mhurhangee/ep-ind-claims huggingface dataset:
A device for producing an electrochemically aligned strand, thread or fiber, comprising: a pump system including a) a pump, b) a solution reservoir for a solution comprising one or more of electrochemically alignable molecules, nanoparticles and microparticles with ampholytic nature, and c) an outlet; a substantially horizontally disposed electrode having a groove on an upper surface of the electrode, wherein the electrode is rotatable around a substantially vertical axis, wherein the groove extends completely around the axis at a distance therefrom, the groove having a conductive layer on each side of the groove, wherein the outlet is positioned above the groove such that the solution is applyable to a location in the groove, wherein the groove is rotatable around the axis, wherein the electrochemically aligned strand is formable in the groove upon transmission of an electric current to the conductive layer; and a collection device positioned relative to the electrode such that the electrochemically aligned strand formed on the electrode is collected by the collection device. a pump system including a) a pump, b) a solution reservoir for a solution comprising one or more of electrochemically alignable molecules, nanoparticles and microparticles with ampholytic nature, and c) an outlet; a substantially horizontally disposed electrode having a groove on an upper surface of the electrode, wherein the electrode is rotatable around a substantially vertical axis, wherein the groove extends completely around the axis at a distance therefrom, the groove having a conductive layer on each side of the groove, wherein the outlet is positioned above the groove such that the solution is applyable to a location in the groove, wherein the groove is rotatable around the axis, wherein the electrochemically aligned strand is formable in the groove upon transmission of an electric current to the conductive layer; and a collection device positioned relative to the electrode such that the electrochemically aligned strand formed on the electrode is collected by the collection device.
Support for attaching a camera to a windshield of a motor vehicle comprising a planar plate intended to be attached to the windshield, the plate being made of composite material comprising a reinforced thermoplastic, the plate being characterized in that it comprises, on its face opposite its face that can be in contact with the windshield: - ramps (Rsup, Rinf) suitable for allowing the camera to slide when it is being mounted, at least a part of said ramps (Rsup, Rinf) being able to be in contact with the camera once mounted, - abutment means, including at least one abutment means associated with one of said ramps (Rsup, Rinf) to limit the translation of said camera and at least one other abutment means that is at least one flexible abutment tab capable of immobilizing the camera in contact, once said camera is mounted on the plate. - ramps (Rsup, Rinf) suitable for allowing the camera to slide when it is being mounted, at least a part of said ramps (Rsup, Rinf) being able to be in contact with the camera once mounted, - abutment means, including at least one abutment means associated with one of said ramps (Rsup, Rinf) to limit the translation of said camera and at least one other abutment means that is at least one flexible abutment tab capable of immobilizing the camera in contact, once said camera is mounted on the plate.
A collision simulation test apparatus comprising: a table to which a test piece is to be attached, the table being movable in a predetermined direction; a toothed belt (1120a-d, 3120a, 3120d) for transmitting power; a pair of toothed pulleys around which the toothed belt (1 120a-d, 3120a, 3120d) is wound, and wherein at least one of the pair of toothed pulleys comprises a drive pulley (1140a-d, 1160a-d, 3160a, 3160d); a drive module (1320a-d, 1420a-d) capable of driving the toothed belt via the drive pulley; and characterized by; a pusher for pushing the table in the predetermined direction; a linear guide for supporting the table and the pusher to be movable in the predetermined direction; and an impact generating part for generating an impact to be applied to the test piece by a collision with the table; wherein the toothed belt is releasably fixed to one of the table and the pusher; wherein when the toothed belt is fixed to the table, the drive module generates an impact to be applied to the test piece and the impact is transmitted to the table by the toothed belt; and wherein when the toothed belt is fixed to the pusher, an impact to be applied to the test piece is generated as the table, pushed by the pusher, collides to the impact generating part. a table to which a test piece is to be attached, the table being movable in a predetermined direction; a toothed belt (1120a-d, 3120a, 3120d) for transmitting power; a pair of toothed pulleys around which the toothed belt (1 120a-d, 3120a, 3120d) is wound, and wherein at least one of the pair of toothed pulleys comprises a drive pulley (1140a-d, 1160a-d, 3160a, 3160d); a drive module (1320a-d, 1420a-d) capable of driving the toothed belt via the drive pulley; and characterized by; a pusher for pushing the table in the predetermined direction; a linear guide for supporting the table and the pusher to be movable in the predetermined direction; and an impact generating part for generating an impact to be applied to the test piece by a collision with the table; wherein the toothed belt is releasably fixed to one of the table and the pusher; wherein when the toothed belt is fixed to the table, the drive module generates an impact to be applied to the test piece and the impact is transmitted to the table by the toothed belt; and wherein when the toothed belt is fixed to the pusher, an impact to be applied to the test piece is generated as the table, pushed by the pusher, collides to the impact generating part.
Lysis, binding and/or wash reagent comprising: - at least one chaotropic compound, - at least one buffer compound, preferably selected from the group comprising tris(hydroxymethyl)aminomethane, N-(tri(hydroxymethyl)methyl)glycine, N,N-bis(2-hydroxyethyl)glycine, 3-(N-morpholino)propanesulphonic acid, N-(2-hydroxyethyl)piperazine-N'-(2-ethanesulphonic acid), piperazine-1,4-bis(2-ethanesulphonic acid), N-cyclohexyl-2-aminoethanesulphonic acid, 2-(N-morpholino)ethanesulphonic acid and/or phosphate buffer, and - at least one polyoxyethylene-based non-ionic surfactant selected from the group consisting of polyoxyethylene nonylphenyl ether, polyoxyethylene isooctylphenyl ether and polyoxyethylene isooctylphenyl ether in a range from ≥ 8% weight/volume to ≤ 50% weight/volume, based on the total volume of the reagent. - at least one chaotropic compound, - at least one buffer compound, preferably selected from the group comprising tris(hydroxymethyl)aminomethane, N-(tri(hydroxymethyl)methyl)glycine, N,N-bis(2-hydroxyethyl)glycine, 3-(N-morpholino)propanesulphonic acid, N-(2-hydroxyethyl)piperazine-N'-(2-ethanesulphonic acid), piperazine-1,4-bis(2-ethanesulphonic acid), N-cyclohexyl-2-aminoethanesulphonic acid, 2-(N-morpholino)ethanesulphonic acid and/or phosphate buffer, and - at least one polyoxyethylene-based non-ionic surfactant selected from the group consisting of polyoxyethylene nonylphenyl ether, polyoxyethylene isooctylphenyl ether and polyoxyethylene isooctylphenyl ether in a range from ≥ 8% weight/volume to ≤ 50% weight/volume, based on the total volume of the reagent.
A hand-held vacuum cleaner comprising: a permanent magnet brushless motor comprising a drive shaft with a central axis; a fan having an outer diameter substantially the same as or less than the outer diameter of the motor, wherein the fan is coaxial with the motor; a rechargeable lithium ion battery for driving the motor; a first cyclonic separating unit comprising a hollow substantially cylindrical dirt container (120, 320) with a longitudinal central axis (21, 321); and a second cyclonic separating unit comprising a plurality of cyclones (84, 284) each with an inlet port (88, 288), an outlet port (56, 256) and a discharge nozzle (87, 287), wherein the plurality of cyclones are arranged in a generally circular array about the longitudinal central axis and wherein the second cyclonic separating unit receives air flow downstream from the first cyclonic separating unit, wherein the longitudinal central axis of the dirt container is parallel to the central axis of drive shaft (21, 221). a permanent magnet brushless motor comprising a drive shaft with a central axis; a fan having an outer diameter substantially the same as or less than the outer diameter of the motor, wherein the fan is coaxial with the motor; a rechargeable lithium ion battery for driving the motor; a first cyclonic separating unit comprising a hollow substantially cylindrical dirt container (120, 320) with a longitudinal central axis (21, 321); and a second cyclonic separating unit comprising a plurality of cyclones (84, 284) each with an inlet port (88, 288), an outlet port (56, 256) and a discharge nozzle (87, 287), wherein the plurality of cyclones are arranged in a generally circular array about the longitudinal central axis and wherein the second cyclonic separating unit receives air flow downstream from the first cyclonic separating unit, wherein the longitudinal central axis of the dirt container is parallel to the central axis of drive shaft (21, 221).
A data communication system for rate matching comprising: a turbo encoder for encoding input information bits with a predetermined coding rate and outputting a systematic bit stream, a first parity bit stream and second parity bit stream for the input information bits to generate encoded bits of the input information bits; and a rate matching means for rate matching a number of bits from the encoded bits, if input bits of the rate matching means is less than output bits of the rate matching means, characterized in that the rate matching means comprises: a first rate matching means for receiving the systematic bit stream and repeating predetermined number of systematic bits in the systematic bit stream, a second rate matching means for receiving the first parity bit stream and repeating predetermined number of first parity bits in the first parity bit stream, and a third rate matching means for repeating predetermined number of second parity bits in the second parity bit stream; wherein each of the rate matching means (231, 232) repeats a determined number of bits in a respective bit stream and each bit is determined individually by rate matching parameters whether is repeated or not, wherein the number of bits to be repeated is determined by difference of input bits of the rate matching means and output bits of the rate matching means, the bits to be repeated among each stream is determined by a subtraction function between e and y, and a comparison function between a result of the subtraction function and a predetermined threshold, where e is an initial error value, y is the number of bits to be repeated. a turbo encoder for encoding input information bits with a predetermined coding rate and outputting a systematic bit stream, a first parity bit stream and second parity bit stream for the input information bits to generate encoded bits of the input information bits; and a rate matching means for rate matching a number of bits from the encoded bits, if input bits of the rate matching means is less than output bits of the rate matching means, characterized in that the rate matching means comprises: a first rate matching means for receiving the systematic bit stream and repeating predetermined number of systematic bits in the systematic bit stream, a second rate matching means for receiving the first parity bit stream and repeating predetermined number of first parity bits in the first parity bit stream, and a third rate matching means for repeating predetermined number of second parity bits in the second parity bit stream; a first rate matching means for receiving the systematic bit stream and repeating predetermined number of systematic bits in the systematic bit stream, a second rate matching means for receiving the first parity bit stream and repeating predetermined number of first parity bits in the first parity bit stream, and a third rate matching means for repeating predetermined number of second parity bits in the second parity bit stream;
The invention relates to a turbine for a turbine engine, having a stator (2, 9, 10) and a rotor comprising a rotor wheel having vanes the radially external periphery of which comprises at least one lip which radially extends outwards, with sealing means radially extending about the vanes and comprising a sealing ring; with the radially external end of the lip cooperating with said sealing ring so as to form a seal of the labyrinth type, characterized in that said sealing ring comprises at least one first portion and one second portion radially offset relative to one another, with the first portion and/or the second portion defining a groove wherein the lip is inserted, with the first portion and/or the second portion each cooperating with at least one lip (54, 55) of the vanes axially located opposite said first and second portions (20, 36), with the first portion comprising a first protruding zone engaged in a form-fitting manner in the axial direction into a first recessed zone of the second portion, with the stator (2, 9, 10) comprising means for holding the first and second portions (20, 36) in position relative to the stator (2, 9, 10).
A composition for producing a high modulus glass fiber, comprising the following components with corresponding percentage amounts by weight: SiO 2 53-68% Al 2 O 3 13-24.5% Y 2 O 3 +La 2 O 3 0.1-8% La 2 O 3 0.05-1.7% CaO+MgO+SrO 10-23% Li 2 O+Na 2 O+K 2 O <2% Fe 2 O 3 <1.5% wherein a weight percentage ratio C1=Y 2 O 3 /(Y 2 O 3 +La 2 O 3) is 0.7-0.95, and a weight percentage ratio C2=(Li 2 O+Na 2 O+K 2 O)/(Y 2 O 3 +La 2 O 3) is greater than 0.2.
A wristlet clasp comprising first and second blades (1, 2) hinged relative to each other, by a first of their respective ends, between a closed wearing position and at least one open position, said first blade carrying a member for fastening a first wristlet strand, said second lower blade being connected to a loop at its second end, the loop defining a passage for a second wristlet strand and carrying a stud intended to be inserted into an adapted hole in the wristlet strand to define a point for anchoring the latter to the clasp, the clasp further including at least one locking member for holding said first and second blades (1, 2) in their closed position, characterised in that it comprises a carriage connected to the second end of the second blade, said carriage being arranged to slide in the loop and able to switch from a first indexed position to a second indexed position to define at least two predefined positions associated with a predefined useful length of the wristlet.
A drug delivery device (10, 100, 200) comprising: a housing (50, 150, 250) having a distal end (52, 152, 252) and a proximal end (54, 154, 254); a reservoir (12, 112, 212) having a distal end and a proximal end; a carrier encasing the reservoir; a drug delivery member (14, 114, 214) in fluid communication with the distal end of the reservoir; a plunger (18, 118, 218) disposed in and moveable relative to the reservoir; a plunger rod (16, 116, 216) having a mass M P, a distal end (36, 136, 236) and a proximal end (34, 134, 234), the plunger rod being movable from (i) a first position, where the distal end of the plunger rod is spaced apart from the plunger to (ii) a second position, where the distal end of the plunger rod contacts the plunger; and a drive mechanism (20, 120, 220) coupled to the proximal end of the plunger rod, the drive mechanism being configured to deliver a drive force F D to move the plunger rod from the first position to the second position, wherein a ratio of the mass of the plunger rod to the drive force of the drive mechanism (M P /F D) is in a range of approximately a value greater than 0 kg/N (0 kg/kgf) to approximately 0.005 kg/N (0.05 kg/kgf); wherein the plunger rod, plunger, carrier, and reservoir have a total combined mass M T; and wherein a ratio of the total combined mass M T of the plunger rod, plunger, carrier, and reservoir to the drive force F D of the drive mechanism (M T /F D) is in a range of approximately a value greater than 0 kg/N (0 kg/kgf) to approximately 0.015 kg/N (0.15 kg/kgf). a housing (50, 150, 250) having a distal end (52, 152, 252) and a proximal end (54, 154, 254); a reservoir (12, 112, 212) having a distal end and a proximal end; a carrier encasing the reservoir; a drug delivery member (14, 114, 214) in fluid communication with the distal end of the reservoir; a plunger (18, 118, 218) disposed in and moveable relative to the reservoir; a plunger rod (16, 116, 216) having a mass M P, a distal end (36, 136, 236) and a proximal end (34, 134, 234), the plunger rod being movable from (i) a first position, where the distal end of the plunger rod is spaced apart from the plunger to (ii) a second position, where the distal end of the plunger rod contacts the plunger; and a drive mechanism (20, 120, 220) coupled to the proximal end of the plunger rod, the drive mechanism being configured to deliver a drive force F D to move the plunger rod from the first position to the second position, wherein a ratio of the mass of the plunger rod to the drive force of the drive mechanism (M P /F D) is in a range of approximately a value greater than 0 kg/N (0 kg/kgf) to approximately 0.005 kg/N (0.05 kg/kgf); wherein the plunger rod, plunger, carrier, and reservoir have a total combined mass M T; and wherein a ratio of the total combined mass M T of the plunger rod, plunger, carrier, and reservoir to the drive force F D of the drive mechanism (M T /F D) is in a range of approximately a value greater than 0 kg/N (0 kg/kgf) to approximately 0.015 kg/N (0.15 kg/kgf).
A method for controlling and/or regulating a training and/or rehabilitation unit, wherein a) a sensor unit flowed around by the breathing air of a person or an animal and arranged in a headset is arranged in the flow of inspired and expired air of a person or an animal using the training and/or rehabilitation unit, b) physiological parameters of ventilation and/or gas exchange of the person or the animal are determined with the aid of the respiratory gas composition and respiratory flow volume measured by the sensor unit, c) one or more maximum performance variables are established on the basis of the determined parameters under submaximal loading with the aid of a regression function and/or by limit loading to the maximum performance capability, and d) a resistance or brake arrangement of the training and/or rehabilitation unit is controlled and/or regulated as a function of at least one of the established maximum performance variables, wherein the maximum oxygen absorption (Vo2max) is determined as the maximum performance variable, wherein the resistance or brake arrangement of the training and/or rehabilitation unit is controlled and/or regulated in such a manner that the O2 absorption of the person or the animal is adjusted to a proportionate value of the maximum oxygen absorption (Vo2max) which is pre-determinable, wherein the resistance or brake arrangement of the training and/or rehabilitation unit is controlled and/or regulated in such a manner that the 02 absorption is kept constant during the loading at a value between 20% and 80% of the maximum oxygen absorption (Vo2max), wherein the flow direction of the respiratory gas is determined either by using the measured oxygen and/or carbon dioxide concentration gradients or the temperature profile on the sensor. a) a sensor unit flowed around by the breathing air of a person or an animal and arranged in a headset is arranged in the flow of inspired and expired air of a person or an animal using the training and/or rehabilitation unit, b) physiological parameters of ventilation and/or gas exchange of the person or the animal are determined with the aid of the respiratory gas composition and respiratory flow volume measured by the sensor unit, c) one or more maximum performance variables are established on the basis of the determined parameters under submaximal loading with the aid of a regression function and/or by limit loading to the maximum performance capability, and d) a resistance or brake arrangement of the training and/or rehabilitation unit is controlled and/or regulated as a function of at least one of the established maximum performance variables,
A transmitting user equipment for transmitting device to device, D2D, data to a receiving user equipment over a direct link connection in a communication system, the transmitting user equipment being adapted to request resources in the communication system and comprising: a transmitting unit configured to transmit to a base station (eNB) a direct link buffer status report, BSR, for requesting D2D resources for transmitting the D2D data to the receiving user equipment over the direct link connection, wherein the direct link BSR is different from an uplink BSR for requesting uplink resources for transmitting uplink data to the base station, the transmitting unit being adapted to transmit the direct link BSR within a BSR MAC control element, wherein the BSR MAC control element includes information on a type of the D2D data to be transmitted over the direct link connection, the information on the type of D2D data to be transmitted over the direct link connection being used by the base station (eNB) for prioritizing allocation of resources among D2D transmitting user equipments, the transmitting unit being further adapted to transmit to the base station (eNB) on an uplink data channel, an identification number associated to the direct link BSR, the identification number identifying said BSR MAC control element, wherein said direct link BSR is transmitted to the base station (eNB) on the uplink data channel for transmitting uplink data to the base station (eNB), and the uplink BSR corresponding to uplink data has a higher priority than the direct link BSR corresponding to direct link data in allocation of resources. a transmitting unit configured to transmit to a base station (eNB) a direct link buffer status report, BSR, for requesting D2D resources for transmitting the D2D data to the receiving user equipment over the direct link connection, wherein the direct link BSR is different from an uplink BSR for requesting uplink resources for transmitting uplink data to the base station, the transmitting unit being adapted to transmit the direct link BSR within a BSR MAC control element, wherein the BSR MAC control element includes information on a type of the D2D data to be transmitted over the direct link connection, the information on the type of D2D data to be transmitted over the direct link connection being used by the base station (eNB) for prioritizing allocation of resources among D2D transmitting user equipments, the transmitting unit being further adapted to transmit to the base station (eNB) on an uplink data channel, an identification number associated to the direct link BSR, the identification number identifying said BSR MAC control element, wherein said direct link BSR is transmitted to the base station (eNB) on the uplink data channel for transmitting uplink data to the base station (eNB), and the uplink BSR corresponding to uplink data has a higher priority than the direct link BSR corresponding to direct link data in allocation of resources.