mhurhangee/ep-ind-claims huggingface dataset:
Wind turbine for generating energy, in particular electrical energy, by means of moving ambient air, which has a flow duct, through which the ambient air flows by forming an air stream, wherein the flow duct has an outer casing bounding it, comprising: a first portion with a cross section tapering in the form of a funnel, into which a first amount of ambient air enters and is accelerated, a second portion of a substantially constant cross section, which adjoins the first portion and located in which is a rotor, which can be set in rotation by the ambient air flowing through, wherein the second portion has a tubular continuation, characterized by a third portion, through which the tubular continuation of the second portion extends and which has a tubular, tapering inlet funnel, which surrounds the tubular continuation and serves for the entry of a second amount of ambient air into the flow duct, a fourth portion, in which the tubular continuation of the second portion ends and which has a plane of the smallest cross section (0 plane) of the flow duct, formed by the first and second amounts of ambient air, a fifth, widening portion, and a sixth portion, which adjoins the fifth portion and in which at least one air accelerating device is arranged. a first portion with a cross section tapering in the form of a funnel, into which a first amount of ambient air enters and is accelerated, a second portion of a substantially constant cross section, which adjoins the first portion and located in which is a rotor, which can be set in rotation by the ambient air flowing through, wherein the second portion has a tubular continuation, characterized by a third portion, through which the tubular continuation of the second portion extends and which has a tubular, tapering inlet funnel, which surrounds the tubular continuation and serves for the entry of a second amount of ambient air into the flow duct, a fourth portion, in which the tubular continuation of the second portion ends and which has a plane of the smallest cross section (0 plane) of the flow duct, formed by the first and second amounts of ambient air, a fifth, widening portion, and a sixth portion, which adjoins the fifth portion and in which at least one air accelerating device is arranged.
Method for operating a nuclear magnetic flowmeter having a measuring tube that can have medium flowing through it and having a measuring device designed for determining the flow of the medium through the measuring tube, wherein the measuring device has a magnetic field generator for generating a magnetic field interfusing the medium and the measuring tube and is designed for carrying out nuclear magnetic measurements of measuring volumes adjustable in position and size in the magnetic field, and wherein each of the nuclear magnetic measurements includes adjusting the size of the measuring volume, positioning the measuring volume, generating excitation signals for exciting the medium, transmitting excitation signals into the measuring volume and measuring echo signals caused by the excitation signals, characterized in that a first nuclear magnetic measurement is carried out in a measuring volume and at least one second nuclear magnetic measurement is carried out in at least one further measuring volume, in that the measuring volumes are positioned one after the other along a measuring section having a component in the measuring tube cross section plane in such a manner that the total measuring volume formed from the measuring volumes contains at least a portion of the measuring tube wall and at least a portion of the medium, and that the echo signals of all nuclear magnetic measurements are assigned to the position of the measuring volume of the respective nuclear magnetic measurement at the measuring section and at least one abrupt change in the echo signals is detected along the measuring section.
A run flat tire comprising: a tread having an outer surface which forms a tread surface; a pair of sidewalls extending from ends, respectively, of the tread substantially inward in a radial direction; a pair of beads located substantially inward of the sidewalls, respectively, in the radial direction; a carcass extending along the tread and the sidewalls and on and between the beads; a reinforcing layer located inward of the tread and outward of the carcass in the radial direction; and a pair of load support layers located inward of the sidewalls, respectively, in an axial direction, wherein the tire has a number of dimples being equal to or greater than 50 and preferably equal to or less than 5000 on a side surface that is at an inner side in a width direction of a vehicle when the tire is mounted on the vehicle, of a pair of side surfaces of the tire, characterized in that the number of these dimples is larger than a number of dimples present on the side surface that is at an outer side in the width direction of the vehicle when the tire is mounted on the vehicle. a tread having an outer surface which forms a tread surface; a pair of sidewalls extending from ends, respectively, of the tread substantially inward in a radial direction; a pair of beads located substantially inward of the sidewalls, respectively, in the radial direction; a carcass extending along the tread and the sidewalls and on and between the beads; a reinforcing layer located inward of the tread and outward of the carcass in the radial direction; and a pair of load support layers located inward of the sidewalls, respectively, in an axial direction, wherein the tire has a number of dimples being equal to or greater than 50 and preferably equal to or less than 5000 on a side surface that is at an inner side in a width direction of a vehicle when the tire is mounted on the vehicle, of a pair of side surfaces of the tire, characterized in that the number of these dimples is larger than a number of dimples present on the side surface that is at an outer side in the width direction of the vehicle when the tire is mounted on the vehicle.
A method of performing operation control of a multistage displacement compressor (8; 18) including connected multiple stages of displacement compression units (9, 10; 19, 20) for compressing boil off gas generated from liquefied natural gas, said method being characterized by comprising: under a predetermined state when there is an increase in load due to a differential pressure between suction gas and discharge gas in a high-pressure stage compression unit (10; 20), performing operation control so that the ratio of a load of a low-pressure stage compression unit (9; 19) to the load of the high-pressure stage compression unit (10; 20) in the multistage displacement compressor (8; 18) is larger than load ratios under states other than the predetermined state, thereby reducing the load of the high-pressure stage compression unit (10; 20). under a predetermined state when there is an increase in load due to a differential pressure between suction gas and discharge gas in a high-pressure stage compression unit (10; 20), performing operation control so that the ratio of a load of a low-pressure stage compression unit (9; 19) to the load of the high-pressure stage compression unit (10; 20) in the multistage displacement compressor (8; 18) is larger than load ratios under states other than the predetermined state, thereby reducing the load of the high-pressure stage compression unit (10; 20).
A therapeutic composition, comprising an isolated aminoacyl-tRNA synthetase (AARS) polypeptide of 100 to 450 amino acids in length and comprising an amino acid sequence that is at least 95%, 98% or 100% identical to SEQ ID NO:12, 14, 50, or 58, wherein the polypeptide has an extracellular signaling activity and has a solubility of at least 5 mg/mL, and wherein the composition has a purity of at least 95% on a protein basis and less than 10 EU endotoxin / mg protein.
A metal clad cable assembly, comprising: a core comprising a plurality of power conductors (13A-C) cabled with a subassembly, each of the plurality of power conductors (13A-C) and the subassembly including an electrical conductor, a layer of insulation, and a jacket layer; an assembly jacket layer disposed over the subassembly; and a metal sheath disposed over the core. a core comprising a plurality of power conductors (13A-C) cabled with a subassembly, each of the plurality of power conductors (13A-C) and the subassembly including an electrical conductor, a layer of insulation, and a jacket layer; an assembly jacket layer disposed over the subassembly; and a metal sheath disposed over the core.
Use of a genetic marker being selected from the group consisting of Calmodulin-like protein 3 (CALML3), Biglycan, Chloride channel accessory 2 (CLCA2), Cystatin A (CSTA), Aldehyde dehydrogenase 1 family, member A1 (ALDH1A1), Nerve growth factor receptor (NGFR), S100-calcium-binding protein A8 (S100A8), Elastin, SNRPN upstream reading frame (SNURF), and Galectin-7 (LGALS7) for determining whether or not a cancer tissue contains a heterogeneous cancer cell population.
A wireless communication device comprising: a first Cyclic Redundancy Check, CRC, coder configured to generate a first block of CRC parity bits on a transport block, the first block of CRC parity bits based on a first generator polynomial, the first CRC coder attaching the first block of CRC parity bits to the transport block; a segmenting entity having an input coupled to the first CRC coder, the segmenting entity configured to segment the transport block into multiple code blocks after attaching; a second CRC coder configured to generate a second block of CRC parity bits on each code block, each of the second block of CRC parity bits based on a second generator polynomial, the second CRC coder attaching a second block of CRC parity bits to each code block, the second block of CRC parity bits attached to each code block is the second block of CRC parity bits generated based on the corresponding code block; the second generator polynomial is different than the first generator polynomial; a channel encoder configured to encode each of the code blocks including the attached second block of CRC parity bits; means for selecting the first and second generator polynomials from a group of generator polynomials comprising: D 24 + D 23 + D 6 + D 5 + D + 1; D 24 + D 21 + D 20 + D 17 + D 15 + D 11 + D 9 + D 8 + D 6 + D 5 + D + 1; and D 24 + D 23 + D 18 + D 17 + D 14 + D 11 + D 10 + D 7 + D 6 + D 5 + D 4 + D 3 + D + 1. a first Cyclic Redundancy Check, CRC, coder configured to generate a first block of CRC parity bits on a transport block, the first block of CRC parity bits based on a first generator polynomial, the first CRC coder attaching the first block of CRC parity bits to the transport block; a segmenting entity having an input coupled to the first CRC coder, the segmenting entity configured to segment the transport block into multiple code blocks after attaching; a second CRC coder configured to generate a second block of CRC parity bits on each code block, each of the second block of CRC parity bits based on a second generator polynomial, the second CRC coder attaching a second block of CRC parity bits to each code block, the second block of CRC parity bits attached to each code block is the second block of CRC parity bits generated based on the corresponding code block; the second generator polynomial is different than the first generator polynomial; a channel encoder configured to encode each of the code blocks including the attached second block of CRC parity bits; means for selecting the first and second generator polynomials from a group of generator polynomials comprising: D 24 + D 23 + D 6 + D 5 + D + 1; D 24 + D 21 + D 20 + D 17 + D 15 + D 11 + D 9 + D 8 + D 6 + D 5 + D + 1; and D 24 + D 23 + D 18 + D 17 + D 14 + D 11 + D 10 + D 7 + D 6 + D 5 + D 4 + D 3 + D + 1.
A method for guiding a cyclist riding a bicycle equipped with a bicycle handlebar, comprising: - the steps of distinctly illuminating on each side of a central fastening area of the bicycle handlebar fastened on a bicycle stem a proximal luminous area (10a, 20a) integrated into the handlebar and located on the side of the central fastening area or a distal luminous area (10b, 20b) integrated into the handlebar, depending on the route to be followed; - when approaching an exit of a roundabout that the cyclist must take among a plurality of exits of the roundabout, a step of illuminating a number of luminous points which are distinct and integrated on the handlebar, the number of distinct luminous points being indicative of the number of the exit to be taken. - the steps of distinctly illuminating on each side of a central fastening area of the bicycle handlebar fastened on a bicycle stem a proximal luminous area (10a, 20a) integrated into the handlebar and located on the side of the central fastening area or a distal luminous area (10b, 20b) integrated into the handlebar, depending on the route to be followed; - when approaching an exit of a roundabout that the cyclist must take among a plurality of exits of the roundabout, a step of illuminating a number of luminous points which are distinct and integrated on the handlebar, the number of distinct luminous points being indicative of the number of the exit to be taken.
A wireless communication device implemented as a user equipment or a relay node (21, 22, 31, 32) of a domain, comprising: a processing unit configured to perform communication processing using a network layer IP address in which a routing identifier determined for the domain is set to upper bits and an identifier uniquely assigned to each device is set to lower bits, wherein the processing unit is further configured to replace, when receiving a packet from an Internet network via a packet data network gateway, PGW, in which lower bits of an end-point address are equal to an identifier of the wireless communication device, upper bits of the end-point address with said routing identifier determined for the domain. a processing unit configured to perform communication processing using a network layer IP address in which a routing identifier determined for the domain is set to upper bits and an identifier uniquely assigned to each device is set to lower bits, wherein the processing unit is further configured to replace, when receiving a packet from an Internet network via a packet data network gateway, PGW, in which lower bits of an end-point address are equal to an identifier of the wireless communication device, upper bits of the end-point address with said routing identifier determined for the domain.
Method for the position determination of a motor vehicle comprising a navigation system with a digital street map, having the following steps: - optically detecting an object with a known, geographic position, wherein the object is a street sign with distance information which is optically detected by the vehicle; characterised by - subsequently evaluating the distance information by means of character recognition, wherein the distance information indicates a relative distance to a first reference point with known geographic position along a predefined route; - comparing the distance information and the first reference point with a second reference point of the digital street map which is determined by the navigation system by means of satellite positioning; - wherein in the case where the first reference point, taking into account the distance information, and the second reference point correspond to the same geographic position, this geographic position is determined as the position of the motor vehicle. - optically detecting an object with a known, geographic position, wherein the object is a street sign with distance information which is optically detected by the vehicle; characterised by - subsequently evaluating the distance information by means of character recognition, wherein the distance information indicates a relative distance to a first reference point with known geographic position along a predefined route; - comparing the distance information and the first reference point with a second reference point of the digital street map which is determined by the navigation system by means of satellite positioning; - wherein in the case where the first reference point, taking into account the distance information, and the second reference point correspond to the same geographic position, this geographic position is determined as the position of the motor vehicle.
A method for controlling an electronic device (41, 42,..., 4N) to which an attachment device (21, 22,..., 2N) is attached, the method comprising: receiving and storing, in a storage of the attachment device (21, 22,..., 2N), mapping information in which data in a first communication format and data in a second communication format are mapped in relation to one function of the electronic device (41, 42,..., 4N); receiving further data in the first communication format from a user terminal or a hub which is communicably connected with the attachment device (21, 22,..., 2N); acquiring, from the storage of the attachment device (21, 22,..., 2N), the data in the second communication format corresponding to the further received data in the first communication format based on the stored mapping information; determining, by the attachment device (21, 22,..., 2N), an operation state of the electronic device (41, 42,..., 4N); and transmitting, if the operation state of the electronic device (41, 42,..., 4N) indicates that the electronic device (41, 42,..., 4N) is not performing the operation related to the one function, the acquired data in the second communication format to the electronic device (41, 42,..., 4N) to control the one function of the electronic device to be performed. receiving and storing, in a storage of the attachment device (21, 22,..., 2N), mapping information in which data in a first communication format and data in a second communication format are mapped in relation to one function of the electronic device (41, 42,..., 4N); receiving further data in the first communication format from a user terminal or a hub which is communicably connected with the attachment device (21, 22,..., 2N); acquiring, from the storage of the attachment device (21, 22,..., 2N), the data in the second communication format corresponding to the further received data in the first communication format based on the stored mapping information; determining, by the attachment device (21, 22,..., 2N), an operation state of the electronic device (41, 42,..., 4N); and transmitting, if the operation state of the electronic device (41, 42,..., 4N) indicates that the electronic device (41, 42,..., 4N) is not performing the operation related to the one function, the acquired data in the second communication format to the electronic device (41, 42,..., 4N) to control the one function of the electronic device to be performed.
A method implemented by a user equipment (4, 12A, 900A, 900B, 1000) configured for use in a wireless communication system, the method comprising: receiving from a base station (2, 10, 800A, 800B, 1100) one or more configuration messages that indicate a pattern of transmission gaps in time; receiving a scheduling message that indicates scheduling of a data block and one or more repetitions of the data block; and receiving from the base station (2, 10, 800A, 800B, 1100) a scheduled transmission that comprises the data block and the one or more repetitions of the data block, wherein the scheduled transmission is received with transmission gaps therein according to the indicated pattern. receiving from a base station (2, 10, 800A, 800B, 1100) one or more configuration messages that indicate a pattern of transmission gaps in time; receiving a scheduling message that indicates scheduling of a data block and one or more repetitions of the data block; and receiving from the base station (2, 10, 800A, 800B, 1100) a scheduled transmission that comprises the data block and the one or more repetitions of the data block, wherein the scheduled transmission is received with transmission gaps therein according to the indicated pattern.
A fuel cell system, comprising: a fuel cell that generates electricity by a hydrogen and oxygen reaction; a heat exchanger that causes heat to be exchanged between an exhaust gas discharged from the fuel cell and cooling water; a heat dissipator that causes heat to be dissipated from the cooling water; a circulation path along which the cooling water circulates between the heat exchanger and the heat dissipator; a circulation pump that causes the cooling water to be circulated along the circulation path; a first temperature detector that detects a temperature of the cooling water flowing into the heat exchanger; a second temperature detector that detects a temperature of the cooling water flowing out from the heat exchanger; and a controller, wherein the controller is configured so as to adjust an output of the circulation pump such that the temperature detected by the second temperature detector becomes a first predetermined temperature, and, characterized in that, when the temperature detected by the first temperature detector is equal to or greater than a threshold value, adjust the output of the circulation pump such that the temperature detected by the second temperature detector becomes a second predetermined temperature that is higher than the first predetermined temperature. a fuel cell that generates electricity by a hydrogen and oxygen reaction; a heat exchanger that causes heat to be exchanged between an exhaust gas discharged from the fuel cell and cooling water; a heat dissipator that causes heat to be dissipated from the cooling water; a circulation path along which the cooling water circulates between the heat exchanger and the heat dissipator; a circulation pump that causes the cooling water to be circulated along the circulation path; a first temperature detector that detects a temperature of the cooling water flowing into the heat exchanger; a second temperature detector that detects a temperature of the cooling water flowing out from the heat exchanger; and a controller, wherein the controller is configured so as to adjust an output of the circulation pump such that the temperature detected by the second temperature detector becomes a first predetermined temperature, and, characterized in that, when the temperature detected by the first temperature detector is equal to or greater than a threshold value, adjust the output of the circulation pump such that the temperature detected by the second temperature detector becomes a second predetermined temperature that is higher than the first predetermined temperature.