mhurhangee/ep-ind-claims huggingface dataset:
A control channel resource configuration method, comprising: receiving, by a terminal device, indication information sent by a base station, wherein the indication information is used to indicate a configuration of a time-frequency resource unit of a control channel, and the configuration of the time-frequency resource unit is one of at least two configurations of a time-frequency resource unit, and the indication information is carried in higher layer signaling; and detecting, by the terminal device, the control channel based on the configuration of the time-frequency resource unit, wherein the at least two configurations of a time-frequency resource unit comprise a first configuration and a second configuration; a time-frequency resource unit of the first configuration occupies one orthogonal frequency division multiplexing symbol in a time domain, and a reference signal for demodulating the control channel is located on the orthogonal frequency division multiplexing symbol occupied by the time-frequency resource unit of the first configuration; and a time-frequency resource unit of the second configuration occupies at least two orthogonal frequency division multiplexing symbols in the time domain, and a reference signal for demodulating the control channel is located on at least one of the at least two orthogonal frequency division multiplexing symbols occupied by the time-frequency resource unit of the second configuration. receiving, by a terminal device, indication information sent by a base station, wherein the indication information is used to indicate a configuration of a time-frequency resource unit of a control channel, and the configuration of the time-frequency resource unit is one of at least two configurations of a time-frequency resource unit, and the indication information is carried in higher layer signaling; and detecting, by the terminal device, the control channel based on the configuration of the time-frequency resource unit, wherein the at least two configurations of a time-frequency resource unit comprise a first configuration and a second configuration; a time-frequency resource unit of the first configuration occupies one orthogonal frequency division multiplexing symbol in a time domain, and a reference signal for demodulating the control channel is located on the orthogonal frequency division multiplexing symbol occupied by the time-frequency resource unit of the first configuration; and a time-frequency resource unit of the second configuration occupies at least two orthogonal frequency division multiplexing symbols in the time domain, and a reference signal for demodulating the control channel is located on at least one of the at least two orthogonal frequency division multiplexing symbols occupied by the time-frequency resource unit of the second configuration.
A method for detecting coupling slippage in an encoder system comprising a rotary encoder coupled to a rotating member via a mechanical coupling, the method comprising: obtaining position data samples from the rotary encoder; determining angular acceleration data based on the position data samples; detecting at least two acceleration peaks in the angular acceleration data, including at least one negative acceleration peak and at least one positive acceleration peak; and detecting a slippage occurrence of the mechanical coupling when an interval between a negative acceleration peak and a positive acceleration peak of the at least two acceleration peaks is less than a first time period. obtaining position data samples from the rotary encoder; determining angular acceleration data based on the position data samples; detecting at least two acceleration peaks in the angular acceleration data, including at least one negative acceleration peak and at least one positive acceleration peak; and detecting a slippage occurrence of the mechanical coupling when an interval between a negative acceleration peak and a positive acceleration peak of the at least two acceleration peaks is less than a first time period.
A method of measuring the simultaneous individual muscle activity of the internal oblique and transverse abdominis, and optionally one or more additional deep muscles of the abdominal belt chosen from the multifidus, the rectus abdominis and the external oblique, of a subject performing muscle strengthening exercises for aesthetic or sporting purposes using non-invasive surface electromyographic sensors positioned in a non-circular arrangement along the targeted muscle comprising, for each deep muscle, the following steps to a. A step of acquisition of electrical signals from at least two sensors, the method being characterised by the fact that the number of sensors is between 2 and 5, b. A step for recording the electrical signals acquired during step in a memory, c. A step of processing the signals recorded in step based on the application to the signals recorded in step of a combination of signal processing algorithms in a signal processing module comprising rectification, normalisation, smoothing, thresholding, and source separation analysis, and thus delivering a plurality of processed signals (s 1 (t), s 2 (t), s 3 (t)....s n (t)), d. A step of calculating an index from the signals obtained in step c., representative of the individual muscular activity of each of at least one deep muscle of the subject's abdominal belt, by means of the execution of algorithms within digital computing environments or within a processor, and its temporal evolution in an index calculation module. a. A step of acquisition of electrical signals from at least two sensors, the method being characterised by the fact that the number of sensors is between 2 and 5, b. A step for recording the electrical signals acquired during step in a memory, c. A step of processing the signals recorded in step based on the application to the signals recorded in step of a combination of signal processing algorithms in a signal processing module comprising rectification, normalisation, smoothing, thresholding, and source separation analysis, and thus delivering a plurality of processed signals (s 1 (t), s 2 (t), s 3 (t)....s n (t)), d. A step of calculating an index from the signals obtained in step c., representative of the individual muscular activity of each of at least one deep muscle of the subject's abdominal belt, by means of the execution of algorithms within digital computing environments or within a processor, and its temporal evolution in an index calculation module.
Embedded pole part with an isolating housing made of thermoplastic material, which embedds a vacuum interrupter as well as the electric terminals, wherein at the outer surface of the housing L-shaped vertical and/or U-shaped horizontal aligned 3-dimensional structures joined by material engagement are implemented into the thermoplastic material, in order to achieve a higher mechanical stiffness as well as higher creepage length of the pole part, and that the structures are placed in the lower region near to the lower electric terminal or near to the bottom of the pole part and that the structures are implemented in an area, which has a smooth transition from a nearly round cylindric to a nearly squared cross section, wherein the vertical direction is an axial direction of the pole part.
A method comprising: allocating, by a network node, at least one resource block group from at least one first resource block group (RB,1- RB,n) on a frequency carrier used for a beam forming mode and at least one second resource block group (RB,n - RB,m) on the frequency carrier used for a multiple-input/multiple-output mode, wherein the allocating is in dependence on interference information determined by comparing radio environment information for the at least one first resource block group (RB, 1- RB,n) to radio environment information for the at least one second resource block group (RB,n -RB,m), wherein the allocating is for use by one set of a plurality of sets of user equipments. allocating, by a network node, at least one resource block group from at least one first resource block group (RB,1- RB,n) on a frequency carrier used for a beam forming mode and at least one second resource block group (RB,n - RB,m) on the frequency carrier used for a multiple-input/multiple-output mode, wherein the allocating is in dependence on interference information determined by comparing radio environment information for the at least one first resource block group (RB, 1- RB,n) to radio environment information for the at least one second resource block group (RB,n -RB,m), wherein the allocating is for use by one set of a plurality of sets of user equipments.
A method for emulsion polymerization of at least one fluoromonomer, said method comprising: (i) providing at least one aqueous emulsion comprising at least one surfactant and a monomer mixture [mixture] comprising at least one fluoromonomer [monomer] and optionally at least one additional monomer, and at least one RAFT/MADIX agent; (ii) initiating the polymerization of said monomer mixture in said aqueous emulsion adding at least one radical initiator; (iii) continuing the polymerization by adding additional amounts of said mixture and said RAFT/MADIX agent, until converting the targeted amount of said mixture, and (iv) terminating the polymerization and recovering a latex of fluoropolymer [polymer]; wherein the amount of RAFT/MADIX agent is comprised between 0.05 and 0.5 % moles, with respect to the total amount of converted monomers of said monomer mixture, and wherein the amount of said RAFT/MADIX agent present in the aqueous emulsion when initiating the polymerization in step (ii) is of at most 50 % with respect to the total amount of said RAFT/MADIX agent. (i) providing at least one aqueous emulsion comprising at least one surfactant and a monomer mixture [mixture] comprising at least one fluoromonomer [monomer] and optionally at least one additional monomer, and at least one RAFT/MADIX agent; (ii) initiating the polymerization of said monomer mixture in said aqueous emulsion adding at least one radical initiator; (iii) continuing the polymerization by adding additional amounts of said mixture and said RAFT/MADIX agent, until converting the targeted amount of said mixture, and (iv) terminating the polymerization and recovering a latex of fluoropolymer [polymer];
A barrel nut assembly, comprising: a barrel nut retainer for retaining a barrel nut in a bore of a component, the retainer comprising: a body adapted to fit within a bore and extending between a first end and a second end, and wherein the body has an aperture between the first end and second end configured to receive a barrel nut, a head portion at the first end of the body, the head portion adapted to sit over an open end of the bore, a barrel nut located in the aperture, and characterised in that the aperture is configured to releasably engage the barrel nut, and the aperture has dimensions configured to form an interference fit with the barrel nut. a body adapted to fit within a bore and extending between a first end and a second end, and wherein the body has an aperture between the first end and second end configured to receive a barrel nut, a head portion at the first end of the body, the head portion adapted to sit over an open end of the bore, a barrel nut located in the aperture, and characterised in that the aperture is configured to releasably engage the barrel nut, and the aperture has dimensions configured to form an interference fit with the barrel nut.
A system for controlling one or more flaps of an aircraft, the system comprising: a first flap moveably securable to a first wing of the aircraft, the first flap being moveable between an extended position and a retracted position; a first actuator coupled to the first flap; a first sensor coupled to the first actuator, wherein the first sensor is configured to determine a position and speed of the first actuator and output a first sensor signal that relates to the position and the speed of the first actuator; a second actuator coupled to the first flap; a second sensor coupled to the second actuator, wherein the second sensor is configured to determine a position and speed of the second actuator and output a second sensor signal that relates to the position and the speed of the second actuator; and a control unit in communication with the first actuator, the first sensor, the second actuator, and the second sensor, wherein the control unit is configured to: receive the first and second sensor signals from the first and second sensors (120, 122), respectively; compare the first and second sensor signals to determine a difference between the first and second sensor signals; and adjust the speed of one or both of the first or second actuators (112, 114) based on the difference between the first and second sensor signals. a first flap moveably securable to a first wing of the aircraft, the first flap being moveable between an extended position and a retracted position; a first actuator coupled to the first flap; a first sensor coupled to the first actuator, wherein the first sensor is configured to determine a position and speed of the first actuator and output a first sensor signal that relates to the position and the speed of the first actuator; a second actuator coupled to the first flap; a second sensor coupled to the second actuator, wherein the second sensor is configured to determine a position and speed of the second actuator and output a second sensor signal that relates to the position and the speed of the second actuator; and a control unit in communication with the first actuator, the first sensor, the second actuator, and the second sensor, wherein the control unit is configured to: receive the first and second sensor signals from the first and second sensors (120, 122), respectively; compare the first and second sensor signals to determine a difference between the first and second sensor signals; and adjust the speed of one or both of the first or second actuators (112, 114) based on the difference between the first and second sensor signals. receive the first and second sensor signals from the first and second sensors (120, 122), respectively; compare the first and second sensor signals to determine a difference between the first and second sensor signals; and adjust the speed of one or both of the first or second actuators (112, 114) based on the difference between the first and second sensor signals.
A drive assembly for a necker machine, said necker machine including a frame assembly and number of processing stations, each said processing station including a number of drive shafts, said drive assembly comprising: a plurality of motors, each motor including an output shaft; a plurality of drive wheel assemblies, each drive wheel assembly operatively coupled to an associated necker machine drive shaft; and a number of timing/drive belts operatively coupled to each drive wheel assembly; characterised in that said number of processing stations includes a number of station pairs, each station pair including a first station and a second station, and wherein: each drive wheel assembly includes a driver assembly and a driven assembly; each drive wheel assembly driver assembly directly and operatively coupled to said drive shafts of said first station; each drive wheel assembly driven assembly directly and operatively coupled to said drive shafts of said second station; and said number of station pairs includes a first station pair and a second station pair (2004"), and wherein at least one timing/drive belt is operatively coupled to both said first station pair and said second station pair (2004"). a plurality of motors, each motor including an output shaft; a plurality of drive wheel assemblies, each drive wheel assembly operatively coupled to an associated necker machine drive shaft; and a number of timing/drive belts operatively coupled to each drive wheel assembly; characterised in that said number of processing stations includes a number of station pairs, each station pair including a first station and a second station, and wherein: each drive wheel assembly includes a driver assembly and a driven assembly; each drive wheel assembly driver assembly directly and operatively coupled to said drive shafts of said first station; each drive wheel assembly driven assembly directly and operatively coupled to said drive shafts of said second station; and said number of station pairs includes a first station pair and a second station pair (2004"), and wherein at least one timing/drive belt is operatively coupled to both said first station pair and said second station pair (2004"). each drive wheel assembly includes a driver assembly and a driven assembly; each drive wheel assembly driver assembly directly and operatively coupled to said drive shafts of said first station; each drive wheel assembly driven assembly directly and operatively coupled to said drive shafts of said second station; and said number of station pairs includes a first station pair and a second station pair (2004"), and wherein at least one timing/drive belt is operatively coupled to both said first station pair and said second station pair (2004").
A method performed by a network node (111, 112), for configuring a Packet Data Convergence Protocol, PDCP, for a wireless device in a communications network, which communications network comprises a first type of core network and a second type of core network, the method comprising: deciding whether the network node (111, 112) is a master node or a secondary node for the wireless device; when the network node (111, 112) is a master node, configuring the PDCP for the wireless device based on which type of core network the wireless device connects to, out of a core network of a first type, and a core network of a second type, when the network node (111, 112) is a secondary node, configuring the PDCP for the wireless device based on any one or more out of: - which type of master node the network node (111, 112) connects to, out of a master node of a first type, and a master node of a second type, - which type of core network the wireless device connects to, out of a core network of a first type, and a core network of a second type, and wherein the first type and the second type relates different generations of telecommunication networks. deciding whether the network node (111, 112) is a master node or a secondary node for the wireless device; when the network node (111, 112) is a master node, configuring the PDCP for the wireless device based on which type of core network the wireless device connects to, out of a core network of a first type, and a core network of a second type, when the network node (111, 112) is a secondary node, configuring the PDCP for the wireless device based on any one or more out of: - which type of master node the network node (111, 112) connects to, out of a master node of a first type, and a master node of a second type, - which type of core network the wireless device connects to, out of a core network of a first type, and a core network of a second type, and - which type of master node the network node (111, 112) connects to, out of a master node of a first type, and a master node of a second type, - which type of core network the wireless device connects to, out of a core network of a first type, and a core network of a second type, and wherein the first type and the second type relates different generations of telecommunication networks.
A process for treating a tailings stream comprising (a) contacting a silicate source and an activator with said tailings stream, (b) entrapping fine clay and sand within a silica gel, (c) spreading the silica gel over a surface, and (d) allowing the silica gel to dry to produce a trafficable surface, wherein the silicate source is an alkali metal silicate, polysilicate microgel, or combinations thereof, wherein the tailings stream is from an oil sands ore aqueous slurry, and wherein the tailings stream comprises water, fine clays and sands, wherein 20% by volume to 100% by volume of the fine clays and sand have a particle size less than 0.05 mm.
A solvent extraction composition comprising in a total amount of up to 70 % by weight, at least one oxime extractant selected from the group consisting of - orthohydroxyarylketoximes of the Formula wherein R 1 is an optionally substituted hydrocarbyl group R 2 is an optionally substituted ortho-hydroxyaryl group, tautomers and salts thereof; - orthohydroxyarylaldoximes of the Formula wherein R 3 is an optionally substituted ortho-hydroxyaryl group, tautomers and salts thereof, and mixtures thereof; - from 0.1 % to 20 % by weight of at least one substantially water insoluble aromatic hydroxy containing antidegradation agents selected from the group consisting of and mixtures thereof; - and optionally at least one water-immiscible organic solvent. - orthohydroxyarylketoximes of the Formula wherein R 1 is an optionally substituted hydrocarbyl group R 2 is an optionally substituted ortho-hydroxyaryl group, tautomers and salts thereof; R 1 is an optionally substituted hydrocarbyl group R 2 is an optionally substituted ortho-hydroxyaryl group, tautomers and salts thereof; - orthohydroxyarylaldoximes of the Formula wherein R 3 is an optionally substituted ortho-hydroxyaryl group, tautomers and salts thereof, and mixtures thereof; R 3 is an optionally substituted ortho-hydroxyaryl group, tautomers and salts thereof, and mixtures thereof; - from 0.1 % to 20 % by weight of at least one substantially water insoluble aromatic hydroxy containing antidegradation agents selected from the group consisting of and mixtures thereof; - and optionally at least one water-immiscible organic solvent.
A refrigerator comprising: a first storage compartment positioned at an upper side of a cabinet; a second storage compartment positioned below the first storage compartment; a partition wall configured to isolate the first storage compartment from the second storage compartment upwards and downwards and to have a horizontal upper surface; a receiver including a receiving space depressed downwards from the upper surface of the partition wall and an introduction port formed in an upper portion thereof so as to allow storage objects to be introduced into the receiving space therethrough; and a receiver door configured to be moved in a direction parallel to the upper surface of the partition wall so as to selectively open or close the introduction port, characterized by an elastic-force provider for providing the receiver door with restoring force when the receiver door is moved in order to open the receiver; and a transfer unit including a speed controller for reducing a moving speed of the receiver door when the receiver door is moved to close the receiver. a first storage compartment positioned at an upper side of a cabinet; a second storage compartment positioned below the first storage compartment; a partition wall configured to isolate the first storage compartment from the second storage compartment upwards and downwards and to have a horizontal upper surface; a receiver including a receiving space depressed downwards from the upper surface of the partition wall and an introduction port formed in an upper portion thereof so as to allow storage objects to be introduced into the receiving space therethrough; and a receiver door configured to be moved in a direction parallel to the upper surface of the partition wall so as to selectively open or close the introduction port, characterized by an elastic-force provider for providing the receiver door with restoring force when the receiver door is moved in order to open the receiver; and a transfer unit including a speed controller for reducing a moving speed of the receiver door when the receiver door is moved to close the receiver.