mhurhangee/ep-ind-claims huggingface dataset:
A polar code rate matching method, comprising: obtaining a Polar code output by a polar code encoder; if the Polar code output is a systematic code, dividing the Polar code output into systematic bits and parity bits, interleaving the systematic bits to obtain a first group of interleaved bits, and interleaving the parity bits to obtain a second group of interleaved bits and determining, by performing a rate-matching operation, a rate-matched output sequence based on the first group of interleaved bits and the second group of interleaved bits; if the Polar code output is a non-systematic code, performing integral interleaving on the non-systematic Polar code to obtain interleaved bits and determining, by performing a rate-matching operation, a rate-matched output sequence based on the interleaved bits; wherein the determining a rate-matched output sequence based on the first group of interleaved bits and the second group of interleaved bits comprises: sequentially combining the first group of interleaved bits and the second group of interleaved bits into a third group of interleaved bits, and sequentially clipping or repeatedly extracting bits from the third group of interleaved bits to obtain the rate-matched output sequence. obtaining a Polar code output by a polar code encoder; if the Polar code output is a systematic code, dividing the Polar code output into systematic bits and parity bits, interleaving the systematic bits to obtain a first group of interleaved bits, and interleaving the parity bits to obtain a second group of interleaved bits and determining, by performing a rate-matching operation, a rate-matched output sequence based on the first group of interleaved bits and the second group of interleaved bits; if the Polar code output is a non-systematic code, performing integral interleaving on the non-systematic Polar code to obtain interleaved bits and determining, by performing a rate-matching operation, a rate-matched output sequence based on the interleaved bits; wherein the determining a rate-matched output sequence based on the first group of interleaved bits and the second group of interleaved bits comprises: sequentially combining the first group of interleaved bits and the second group of interleaved bits into a third group of interleaved bits, and sequentially clipping or repeatedly extracting bits from the third group of interleaved bits to obtain the rate-matched output sequence. sequentially combining the first group of interleaved bits and the second group of interleaved bits into a third group of interleaved bits, and sequentially clipping or repeatedly extracting bits from the third group of interleaved bits to obtain the rate-matched output sequence.
An organic light emitting diode (OLED) array substrate, comprising: gate lines, data lines, and a plurality of pixel units defined by the gate lines and the data lines, wherein each pixel unit comprises a first region which emits light and a second region which does not emit light, the first region is provided with an organic light emitting diode which comprises an organic layer; the second region is provided with a conductive unit, which is electrically connected in parallel with a corresponding data line, the data lines and the conductive unit are arranged in different layers; the OLED array substrate further comprises a base substrate, and an orthographic projection of the conductive unit onto the base substrate does not overlap an orthographic projection of the organic layer onto the substrate characterized in that: the conductive unit is arranged at the same layer with a cathode of the organic light emitting diode. each pixel unit comprises a first region which emits light and a second region which does not emit light, the first region is provided with an organic light emitting diode which comprises an organic layer; the second region is provided with a conductive unit, which is electrically connected in parallel with a corresponding data line, the data lines and the conductive unit are arranged in different layers; the OLED array substrate further comprises a base substrate, and an orthographic projection of the conductive unit onto the base substrate does not overlap an orthographic projection of the organic layer onto the substrate characterized in that: the conductive unit is arranged at the same layer with a cathode of the organic light emitting diode.
A method for determining an irradiation dose deposited in a scintillator by ionizing radiation, said method comprising the steps of: - irradiating the scintillator with the ionizing radiation for a predetermined time, with each interaction between the ionizing radiation and the scintillator exciting the scintillator and causing the emission of scintillation photons; characterized in that it further comprises the following steps: - detecting an instant at which the scintillator is excited, which corresponds to an excitation event by the ionizing radiation with two contributions: one direct excitation of the scintillator and one ionization of the scintillator, using a first photodetector; then - detecting an instant at which a scintillation photon emitted by the scintillator is received, using a second photodetector, different from the first photodetector; - identifying each sequence consisting of the detection of an excitation instant by the first photodetector, followed by the detection of a reception instant by the second photodetector at a coincidence event; - counting (120, 125) the number of coincidence events detected during the predetermined irradiation time; and - obtaining the irradiation dose deposited in the scintillator during the predetermined irradiation time as a function of the number of counted coincidence events and a pre-determined proportionality factor, - with the second photodetector operating in a single photon counting mode during the step of detecting the scintillation photon reception instant by the second photodetector. - irradiating the scintillator with the ionizing radiation for a predetermined time, with each interaction between the ionizing radiation and the scintillator exciting the scintillator and causing the emission of scintillation photons; - detecting an instant at which the scintillator is excited, which corresponds to an excitation event by the ionizing radiation with two contributions: one direct excitation of the scintillator and one ionization of the scintillator, using a first photodetector; then - detecting an instant at which a scintillation photon emitted by the scintillator is received, using a second photodetector, different from the first photodetector; - identifying each sequence consisting of the detection of an excitation instant by the first photodetector, followed by the detection of a reception instant by the second photodetector at a coincidence event; - counting (120, 125) the number of coincidence events detected during the predetermined irradiation time; and - obtaining the irradiation dose deposited in the scintillator during the predetermined irradiation time as a function of the number of counted coincidence events and a pre-determined proportionality factor, - with the second photodetector operating in a single photon counting mode during the step of detecting the scintillation photon reception instant by the second photodetector.
A receiver for a Multiple Input Multiple Output, MIMO, communications system, comprising: a linear receiver module configured to perform a linear operation on a signal y received through two or more antennas using a matrix P to generate a complex z vector, wherein the matrix P is generated using a lattice reduction algorithm performed on a channel matrix for a MIMO channel; and a list generator module configured to receive the complex z vector from the linear receiver module and the matrix P and to generate a list of possible data vectors and metrics from the received signal using complex integer approximations of the complex components of the vector z, wherein the list is generated by operations in the complex domain. a linear receiver module configured to perform a linear operation on a signal y received through two or more antennas using a matrix P to generate a complex z vector, wherein the matrix P is generated using a lattice reduction algorithm performed on a channel matrix for a MIMO channel; and a list generator module configured to receive the complex z vector from the linear receiver module and the matrix P and to generate a list of possible data vectors and metrics from the received signal using complex integer approximations of the complex components of the vector z, wherein the list is generated by operations in the complex domain.
A method for diagnosing degenerative joint disease in an animal comprising:; determining the amount of at least one diagnostic agent selected from the group consisting of IFNγ, IP-10, IL-2, and TSP in a saliva sample of an animal; comparing the amount of diagnostic agent found in the saliva sample to a corresponding amount of the same diagnostic agent found in a saliva sample from one or more comparable control animals that do not suffer from degenerative joint disease; and diagnosing that the animal is susceptible to or suffering from degenerative joint disease if the amount of diagnostic agent in the saliva sample from the animal is greater than the amount of same diagnostic agent found in the saliva sample from the one or more comparable control animals.; determining the amount of at least one diagnostic agent selected from the group consisting of IFNγ, IP-10, IL-2, and TSP in a saliva sample of an animal; comparing the amount of diagnostic agent found in the saliva sample to a corresponding amount of the same diagnostic agent found in a saliva sample from one or more comparable control animals that do not suffer from degenerative joint disease; and diagnosing that the animal is susceptible to or suffering from degenerative joint disease if the amount of diagnostic agent in the saliva sample from the animal is greater than the amount of same diagnostic agent found in the saliva sample from the one or more comparable control animals.
An aircraft inert gas generating system comprising: a fuel source; an air-fuel mixing unit configured to receive an amount of the fuel and an amount of air and create an air-fuel mixture; a catalytic oxidation unit downstream of the air-fuel mixing unit and configured to receive and react the air-fuel mixture and generate a gaseous reaction mixture; a condenser downstream of and in flow communication with the catalytic oxidation unit and configured to receive the gaseous reaction mixture; and characterized by a cabin exhaust circuit in flow communication with the condenser and configured to provide cabin exhaust air at a first temperature below 100°F (38°C) to the condenser to cool and remove an amount of water vapor from the gaseous mixture. a fuel source; an air-fuel mixing unit configured to receive an amount of the fuel and an amount of air and create an air-fuel mixture; a catalytic oxidation unit downstream of the air-fuel mixing unit and configured to receive and react the air-fuel mixture and generate a gaseous reaction mixture; a condenser downstream of and in flow communication with the catalytic oxidation unit and configured to receive the gaseous reaction mixture; and characterized by a cabin exhaust circuit in flow communication with the condenser and configured to provide cabin exhaust air at a first temperature below 100°F (38°C) to the condenser to cool and remove an amount of water vapor from the gaseous mixture.
Screw-rotor machine, preferably an expander, which machine comprises two screw rotors and a housing having an inlet opening and an outlet opening, which housing forms a working space in which the screw rotors are rotatably arranged in engagement with each other, at least one of the rotors being provided with at least one axle journal mounted in bearings, which bearing is oil lubricated and arranged in a bearing chamber, which bearing chamber communicates with the working space via a gap seal, wherein the bearing chamber in addition communicates with an oil supply conduit and a drainage conduit, characterized in that said drainage conduit is connected with a pressure that is lower than the lowest pressure in the working space when it is open to the outlet opening, and in that an oil separator is arranged in the drainage conduit for separation of oil from medium flowing through the drainage conduit.
A gas barrier laminate film, wherein the gas barrier laminate film has a plastic substrate, a silicon oxide layer formed on at least one surface of the plastic substrate, and a coat layer formed by applying a coating solution onto a surface of the silicon oxide layer; the coating solution comprises a mixture of a polyurethane-based resin whose terminal is any of a hydroxy group and an isocyanate group, and a silane coupling agent and contains a reaction product of with as a main component; and a number-average molecular weight of the reaction product is in the range of 100,000 to 1,000,000; and wherein the oxygen permeability of the gas barrier laminate film is 4 mL/m 2 /24-hours/MPa or less.
A chromatography system comprising plural fluid handling components (12-18; 820) fluidically interconnectable by fluid tubing (30; 822) to form a bioprocess fluid flow path, said fluid handling components comprising one or more fluid ports with a spigot (20; 20'; 280; 290; 295) extending from a component face and for receiving a respective end of the fluid tubing (30; 822) such that the fluid tubing end sealingly embraces the spigot (20; 20'; 280; 290; 295) and for receiving a releasable locking clamp (100; 300) comprised in the chromatography system for applying a radial locking force on an outer surface of the tubing end for locking the end of the fluid tubing (30; 822) on the spigot (20; 20'; 280; 290; 295), characterised in that the interconnection withstands at least 10 bar, and wherein the releasable locking clamp (100; 300) comprises: a cylindrical inner component (110; 310; 410) for accepting the fluid tubing (30; 822), said inner component including a resiliently deflectable portion (118; 318; 418) arranged to urge an outer surface of the fluid tubing (30; 822) toward a respective spigot (20; 20'; 280; 290; 295); and a cylindrical collar element (130; 230'; 330; 430) having an internal through-aperture for accepting the inner component (110; 310; 410), the through-aperture and resiliently deflectable portion (118, 318; 418) having complementary surface formations which in a first position of the collar element (130; 230'; 330; 430) mounted to the inner component (110; 310; 410) provide for resilient deflection in use, and which in a second different position do not cause said deflection. a cylindrical inner component (110; 310; 410) for accepting the fluid tubing (30; 822), said inner component including a resiliently deflectable portion (118; 318; 418) arranged to urge an outer surface of the fluid tubing (30; 822) toward a respective spigot (20; 20'; 280; 290; 295); and a cylindrical collar element (130; 230'; 330; 430) having an internal through-aperture for accepting the inner component (110; 310; 410), the through-aperture and resiliently deflectable portion (118, 318; 418) having complementary surface formations which in a first position of the collar element (130; 230'; 330; 430) mounted to the inner component (110; 310; 410) provide for resilient deflection in use, and which in a second different position do not cause said deflection.
Landing bearing for use in a magnetic bearing assembly, the landing bearing comprising: a. a first landing surface (20, 20a, 20b); b. a second landing surface (22, 22a, 22b), wherein the second landing surface (22, 22a, 22b) is arranged so as to face the first landing surface (20, 20a, 20b); characterised in that c. at least one of the first landing surface (20, 20a, 20b) and the second landing surface (22, 22a, 22b) is coated with a porous structure layer including pores suitable for being filled with lubricant, and that the porous structure layer has a layer thickness of 0.5 to 20 μm. a. a first landing surface (20, 20a, 20b); b. a second landing surface (22, 22a, 22b), wherein the second landing surface (22, 22a, 22b) is arranged so as to face the first landing surface (20, 20a, 20b); characterised in that c. at least one of the first landing surface (20, 20a, 20b) and the second landing surface (22, 22a, 22b) is coated with a porous structure layer including pores suitable for being filled with lubricant, and that the porous structure layer has a layer thickness of 0.5 to 20 μm.
Method for monitoring the function of ultrasonic sensors of a vehicle, wherein the vehicle comprises at least one ultrasonic sensor (2-5, 8-11)i oriented parallel to the direction of movement and at least one ultrasonic sensor (1, 6, 7, 12) oriented perpendicular to the direction of movement, wherein the ultrasonic sensors emit ultrasonic signals (110, 120) at a frequency f 0, and wherein the ultrasonic sensors receive ground echoes (112, 122) reflected by the ground during the journey, characterized in that at least one ultrasonic sensor (1, 6, 7, 12) oriented perpendicular to the direction of movement is used to record a ground echo as a reference signal and at least one ultrasonic sensor (2-5, 8-11) oriented parallel to the direction of movement is used to record a Doppler-shifted ground echo as a measurement signal, wherein a ratio of the amplitude of the measurement signal and the amplitude of the reference signal is formed on the basis of the Doppler frequency f 1 of the Doppler-shifted ground echo and the frequency response curve of the at least one ultrasonic sensor (2-5, 8-11) oriented parallel to the direction of movement is determined from at least two ratios determined at different Doppler frequencies f 1, and wherein a malfunction of an ultrasonic sensor is detected by virtue of deviations of the determined frequency response curve from a reference frequency response curve.
A system for residue detection and implement control, the system comprising: an agricultural implement with access to a source of environmental data (220, 222, 236, 234, 238, 310) having an indication of environmental factors; a sensor (54, 58, 74, 82) that obtains image data of a field; a data store containing a plurality of image processing methods to detect residue; a controller operatively coupled to the sensor (54, 58, 74, 82) and to the source of environmental data (220, 222, 236, 234, 238, 310) and to the data store, the controller processing the image data according to one or more of the image processing methods; wherein the controller is configured to: select one or more of the image processing methods based on the environmental data (220, 222, 236, 234, 238, 310); process the image data using the selected one or more of the image processing methods to determine a value of residue coverage in the imaged area of the field; and generate one or more control signals that includes an adjustment to the agricultural implement based on the value of residue coverage characterized in that the controller is configured to determine an environmental contrast based on the environmental data (220, 222, 236, 234, 238, 310), and the controller is configured to select the one or more of the image processing methods based on the environmental contrast. an agricultural implement with access to a source of environmental data (220, 222, 236, 234, 238, 310) having an indication of environmental factors; a sensor (54, 58, 74, 82) that obtains image data of a field; a data store containing a plurality of image processing methods to detect residue; a controller operatively coupled to the sensor (54, 58, 74, 82) and to the source of environmental data (220, 222, 236, 234, 238, 310) and to the data store, the controller processing the image data according to one or more of the image processing methods; wherein the controller is configured to: select one or more of the image processing methods based on the environmental data (220, 222, 236, 234, 238, 310); process the image data using the selected one or more of the image processing methods to determine a value of residue coverage in the imaged area of the field; and generate one or more control signals that includes an adjustment to the agricultural implement based on the value of residue coverage characterized in that select one or more of the image processing methods based on the environmental data (220, 222, 236, 234, 238, 310); process the image data using the selected one or more of the image processing methods to determine a value of residue coverage in the imaged area of the field; and generate one or more control signals that includes an adjustment to the agricultural implement based on the value of residue coverage characterized in that the controller is configured to determine an environmental contrast based on the environmental data (220, 222, 236, 234, 238, 310), and the controller is configured to select the one or more of the image processing methods based on the environmental contrast.
Birth assisting module for being arranged in a region of a birth furniture where a pelvis of a mother is intended to be placed during birth, comprising a pelvis mobilisation support, a movement mechanics and a drive unit, wherein the pelvis mobilisation support is coupled to the movement mechanics, the movement mechanics is adapted to induce a controlled cadenced displacement of the pelvis mobilisation support, the controlled cadenced displacement moves the pelvis mobilisation support by at least 1 cm, at least 2 cm, at least 3 cm, at least 4 cm, at least 6 cm, at least 7 cm, at least 8 cm, at least 9 cm or at least 10 cm and preferably by at least 5 cm, and the drive unit is connected to the movement mechanics to actuate the movement mechanics, wherein the movement mechanics comprises a rocker member coupled to the pelvis mobilisation support, the birth assisting module characterized in that the rocker member of the movement mechanics is oriented such that the pelvis mobilisation support laterally tilts when the controlled cadenced displacement of the pelvis mobilisation support is induced by the movement mechanics. the pelvis mobilisation support is coupled to the movement mechanics, the movement mechanics is adapted to induce a controlled cadenced displacement of the pelvis mobilisation support, the controlled cadenced displacement moves the pelvis mobilisation support by at least 1 cm, at least 2 cm, at least 3 cm, at least 4 cm, at least 6 cm, at least 7 cm, at least 8 cm, at least 9 cm or at least 10 cm and preferably by at least 5 cm, and the drive unit is connected to the movement mechanics to actuate the movement mechanics, wherein the movement mechanics comprises a rocker member coupled to the pelvis mobilisation support, the birth assisting module characterized in that the rocker member of the movement mechanics is oriented such that the pelvis mobilisation support laterally tilts when the controlled cadenced displacement of the pelvis mobilisation support is induced by the movement mechanics.