mhurhangee/ep-ind-claims huggingface dataset:
A coding method, comprising: obtaining a to-be-encoded information bit sequence and a target code length M of a polar code, wherein the to-be-encoded information bit sequence comprises an information block having a length K, the target code length M is greater than N max, N max is a maximum mother code length that is equal to 1024; for a given code rate R, if the target code length M is greater than a preset threshold, segmenting the to-be-encoded information bit sequence into p subsegments, and separately performing independent polar encoding on the p subsegments, to obtain p encoded bit sequences whose lengths are respectively mother code lengths of the subsegments, wherein p is an integer greater than or equal to 2; separately performing rate matching on the p encoded bit sequences, to obtain p rate-matched encoded bit sequences whose lengths are respectively target code lengths of the subsegments; and combining the p rate-matched encoded bit sequences, to obtain an encoded bit sequence whose length is M. obtaining a to-be-encoded information bit sequence and a target code length M of a polar code, wherein the to-be-encoded information bit sequence comprises an information block having a length K, the target code length M is greater than N max, N max is a maximum mother code length that is equal to 1024; for a given code rate R, if the target code length M is greater than a preset threshold, segmenting the to-be-encoded information bit sequence into p subsegments, and separately performing independent polar encoding on the p subsegments, to obtain p encoded bit sequences whose lengths are respectively mother code lengths of the subsegments, wherein p is an integer greater than or equal to 2; separately performing rate matching on the p encoded bit sequences, to obtain p rate-matched encoded bit sequences whose lengths are respectively target code lengths of the subsegments; and combining the p rate-matched encoded bit sequences, to obtain an encoded bit sequence whose length is M.
A method for personalizing a pre-generated protected eUICC profile stored in a Subscriber Manager - Data Preparation, SM-DP in a telecommunications network, wherein said method comprises updating the pre-generated protected eUICC profile by adding by the SM-DP an application and diversified data to said pre-generated protected profile just before a PE-End profile element in a SCP03t profile block at the end of said pre-generated protected profile in order for the SM-DP to re-compute only the SCP03t profile block comprising said application and PE-End profile element following the update and wherein said Subscriber Manager - Data Preparation, SM-DP securely downloads and installs the updated pre-generated protected eUICC profile comprising the added application and diversified data into a elllCC.
An apparatus to heat smokeable material to volatilise at least one component of the smokeable material, wherein the apparatus comprises: a housing containing a chemical heat source in a heat source chamber and a heating chamber for containing the smokeable material, wherein the chemical heat source comprises a phase change material; a mouthpiece in fluid communication with the heating chamber; and an actuating mechanism, wherein the actuating mechanism, upon actuation, activates the phase change material to generate heat which heats the smokeable material; and characterised in that at least some of the phase change material is visible from the outside of the apparatus.
A readjustment device for a pneumatically actuatable disc brake for a vehicle that is designed to compensate for wear between one or more brake pads and/or a brake disc, the readjustment device having at least the following: - a pneumatic actuator device having a cylinder into which is inserted an axially displaceable piston, to which compressed air can be applied and which can be moved in a first direction by the application of compressed air; - a threaded drive (10, 13, 14) of non-self-locking design that has a threaded nut and a threaded shaft; - the piston being coupled rotationally conjointly to the threaded nut and the threaded shaft extending rotatably through the threaded nut; characterised in that - there is provided at least one resetting spring (27, 41) by means of which the piston can be moved in the cylinder in a second direction that is opposite to the first direction, - and the readjustment device is designed such that an advancing stroke can be performed as a result of the application of compressed air to the piston and a resetting stroke can be performed in spring-actuated fashion as a result of the spring force of the at least one resetting spring (27, 41). - a pneumatic actuator device having a cylinder into which is inserted an axially displaceable piston, to which compressed air can be applied and which can be moved in a first direction by the application of compressed air; - a threaded drive (10, 13, 14) of non-self-locking design that has a threaded nut and a threaded shaft; - the piston being coupled rotationally conjointly to the threaded nut and the threaded shaft extending rotatably through the threaded nut; - there is provided at least one resetting spring (27, 41) by means of which the piston can be moved in the cylinder in a second direction that is opposite to the first direction, - and the readjustment device is designed such that an advancing stroke can be performed as a result of the application of compressed air to the piston and a resetting stroke can be performed in spring-actuated fashion as a result of the spring force of the at least one resetting spring (27, 41).
A Time-of-flight optical device for the contactless determination of the distance to a target comprising: a source generating a modulated beam of light impinging on a target; an optical detector receiving light backscattered from the target; a logic circuit, arranged to determine the distance of the target from the time structure of the backscattered light received by the optical detector; and characterized in that: the optical detector comprises an integrated circuit with an array of photosensitive pixels in which at least a subset of the pixels are interconnected to form a macro-pixel, the pixels in the macro-pixel sharing a common sense node, wherein the pixels in the macro-pixel have each a potential well (PPD1, PPD2, PPDN) for collecting photocarriers, a first transistor between the potential well and the common sense node of the macro-pixel, and wherein the gates of the first transistors in the macro-pixel are connected in parallel or operated simultaneously for transferring photocarriers stored into the potential wells of the macro-pixel to the common sense node at the same time. a source generating a modulated beam of light impinging on a target; an optical detector receiving light backscattered from the target; a logic circuit, arranged to determine the distance of the target from the time structure of the backscattered light received by the optical detector; and characterized in that: the optical detector comprises an integrated circuit with an array of photosensitive pixels in which at least a subset of the pixels are interconnected to form a macro-pixel, the pixels in the macro-pixel sharing a common sense node, wherein the pixels in the macro-pixel have each a potential well (PPD1, PPD2, PPDN) for collecting photocarriers, a first transistor between the potential well and the common sense node of the macro-pixel, and wherein the gates of the first transistors in the macro-pixel are connected in parallel or operated simultaneously for transferring photocarriers stored into the potential wells of the macro-pixel to the common sense node at the same time.
A specimen processing chip installed in a liquid feeder, comprising a flow path into which a first liquid and a second liquid flow, a first well having a first injection port into which the first liquid is injected by an operator, and a first liquid feed port for feeding the first liquid injected from the first injection port to the flow path, that is smaller in diameter than the first injection port, and a second well having a second injection port into which the second liquid fed from the liquid feeder is injected, and a second liquid feed port for feeding the second liquid injected from the second injection port to the flow path, that is smaller in diameter than the second injection port, and an identification section for distinguishing between the first injection port and the second injection port, wherein the identification section includes a cylindrical structure constituting the first well, and is configured so that the first injection port into which the first liquid is to be injected is identified, based on at least any one of an outer diameter, a planar shape and a height of the cylindrical structure, characterized in that: the identification section includes a colored part provided in the specimen processing chip.
A lamination stack for an electrical machine including a plurality of extending poles each including multiple layers of sheet metal, the stack being constructed from multiple sheet metal profiles, wherein each sheet metal profile comprises asymmetrical pole tip profiles, each asymmetrical pole tip profile comprising a pole extension on a first side of a pole stem and within the stack the asymmetrical pole tip profiles of the multiple sheet metal profiles producing a combined profile having a pole stem and a pole extension either side of the pole stem so that the stack has symmetry when viewed in the axial direction, characterised in that the multiple sheet metal profiles are interleaved in a helically-wound spiral stack.
An aerosol inhaler, comprising: a power supply that is able to discharge power to a heating resistor for generating an aerosol from an aerosol generation source (22, 31), wherein the aerosol generation source is a part which a user can replace to use, said part being provided to the user as a set of one or more aerosol generation sources, and a control unit that is configured to perform control to cause power discharge from the power supply to the heating resistor such that the power supply is not fully-discharged, characterized in that the control unit is configured to control discharge of the power supply such that an amount of power of the power supply at which to stop discharge of power from the power supply to the heating resistor such that the power supply is not fully-discharged is made to be an amount of power in accordance with a degree of deterioration of the power supply based on a calculation dividing a full charge capacity of the power supply in a deteriorated state by a full charge capacity state of the power supply in a brand new state so that an amount of power required to be supplied to the heating resistor, in a state in which charging of the power supply is completed, to consume two sets of aerosol generation sources (22, 31) that are unused is an amount of power of the power supply that is secured. a power supply that is able to discharge power to a heating resistor for generating an aerosol from an aerosol generation source (22, 31), wherein the aerosol generation source is a part which a user can replace to use, said part being provided to the user as a set of one or more aerosol generation sources, and a control unit that is configured to perform control to cause power discharge from the power supply to the heating resistor such that the power supply is not fully-discharged, characterized in that the control unit is configured to control discharge of the power supply such that an amount of power of the power supply at which to stop discharge of power from the power supply to the heating resistor such that the power supply is not fully-discharged is made to be an amount of power in accordance with a degree of deterioration of the power supply based on a calculation dividing a full charge capacity of the power supply in a deteriorated state by a full charge capacity state of the power supply in a brand new state so that an amount of power required to be supplied to the heating resistor, in a state in which charging of the power supply is completed, to consume two sets of aerosol generation sources (22, 31) that are unused is an amount of power of the power supply that is secured.
A scroll compressor, comprising: a first scroll member having a baseplate and a spiral wrap that projects from a surface of the baseplate; a second scroll member having a baseplate and a spiral wrap that projects from a surface of the baseplate; an aerostatic thrust bearing that supports the second scroll member in the axial direction and includes: a surface of the second scroll member, a surface of a fixed supporting member, and a gas distributing structure, wherein a source of pressurized gas supplies pressurized gas to the gas distributing structure; and the gas distributing structure forms a layer of gas between the surface of the fixed supporting member and the surface of the second scroll member; characterized in that the gas distributing structure is a porous material which distributes the pressurized gas between the fixed supporting member and the second scroll member. a first scroll member having a baseplate and a spiral wrap that projects from a surface of the baseplate; a second scroll member having a baseplate and a spiral wrap that projects from a surface of the baseplate; an aerostatic thrust bearing that supports the second scroll member in the axial direction and includes: a surface of the second scroll member, a surface of a fixed supporting member, and a gas distributing structure, wherein a source of pressurized gas supplies pressurized gas to the gas distributing structure; and the gas distributing structure forms a layer of gas between the surface of the fixed supporting member and the surface of the second scroll member; characterized in that the gas distributing structure is a porous material which distributes the pressurized gas between the fixed supporting member and the second scroll member.
Connection element for fixing building components to wooden panels, the connection element being able to be arranged opposite an outer surface of a building component, the connection element having a body that comprises a case and contains at least one filling material within the case, where the filling material is more elastic than the material forming the case, the case and the filling material being adapted to receive at least one through anchoring element fixable into the building component characterised in that the connection element is fixable to a wooden panel in a cross arrangement by means of a series of anchoring elements.
A fusion protein of brain-derived neurotrophic factor (BDNF) and an anti-human transferrin receptor antibody, wherein the heavy chain variable region of the antibody includes: (i) an amino acid sequence of SEQ ID NO: 69; or (ii) an amino acid sequence obtained by modifying the amino acid sequence of SEQ ID NO: 69 by substitution, deletion, or addition of 1 to 3 amino acids; and the light chain variable region of the antibody includes: (i) an amino acid sequence of SEQ ID NO: 18; or (ii) an amino acid sequence obtained by modifying the amino acid sequence of SEQ ID NO: 18 by substitution, deletion, or addition of 1 to 3 amino acids, wherein in the heavy chain variable region of the antibody, (a) CDR1 comprises the amino acid sequence of SEQ ID NO: 66 or SEQ ID NO: 67, (b) CDR2 comprises the amino acid sequence of SEQ ID NO: 13 or SEQ ID NO: 14, (c) CDR3 comprises the amino acid sequence of SEQ ID NO: 15 or SEQ ID NO: 16, and wherein in the light chain variable region of the antibody, (a) CDR1 comprises the amino acid sequence of SEQ ID NO: 6 or SEQ ID NO: 7, (b) CDR2 comprises the amino acid sequence of SEQ ID NO: 8, SEQ ID NO: 9 or amino acid sequence Lys-Val-Ser, and (c) CDR3 comprises the amino acid sequence of SEQ ID NO: 10. (i) an amino acid sequence of SEQ ID NO: 69; or (ii) an amino acid sequence obtained by modifying the amino acid sequence of SEQ ID NO: 69 by substitution, deletion, or addition of 1 to 3 amino acids; (i) an amino acid sequence of SEQ ID NO: 18; or (ii) an amino acid sequence obtained by modifying the amino acid sequence of SEQ ID NO: 18 by substitution, deletion, or addition of 1 to 3 amino acids, (a) CDR1 comprises the amino acid sequence of SEQ ID NO: 66 or SEQ ID NO: 67, (b) CDR2 comprises the amino acid sequence of SEQ ID NO: 13 or SEQ ID NO: 14, (c) CDR3 comprises the amino acid sequence of SEQ ID NO: 15 or SEQ ID NO: 16, and (a) CDR1 comprises the amino acid sequence of SEQ ID NO: 6 or SEQ ID NO: 7, (b) CDR2 comprises the amino acid sequence of SEQ ID NO: 8, SEQ ID NO: 9 or amino acid sequence Lys-Val-Ser, and (c) CDR3 comprises the amino acid sequence of SEQ ID NO: 10.
A system information transmission method, characterized by, comprising: configuring by a base station a system information including resource mapping information, wherein the resource mapping information represents the resource configuration and mapping condition; and transmitting by the base station the resource mapping information through a broadcast control channel. configuring by a base station a system information including resource mapping information, wherein the resource mapping information represents the resource configuration and mapping condition; and transmitting by the base station the resource mapping information through a broadcast control channel.
Method for manufacturing a coated part having very high mechanical properties using hot forming techniques, comprising the following steps: 1. providing an annealed steel strip or blank or pre-shaped part that has been coated with zinc or a zinc alloy before the annealing, 2. if a strip is provided, cutting a blank from the strip before or after the annealing, 3. optionally forming a pre-shaped part from the blank, 4. heating the blank or pre-shaped part to a temperature of 500 °C at an average heating rate of 16 °C/s or more and at most 50 °C/s, 5. further heating the blank or pre-shaped part to a temperature between 700 and 1000 °C, 6. hot forming the blank or pre-shaped part into a hot formed part, 7. hardening the hot formed part, wherein before the blank or pre-shaped part is taken out of an oven and put in a hot-forming apparatus, the heating of the blank or pre-shaped part is performed within 3 minutes. 1. providing an annealed steel strip or blank or pre-shaped part that has been coated with zinc or a zinc alloy before the annealing, 2. if a strip is provided, cutting a blank from the strip before or after the annealing, 3. optionally forming a pre-shaped part from the blank, 4. heating the blank or pre-shaped part to a temperature of 500 °C at an average heating rate of 16 °C/s or more and at most 50 °C/s, 5. further heating the blank or pre-shaped part to a temperature between 700 and 1000 °C, 6. hot forming the blank or pre-shaped part into a hot formed part, 7. hardening the hot formed part,
A compounder system, comprising: a carousel support frame configured to rotate a carousel of pump cartridges; a motor mounted to the carousel support frame; a drive mechanism configured to rotate the carousel; a rotatable star wheel interposed at least partially between the drive mechanism and the carousel support frame, wherein the drive mechanism is further configured to rotate the wheel; and a camera, wherein the camera is configured to capture images of a vial in the wheel while the motor rotates the vial within the wheel. a carousel support frame configured to rotate a carousel of pump cartridges; a motor mounted to the carousel support frame; a drive mechanism configured to rotate the carousel; a rotatable star wheel interposed at least partially between the drive mechanism and the carousel support frame, wherein the drive mechanism is further configured to rotate the wheel; and a camera, wherein the camera is configured to capture images of a vial in the wheel while the motor rotates the vial within the wheel.
A method, comprising: - capturing a plurality of images of an illuminated environment via long-term observation, wherein said capturing comprises acquiring RGB image pixel intensities and image depth information of the illuminated environment, - extracting from said plurality of images comprising depth information of the illuminated environment: - a) reflectance information of said environment, - b) form factors of said environment, and - c) lighting intensity and position information of light sources illuminating said environment, - generating, as a function of said reflectance information, said form factors and said lighting intensity and position information, a radiosity model of said environment, - solving said radiosity model to produce radiosity values of surface areas across said environment, and - mapping said radiosity values to illumination values of said surface areas across said environment, - extracting from said plurality of images captured light emittance values, M (x,t) or R (x,t), as well as albedo values ρ ( x) of said surface areas across the environment, - computing illumination values E (x,t) of said surface areas across the environment as a function of said emittance values and said albedo values ρ (x). - capturing a plurality of images of an illuminated environment via long-term observation, wherein said capturing comprises acquiring RGB image pixel intensities and image depth information of the illuminated environment, - extracting from said plurality of images comprising depth information of the illuminated environment: - a) reflectance information of said environment, - b) form factors of said environment, and - c) lighting intensity and position information of light sources illuminating said environment, - a) reflectance information of said environment, - b) form factors of said environment, and - c) lighting intensity and position information of light sources illuminating said environment, - generating, as a function of said reflectance information, said form factors and said lighting intensity and position information, a radiosity model of said environment, - solving said radiosity model to produce radiosity values of surface areas across said environment, and - mapping said radiosity values to illumination values of said surface areas across said environment, - extracting from said plurality of images captured light emittance values, M (x,t) or R (x,t), as well as albedo values ρ ( x) of said surface areas across the environment, - computing illumination values E (x,t) of said surface areas across the environment as a function of said emittance values and said albedo values ρ (x).