic amount representing a degree that the insertion or discard of the data is detected.
An inner rotor type miniature brushless motor having an outer diameter of 3 mm or smaller, comprising: a housing, a field coil fixedly disposed onto an inner wall of said housing, an end flange fixedly disposed into one end of said housing, of which one end has tap wires of said field coil drawn out therefrom,cutouts provided on said one end of said housing fitted with said end flange and providing means for exposing said wires, flat faces provided on an outer periphery of said end flange and power feed lands are disposed on the flat faces, and wiring substrates (12, 13) fixedly disposed onto said flat faces and connected to said tap wires at the power feed lands. a housing, a field coil fixedly disposed onto an inner wall of said housing, an end flange fixedly disposed into one end of said housing, of which one end has tap wires of said field coil drawn out therefrom,cutouts provided on said one end of said housing fitted with said end flange and providing means for exposing said wires, flat faces provided on an outer periphery of said end flange and power feed lands are disposed on the flat faces, and wiring substrates (12, 13) fixedly disposed onto said flat faces and connected to said tap wires at the power feed lands.
A method of manufacturing a semiconductor device, the method comprising: forming an assembly comprising: placing a semiconductor die and a launcher structure on a carrier substrate, the launcher structure including an antenna launcher; encapsulating at least a portion of the semiconductor die and the launcher structure; removing the carrier substrate such that a first major surface of the semiconductor die and a first major surface of the launcher structure is exposed; after the carrier substrate is removed, applying a redistribution layer on the first major surface of the semiconductor die and the first major surface of the launcher structure, a bond pad of the semiconductor die connected by way of the redistribution layer to the antenna launcher; attaching the assembly to a substrate; and attaching a waveguide structure to the substrate, the waveguide structure overlapping the assembly and physically decoupled from the assembly, wherein the launcher structure is formed having a cavity (112, 114), the antenna launcher located at a bottom surface of the cavity, wherein attaching the waveguide structure to the substrate further includes extending sidewalls of an opening in the waveguide structure into the cavity to substantially surround the antenna launcher. forming an assembly comprising: placing a semiconductor die and a launcher structure on a carrier substrate, the launcher structure including an antenna launcher; encapsulating at least a portion of the semiconductor die and the launcher structure; removing the carrier substrate such that a first major surface of the semiconductor die and a first major surface of the launcher structure is exposed; after the carrier substrate is removed, applying a redistribution layer on the first major surface of the semiconductor die and the first major surface of the launcher structure, a bond pad of the semiconductor die connected by way of the redistribution layer to the antenna launcher; placing a semiconductor die and a launcher structure on a carrier substrate, the launcher structure including an antenna launcher; encapsulating at least a portion of the semiconductor die and the launcher structure; removing the carrier substrate such that a first major surface of the semiconductor die and a first major surface of the launcher structure is exposed; after the carrier substrate is removed, applying a redistribution layer on the first major surface of the semiconductor die and the first major surface of the launcher structure, a bond pad of the semiconductor die connected by way of the redistribution layer to the antenna launcher; attaching the assembly to a substrate; and attaching a waveguide structure to the substrate, the waveguide structure overlapping the assembly and physically decoupled from the assembly, wherein the launcher structure is formed having a cavity (112, 114), the antenna launcher located at a bottom surface of the cavity, wherein attaching the waveguide structure to the substrate further includes extending sidewalls of an opening in the waveguide structure into the cavity to substantially surround the antenna launcher.
A dynamic random access memory device (DRAM), comprising: a storage array to store an N-bit data word, and error checking and correction bits associated with the data word; an ECC code store to store a code matrix, the code matrix to include N codes with a first portion of (N/2) codes and a second portion of (N/2) codes, the N codes corresponding to the N bits of the data word, respectively; and ECC circuitry to perform internal ECC in the DRAM with the ECC bits and code matrix in response to a request to access the data word; characterized in that the ECC includes circuitry to compute first and second error checks for first and second (N/2)-bit segments of the data word, respectively, based on the first and second portions of the code matrix, respectively, wherein a bitwise XOR (exclusive OR) of any two codes in the first portion of the code matrix or a bitwise XOR of any two codes in the second portion of the code matrix is to generate a code that is either not in the code matrix or is in the other portion of the code matrix. a storage array to store an N-bit data word, and error checking and correction bits associated with the data word; an ECC code store to store a code matrix, the code matrix to include N codes with a first portion of (N/2) codes and a second portion of (N/2) codes, the N codes corresponding to the N bits of the data word, respectively; and ECC circuitry to perform internal ECC in the DRAM with the ECC bits and code matrix in response to a request to access the data word; characterized in that the ECC includes circuitry to compute first and second error checks for first and second (N/2)-bit segments of the data word, respectively, based on the first and second portions of the code matrix, respectively, wherein a bitwise XOR (exclusive OR) of any two codes in the first portion of the code matrix or a bitwise XOR of any two codes in the second portion of the code matrix is to generate a code that is either not in the code matrix or is in the other portion of the code matrix.
Device for cooking a food, in particular a mass to be cooked, which has egg and/or egg sub-fractions or is formed from these components, comprising an elongated outer tube which can be closed at its lower end, an elongate inner tube, the outer diameter of which is smaller than the inner diameter of the outer tube, so that the inner tube can be inserted into the outer tube in the longitudinal direction, thereby forming an annular gap between the inner tube and the outer tube, and an end piece which can be placed on an open upper end of the outer tube and fastened thereto, wherein in a front side of the end piece at least one aperture is formed, which is aligned with the annular gap formed between the inner tube and the outer tube in such a way that the annular gap, when the end piece is placed on the upper end of the outer tube, can be filled from the outside through the aperture. characterised in that the end piece is cup-shaped and thus open on its upper side, vertical bulkheads being provided in an inner region of the end piece, and that a plurality of passage openings are formed in the front side of the end piece, which openings are aligned with the annular gap formed between the inner tube and the outer tube, wherein at least one passage opening is fluidically separated from the other passage openings by the bulkheads, so that this passage opening fulfils the function of a ventilation opening when the annular gap is filled with a mass to be cooked through the other passage openings. an elongated outer tube which can be closed at its lower end, an elongate inner tube, the outer diameter of which is smaller than the inner diameter of the outer tube, so that the inner tube can be inserted into the outer tube in the longitudinal direction, thereby forming an annular gap between the inner tube and the outer tube, and an end piece which can be placed on an open upper end of the outer tube and fastened thereto, wherein in a front side of the end piece at least one aperture is formed, which is aligned with the annular gap formed between the inner tube and the outer tube in such a way that the annular gap, when the end piece is placed on the upper end of the outer tube, can be filled from the outside through the aperture. that the end piece is cup-shaped and thus open on its upper side, vertical bulkheads being provided in an inner region of the end piece, and that a plurality of passage openings are formed in the front side of the end piece, which openings are aligned with the annular gap formed between the inner tube and the outer tube, wherein at least one passage opening is fluidically separated from the other passage openings by the bulkheads, so that this passage opening fulfils the function of a ventilation opening when the annular gap is filled with a mass to be cooked through the other passage openings.
A method in a transmitter, the method comprising: determining a plurality of space-time coding matrices, each having a respective associated correlation matrix comprising a plurality of non-zero off-diagonal elements; selecting one of the plurality of space-time coding matrices for which the associated correlation matrix has a least number of non-zero off- diagonal elements; encoding data symbols using the selected space-time coding matrix; and transmitting the encoded data symbols over a plurality of antennas; wherein the selected space-time coding matrix comprises a plurality of rows respectively corresponding to a plurality of transmit antennas and a plurality of columns respectively corresponding to a plurality of time slots in which the data symbols are to be transmitted; wherein the plurality of transmit antennas comprises four transmit antennas, and wherein the plurality of space-time coding matrices comprises, for F 1 S = s 1 − s 2 * − s 3 * s 4 s 2 s 1 * − s 4 * − s 3 s 3 − s 4 * s 1 * − s 2 s 4 s 3 * s 2 * s 1, F 2 S = s 1 − s 3 * − s 4 * s 2 s 2 s 4 * s 3 * s 1 s 3 s 1 * − s 2 * − s 4 s 4 − s 2 * s 1 * − s 3, F 3 S = s 1 − s 4 * − s 2 * s 3 s 2 − s 3 * s 1 * − s 4 s 3 s 2 * s 4 * s 1 s 4 s 1 * − s 3 * − s 2, matrices comprising column permutations of F, F, or F, punctured matrices of F, F, or F, and matrices comprising concatenations of F, F, and F, where s 1, s 2, s 3, and s 4 are the data symbols; and wherein each correlation matrix has the form R = Ø H T Ø H = ∑ m = 1 M F m T H T H F m where R is the correlation matrix, and H is a matrix of channel gain factors, M>1. determining a plurality of space-time coding matrices, each having a respective associated correlation matrix comprising a plurality of non-zero off-diagonal elements; selecting one of the plurality of space-time coding matrices for which the associated correlation matrix has a least number of non-zero off- diagonal elements; encoding data symbols using the selected space-time coding matrix; and transmitting the encoded data symbols over a plurality of antennas;
Method for securing exchanges between first and second entities in a P2P architecture, each entity comprising a secure processing circuit such as a Wallet Node Device, WND, possessing a private key and at least one detector device capable of detecting the normal/abnormal state of an environmental parameter of the circuit, the or each device comprising a secret private key making it possible to sign normal/abnormal state information for the device in question, the method comprising the following steps at the level of the first entity: - detection at the level of the detector device, of the normal or abnormal state of the circuit environment parameter, - signature of message content to be sent to the second entity with said private key of said secure processing circuit, - signature of the normal/abnormal state information with said private key of said device, - generation of a message comprising the signed message content and the signed normal/abnormal status information, and - sending said message to the second entity. - detection at the level of the detector device, of the normal or abnormal state of the circuit environment parameter, - signature of message content to be sent to the second entity with said private key of said secure processing circuit, - signature of the normal/abnormal state information with said private key of said device, - generation of a message comprising the signed message content and the signed normal/abnormal status information, and - sending said message to the second entity.
A gasket to be used for a medical syringe, the gasket comprising: a main body made of an elastic material; and a film provided on a surface of the main body; the gasket having a circumferential surface portion to be brought into contact with an inner peripheral surface of a syringe barrel of the syringe; the gasket further comprising a projection provided on a surface portion of the film present in the circumferential surface portion as extending circumferentially of the gasket characterized in that the projection has a width of not less than 30 μm and not greater than 75 μm. a main body made of an elastic material; and a film provided on a surface of the main body; the gasket having a circumferential surface portion to be brought into contact with an inner peripheral surface of a syringe barrel of the syringe; the gasket further comprising a projection provided on a surface portion of the film present in the circumferential surface portion as extending circumferentially of the gasket characterized in that the projection has a width of not less than 30 μm and not greater than 75 μm.
A method of wireless communication, comprising: receiving, by a first network node from a second network node, encoded channel state information, CSI, included in an uninterpretable payload portion of a structured payload including an interpretable payload portion that is interpretable without decoding and the uninterpretable payload portion that is uninterpretable without decoding; generating, by the first network node, reference signal, RS, based side information based at least in partially on a RS, wherein the RS based side information is information in addition to the CSI that is configured for use in association with the CSI; and decoding, by the first network node, the encoded CSI from the uninterpretable payload portion using information from the interpretable payload portion and the RS based side information to provide reconstructed channel information. receiving, by a first network node from a second network node, encoded channel state information, CSI, included in an uninterpretable payload portion of a structured payload including an interpretable payload portion that is interpretable without decoding and the uninterpretable payload portion that is uninterpretable without decoding; generating, by the first network node, reference signal, RS, based side information based at least in partially on a RS, wherein the RS based side information is information in addition to the CSI that is configured for use in association with the CSI; and decoding, by the first network node, the encoded CSI from the uninterpretable payload portion using information from the interpretable payload portion and the RS based side information to provide reconstructed channel information.