mhurhangee/ep-ind-claims huggingface dataset:
A battery (100; 710) comprising: an electrode assembly including a positive electrode sheet, a separation membrane, and a negative electrode sheet; at least one cover member (120; 120a,120b) surrounding at least a part of an outermost region of the electrode assembly; and exterior material accommodating the electrode assembly and the at least one cover member (120; 120a, 120b), wherein the at least one cover member (120; 120a,120b) has at least a partial area that overlaps and is fixed to the exterior material, and includes a plurality of air gaps permitting impregnation of the electrode assembly by an electrolyte. an electrode assembly including a positive electrode sheet, a separation membrane, and a negative electrode sheet; at least one cover member (120; 120a,120b) surrounding at least a part of an outermost region of the electrode assembly; and exterior material accommodating the electrode assembly and the at least one cover member (120; 120a, 120b), wherein the at least one cover member (120; 120a,120b) has at least a partial area that overlaps and is fixed to the exterior material, and includes a plurality of air gaps permitting impregnation of the electrode assembly by an electrolyte.
An ink set comprising at least four types of coloring inks comprising a yellow ink, a magenta ink, a cyan ink and a black ink each of which comprises at least water, a silicone surfactant and a coloring agent, wherein, when contents of the silicone surfactant in total masses of the yellow ink, the magenta ink, the cyan ink and the black ink are respectively represented as S1, S2, S3 and S4: S1 satisfies 1.0 mass % ≤ S1 ≤ 2.5 mass %; S1 - S2 which is a value obtained by subtracting S2 from S1 satisfies 0.1 mass % ≤ S1 - S2 ≤ 0.8 mass %; S3 - S2 which is a value obtained by subtracting S2 from S3 satisfies 0.0 mass % ≤ S3 - S2 ≤ 0.5 mass %; S3 - S4 which is a value obtained by subtracting S4 from S3 satisfies 0.2 mass % ≤ S3 - S4 ≤ 1.2 mass %; and S3 and S4 are at least 0.1 mass %.
A test stand for testing a test item having a rotatable test item shaft, the test stand comprising: - a drive motor and a shaft driven by the drive motor, a rotational axis of the shaft defining an axial direction (x), - a fixed plate and a bearing support fixedly held in the fixed plate or being part thereof, wherein the shaft is held by one, two or more bearings in the bearing support, the fixed plate having a surface extending in a first radial direction (y) and in a second radial direction (z) perpendicular to the axial direction (x), characterized in that the test stand further comprises - a movable plate having a first surface bearing against the surface of the fixed plate, and a second surface opposite the first surface configured for mounting the test item thereon, the movable plate having a central opening allowing the test item shaft to pass through end engage the shaft, the movable plate being movable in a plane spanned by the radial directions (y, z) relative to the fixed plate, - one, two, three or more actors (17.1 to 17.3) configured to move the movable plate in the plane spanned by the radial directions (y, z), - two or more sensors (19.1 to 19.3) configured to measure a position of the shaft and/or the test item shaft with regard to the radial directions (y, z), a control unit connected to the sensors (19.1 to 19.3) and the actors (17.1 to 17.3) and configured to calculate a position of the test item shaft based on the measurements of the sensors (19.1 to 19.3), to compare it to a set position and to control the actors (17.1 to 17.3) to correct the position of the movable plate to reduce a difference between the calculated position and the set position. - a drive motor and a shaft driven by the drive motor, a rotational axis of the shaft defining an axial direction (x), - a fixed plate and a bearing support fixedly held in the fixed plate or being part thereof, wherein the shaft is held by one, two or more bearings in the bearing support, the fixed plate having a surface extending in a first radial direction (y) and in a second radial direction (z) perpendicular to the axial direction (x), characterized in that the test stand further comprises - a movable plate having a first surface bearing against the surface of the fixed plate, and a second surface opposite the first surface configured for mounting the test item thereon, the movable plate having a central opening allowing the test item shaft to pass through end engage the shaft, the movable plate being movable in a plane spanned by the radial directions (y, z) relative to the fixed plate, - one, two, three or more actors (17.1 to 17.3) configured to move the movable plate in the plane spanned by the radial directions (y, z), - two or more sensors (19.1 to 19.3) configured to measure a position of the shaft and/or the test item shaft with regard to the radial directions (y, z),
An pneumolysin peptide for use in treating diabetes or a complication of diabetes, comprising: (i) a first segment that comprises the amino acid motif of QDLTA (SEQ ID NO: 9); and (ii) a second segment that comprises an amino acid sequence at least 85% identical to SEQ ID NO: 10; wherein the C-terminus of the first segment is linked to the N-terminus of the second segment; and wherein the PLY peptide has up to 150 amino acids in length. (i) a first segment that comprises the amino acid motif of QDLTA (SEQ ID NO: 9); and (ii) a second segment that comprises an amino acid sequence at least 85% identical to SEQ ID NO: 10;
A method for generating a positron emission tomography, PET, image implemented on at least one machine, each of which has at least one processor and storage device, the method comprising: obtaining raw data corresponding to radiation rays within a volume, wherein the radiation rays take the form of a line of response, LOR; determining, among the radiation rays, a first radiation ray passing a plurality of voxels corresponding to the volume based on the raw data; grouping said plurality of voxels into a plurality of subsets based on at least one of i) a radial distance denoting the distance from an original point to a plane on which is the first radiation ray and which is in parallel with a z-direction, ii) a position of the point of annihilation on the line of response, iii) a tilting angle (Θ) being an angle formed by the first radiation ray and an x-y plane, or iv) a rotation angle (φ) being an angle formed by the x-direction and the plane on which is the first radiation ray and which is in parallel with the z-direction, such that at least some subsets of voxels are sequentially loaded into a memory; performing a projection calculation relating to the sequentially loaded subsets of voxels by a plurality of processing threads in a parallel hardware architecture, each processing thread of the plurality of processing threads corresponding to a subset of voxels; and generating an image based on a result of the projection calculation and the raw data. obtaining raw data corresponding to radiation rays within a volume, wherein the radiation rays take the form of a line of response, LOR; determining, among the radiation rays, a first radiation ray passing a plurality of voxels corresponding to the volume based on the raw data; grouping said plurality of voxels into a plurality of subsets based on at least one of i) a radial distance denoting the distance from an original point to a plane on which is the first radiation ray and which is in parallel with a z-direction, ii) a position of the point of annihilation on the line of response, iii) a tilting angle (Θ) being an angle formed by the first radiation ray and an x-y plane, or iv) a rotation angle (φ) being an angle formed by the x-direction and the plane on which is the first radiation ray and which is in parallel with the z-direction, such that at least some subsets of voxels are sequentially loaded into a memory; performing a projection calculation relating to the sequentially loaded subsets of voxels by a plurality of processing threads in a parallel hardware architecture, each processing thread of the plurality of processing threads corresponding to a subset of voxels; and generating an image based on a result of the projection calculation and the raw data.
An apparatus (12, 14, 16, 18, 20, 22, 24, 26, 28, 30, 32, 1200, 1202, 1204, 1206), comprising: a down-clocking module adapted to down-clock a first plurality of clock signals each having different first frequencies using a single down-clocking ratio to generate a second plurality of clock signals each having different second frequencies; a physical layer module, PHY, adapted to support orthogonal frequency division multiplexing communications with at least one additional apparatus using at least one channel having a respective channel bandwidth corresponding to at least one of the second plurality of clock signals and to support orthogonal frequency division multiplexing communications using at least one additional channel having a respective channel bandwidth corresponding to at least one of the first plurality of clock signals; and at least one antenna (82, 84, 86) adapted to transmit or receive the communications wirelessly. a down-clocking module adapted to down-clock a first plurality of clock signals each having different first frequencies using a single down-clocking ratio to generate a second plurality of clock signals each having different second frequencies; a physical layer module, PHY, adapted to support orthogonal frequency division multiplexing communications with at least one additional apparatus using at least one channel having a respective channel bandwidth corresponding to at least one of the second plurality of clock signals and to support orthogonal frequency division multiplexing communications using at least one additional channel having a respective channel bandwidth corresponding to at least one of the first plurality of clock signals; and at least one antenna (82, 84, 86) adapted to transmit or receive the communications wirelessly.
A fingerprint identification apparatus, comprising: a fingerprint identification module, comprising a sensing circuit, a control circuit, a support member and a base plate, wherein the sensing circuit is spatially separate from the base plate via the support member sitting on the base plate and is electrically connected to the base plate, and the control circuit is mounted on and electrically connected to the base plate and located beneath the sensing circuit; a conductor holder, wherein the conductor holder is provided with a through-hole, and covers the fingerprint identification module and is electrically connected to the base plate; and a dielectric cover sheet, the dielectric cover sheet being assembled in the through-hole and connected to the sensing circuit, such that the sensing circuit collects fingerprints through the dielectric cover sheet pressed by a finger and generates an analog signal. a fingerprint identification module, comprising a sensing circuit, a control circuit, a support member and a base plate, wherein the sensing circuit is spatially separate from the base plate via the support member sitting on the base plate and is electrically connected to the base plate, and the control circuit is mounted on and electrically connected to the base plate and located beneath the sensing circuit; a conductor holder, wherein the conductor holder is provided with a through-hole, and covers the fingerprint identification module and is electrically connected to the base plate; and a dielectric cover sheet, the dielectric cover sheet being assembled in the through-hole and connected to the sensing circuit, such that the sensing circuit collects fingerprints through the dielectric cover sheet pressed by a finger and generates an analog signal.
A method (200, 300) for hybrid automatic retransmission request acknowledgement/negative acknowledgement, HARQ ACK/NACK, bundling on a physical uplink sharing channel, PUSCH, in a dynamic time division duplex, TDD, system, comprising: choosing a scramble code selecting parameter from a predefined set of scramble code selecting parameters, wherein each scramble code selecting parameter is associated with one of one or more downlink subframes to be received and one or more HARQ ACK/NACK bits with respect to the one or more downlink subframes are to be transmitted in a predetermined uplink subframe, or calculating a scramble code selecting parameter based on the number of detected downlink subframes; and scrambling (S202, S302) one or more HARQ ACK/NACK bits using the chosen scramble code selecting parameter or the calculated scramble code selecting parameter for bundling on the PUSCH, characterized in that the choosing or calculating is performed based on a downlink assignment index being unavailable in a downlink control information format 0 or 4. choosing a scramble code selecting parameter from a predefined set of scramble code selecting parameters, wherein each scramble code selecting parameter is associated with one of one or more downlink subframes to be received and one or more HARQ ACK/NACK bits with respect to the one or more downlink subframes are to be transmitted in a predetermined uplink subframe, or calculating a scramble code selecting parameter based on the number of detected downlink subframes; and scrambling (S202, S302) one or more HARQ ACK/NACK bits using the chosen scramble code selecting parameter or the calculated scramble code selecting parameter for bundling on the PUSCH, characterized in that the choosing or calculating is performed based on a downlink assignment index being unavailable in a downlink control information format 0 or 4.
A rotor device of an integrated starter-generator motor, wherein: the rotor device that is monobloc cast and then machined to become an inseparable, one-piece structure, and the rotor device is in the form of a straw hat, wherein the rotor device having an external side surface of a hat top is designated as a surface, an external side surface of a hat brim is designated as a surface, an inner side surface of the hat brim is designated as a surface; whereby a surface connecting the external side surface of a hat top with the external side surface of a hat brim is designated as a surface; the external side surface of the hat top of the rotor device is formed with multiple through holes for fixing with a crankshaft; and the inner side surface of the hat brim of the rotor device is formed with multiple threaded holes for connection with a clutch, and the threaded holes pass through the external side surface of the hat brim corresponding to the inner side surface of the hat brim; the external side surface of the hat brim is provided with multiple bosses each being formed with one threaded hole; characterized in that; multiple triangular ribs are designed between the external side surface of the hat brim and the surface connecting the external side surface of the hat top with the external side surface of the hat brim; an extrusion platform is designed on the external side surface of the hat top, and all the through holes are formed on the extrusion platform. the rotor device that is monobloc cast and then machined to become an inseparable, one-piece structure, and the rotor device is in the form of a straw hat, wherein the rotor device having an external side surface of a hat top is designated as a surface, an external side surface of a hat brim is designated as a surface, an inner side surface of the hat brim is designated as a surface; whereby a surface connecting the external side surface of a hat top with the external side surface of a hat brim is designated as a surface; the external side surface of the hat top of the rotor device is formed with multiple through holes for fixing with a crankshaft; and the inner side surface of the hat brim of the rotor device is formed with multiple threaded holes for connection with a clutch, and the threaded holes pass through the external side surface of the hat brim corresponding to the inner side surface of the hat brim; the external side surface of the hat brim is provided with multiple bosses each being formed with one threaded hole; characterized in that; multiple triangular ribs are designed between the external side surface of the hat brim and the surface connecting the external side surface of the hat top with the external side surface of the hat brim; an extrusion platform is designed on the external side surface of the hat top, and all the through holes are formed on the extrusion platform.
A cartridge holder for a drug delivery device, comprising: - a housing extending in an axial direction (48, 50) and being adapted to receive a cartridge at least partially filled with a medicament, said cartridge being sealed near a distal end by way of a pierceable seal, - at least one bearing element fixed to the housing, and - at least one tensioning member to engage with the bearing element and with the cartridge in an axial direction (48, 50) for transferring a distally directed injection force from the cartridge to the housing, wherein the tensioning member is attached to the bearing element, characterized in that - the tensioning member comprises a compression spring or a tension spring and extends substantially in axial direction (48, 50) to engage with the cartridge and to exert a proximally directed counterforce to the cartridge, and further comprising - at least one counter-bearing element (60; 62) arranged at the housing and fixedly attached to the housing to provide an axial proximal end stop for the cartridge. - a housing extending in an axial direction (48, 50) and being adapted to receive a cartridge at least partially filled with a medicament, said cartridge being sealed near a distal end by way of a pierceable seal, - at least one bearing element fixed to the housing, and - at least one tensioning member to engage with the bearing element and with the cartridge in an axial direction (48, 50) for transferring a distally directed injection force from the cartridge to the housing, wherein the tensioning member is attached to the bearing element, characterized in that - the tensioning member comprises a compression spring or a tension spring and extends substantially in axial direction (48, 50) to engage with the cartridge and to exert a proximally directed counterforce to the cartridge, and further comprising - at least one counter-bearing element (60; 62) arranged at the housing and fixedly attached to the housing to provide an axial proximal end stop for the cartridge.
A gaseous matter capture system, comprising: (i) at least one aerial unit configured to be airborne; (ii) at least one non-aerial unit; (iii) at least one gas separation means configured to be carried by the aerial unit wherein the at least one gas separation means is operable while the aerial unit is airborne at an altitude range of 5-15km and wherein the at least one gas separation means comprises at least one pressure increasing apparatus, wherein the at least one gas separation means is configured to separate at least one designated gaseous matter from the air; (v) storage means configured to be carried by the aerial unit, including at least one compressed gas container, the at least one separated gaseous matter being configured to be stored in the at least one compressed gas container, wherein the at least one compressed gas container comprises guidance means configured to guide the at least one compressed gas container from the aerial unit to the non-aerial unit, and the at least one compressed gas container is configured to be released from the aerial unit and reach the non-aerial unit; (vi) a controller configured to control the system's operation; and (vii) an energy source configured to enable the system's operation. (i) at least one aerial unit configured to be airborne; (ii) at least one non-aerial unit; (iii) at least one gas separation means configured to be carried by the aerial unit wherein the at least one gas separation means is operable while the aerial unit is airborne at an altitude range of 5-15km and wherein the at least one gas separation means comprises at least one pressure increasing apparatus, wherein the at least one gas separation means is configured to separate at least one designated gaseous matter from the air; (v) storage means configured to be carried by the aerial unit, including at least one compressed gas container, the at least one separated gaseous matter being configured to be stored in the at least one compressed gas container, wherein the at least one compressed gas container comprises guidance means configured to guide the at least one compressed gas container from the aerial unit to the non-aerial unit, and the at least one compressed gas container is configured to be released from the aerial unit and reach the non-aerial unit; (vi) a controller configured to control the system's operation; and (vii) an energy source configured to enable the system's operation.
Device for tensioning at least one web of fabric (4, 5), having a tensioning device with a profile assembly extending along a longitudinal axis and a movement member movably mounted in the profile assembly, the movement member having at least one fastening section for mechanically fixing a first end of the at least one web of fabric (4, 5) along the longitudinal axis of the profile assembly, wherein the movement member is movable in the profile assembly from a pre-assembly position to a final assembly position to move the at least one web of fabric (4, 5) from the pre-assembly position to the final assembly position, transversely to the longitudinal axis of the profile assembly during the movement into the final assembly position, the tensioning device having a first actuation device for moving the movement member from the pre-assembly position into the final assembly position, characterized in that the first actuation device comprises at least one primary lifting cushion, wherein the at least one primary lifting cushion is arranged and aligned in the profile assembly in such a way that a pneumatically or hydraulically induced expansion of the primary lifting cushion causes the movement member to move from the pre-assembly position to the final assembly position.