mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a base station in a wireless communication system, the method comprising: in case that a timing advance, TA, value with respect to a reception signal to be transmitted from a terminal is larger than a sum of a first time, a second time, and a third time, identifying a switching period for controlling a conversion mode of a sampling rate conversion circuit, based on the TA value with respect to the reception signal; generating a switching signal within the switching period; switching the conversion mode from a first mode to a second mode in response to the switching signal; and based on the second mode, changing a sampling rate of the reception signal or a transmission signal, wherein the wireless communication system employs a time division duplex, TDD, scheme, wherein the first time is a delay time of the reception signal, wherein the second time is a time required for down-converting the reception signal, and wherein the third time is a time required for resetting a memory of at least one filter included in the sampling rate conversion circuit. in case that a timing advance, TA, value with respect to a reception signal to be transmitted from a terminal is larger than a sum of a first time, a second time, and a third time, identifying a switching period for controlling a conversion mode of a sampling rate conversion circuit, based on the TA value with respect to the reception signal; generating a switching signal within the switching period; switching the conversion mode from a first mode to a second mode in response to the switching signal; and based on the second mode, changing a sampling rate of the reception signal or a transmission signal, wherein the wireless communication system employs a time division duplex, TDD, scheme, wherein the first time is a delay time of the reception signal, wherein the second time is a time required for down-converting the reception signal, and wherein the third time is a time required for resetting a memory of at least one filter included in the sampling rate conversion circuit.
A data processing method for a wireless backhaul line network, comprising: Determining, by a controller, a data forwarding path used for data packet transmission between user equipment and a core network; and Sending, by the controller, a data packet filtering rule and configuration information carrying the data forwarding path to a first node in the data forwarding path, wherein the filtering rule is used to match configuration information corresponding to a data packet of the first node, the configuration information comprises routing information corresponding to each node in the data forwarding path, the routing information corresponding to the any node in the data forwarding path comprises a queue identifier allocated by the controller to the data packet, and the queue identifier is used to identify a transmission queue to which the data packet belongs; wherein when the data forwarding path is used for the first time to forward the data packet or the data forwarding path changes, the routing information corresponding to the any node in the data forwarding path further comprises: an identifier of a node next to the any node and scheduling information of the transmission queue on the any node; wherein the scheduling information of the transmission queue on the any node comprises priority information allocated by the controller to the transmission queue on the any node. Determining, by a controller, a data forwarding path used for data packet transmission between user equipment and a core network; and Sending, by the controller, a data packet filtering rule and configuration information carrying the data forwarding path to a first node in the data forwarding path, wherein the filtering rule is used to match configuration information corresponding to a data packet of the first node, the configuration information comprises routing information corresponding to each node in the data forwarding path, the routing information corresponding to the any node in the data forwarding path comprises a queue identifier allocated by the controller to the data packet, and the queue identifier is used to identify a transmission queue to which the data packet belongs; wherein when the data forwarding path is used for the first time to forward the data packet or the data forwarding path changes, the routing information corresponding to the any node in the data forwarding path further comprises: an identifier of a node next to the any node and scheduling information of the transmission queue on the any node; wherein the scheduling information of the transmission queue on the any node comprises priority information allocated by the controller to the transmission queue on the any node. an identifier of a node next to the any node and scheduling information of the transmission queue on the any node; wherein the scheduling information of the transmission queue on the any node comprises priority information allocated by the controller to the transmission queue on the any node.
A hygiene monitoring device, comprising an elongate flexible sensing panel defining a longitudinal axis (X s) and a transversal axis (Ys) and being longer in the longitudinal direction than it is wide in the transverse direction, and a data logger unit attached to, or removably attachable to, the flexible sensing panel, said data logger unit defining a longitudinal axis (X d) and a transversal axis (Y d), and having a longitudinal length (l d) that is longer than its transversal width (w d), and, when the data logger unit is attached to the sensing panel, the longitudinal axis (X s) of the flexible sensing panel is aligned along the longitudinal axis (X d) of the data logger unit, wherein the flexible sensing panel comprises a flexible substrate which carries at least a first sensing element, wherein a fastening material is disposed at a first surface of the flexible sensing panel and wherein said data logger unit is disposed on the opposing, second surface of the flexible sensing panel, said device being adapted for being removably attached to a garment facing side of an absorbent hygiene product, by means of said fastening material, said absorbent hygiene product defining a body facing side, intended to face the body of the wearer during use, and an opposing garment facing side, intended to face away from the wearer during use, wherein said flexible substrate is a flexible printed circuit boards, and said at least first sensing element is electrically connected by conductive leads to a panel-side logger attachment means, wherein the ratio of the transverse width (w s), within the longitudinal extent of the flexible sensing panel covered by the data logger unit, to the longitudinal length of the sensing panel is from 0.025 to 0.1, wherein the transverse width (ws) of the flexible sensing panel, within the longitudinal extent of the flexible sensing panel covered by the data logger unit, is from 20 to 30 mm, and wherein the longitudinal length (l s) of the flexible sensing panel is from 200 to 700 mm. wherein said flexible substrate is a flexible printed circuit boards, and said at least first sensing element is electrically connected by conductive leads to a panel-side logger attachment means, wherein the ratio of the transverse width (w s), within the longitudinal extent of the flexible sensing panel covered by the data logger unit, to the longitudinal length of the sensing panel is from 0.025 to 0.1, wherein the transverse width (ws) of the flexible sensing panel, within the longitudinal extent of the flexible sensing panel covered by the data logger unit, is from 20 to 30 mm, and wherein the longitudinal length (l s) of the flexible sensing panel is from 200 to 700 mm.
A method for controlling an electronic lock, wherein the electronic lock comprises a lock catch and a lock body, the lock body comprises a first lock hook and a second lock hook; the first lock hook has a first lock hook locking position where the first lock hook is engaged with the lock catch and a first lock hook unlocking position where the first lock hook is separated from the lock catch; the second lock hook has a second lock hook locking position where the second lock hook is operative to lock the first lock hook in the first lock hook locking position and a second lock hook unlocking position where the second lock hook is separated from the first lock hook; wherein the method comprises: detecting whether a locking operation occurs, the locking operation being an operation in which the first lock hook moves from the first lock hook unlocking position; and controlling at least one of the first lock hook and the second lock hook to vibrate when the locking operation is detected, to enable the second lock hook to lock the first lock hook in the first lock hook locking position or to be separate from the first lock hook; wherein at least one of the first lock hook and the second lock hook is controlled to vibrate when the locking operation is detected, so that if the first lock hook and the second lock hook are in a pseudo locking state, the vibration enables the second lock hook to lock the first lock hook in the first lock hook locking position or to be separated from the first lock hook. detecting whether a locking operation occurs, the locking operation being an operation in which the first lock hook moves from the first lock hook unlocking position; and controlling at least one of the first lock hook and the second lock hook to vibrate when the locking operation is detected, to enable the second lock hook to lock the first lock hook in the first lock hook locking position or to be separate from the first lock hook; wherein at least one of the first lock hook and the second lock hook is controlled to vibrate when the locking operation is detected, so that if the first lock hook and the second lock hook are in a pseudo locking state, the vibration enables the second lock hook to lock the first lock hook in the first lock hook locking position or to be separated from the first lock hook.
An induction heating coil (40; 50; 60; 70) comprising: a winding of multiple layers (43; 51; 61; 72) of an electrically conductive material wound on a core (41; 53; 63; 71, 80) and comprising at least a first winding layer wound on the core and a second winding layer wound around the first winding; characterised in that the core is a ferrite core, and in that solid thermally conductive spacers (42; 52; 64; 73) are placed between the first winding layer and the second winding layer of said multiple layers to provide a thermal interface with said multiple layers for cooling said electrically conductive material. a winding of multiple layers (43; 51; 61; 72) of an electrically conductive material wound on a core (41; 53; 63; 71, 80) and comprising at least a first winding layer wound on the core and a second winding layer wound around the first winding; characterised in that the core is a ferrite core, and in that solid thermally conductive spacers (42; 52; 64; 73) are placed between the first winding layer and the second winding layer of said multiple layers to provide a thermal interface with said multiple layers for cooling said electrically conductive material.
Method for coating a workpiece with a coating material for application to a narrow side of the workpiece, which workpiece consists of wood or wood materials, comprising the steps of: supplying a coating material to a workpiece, which coating material comprises a carrier layer, an activatable adhesive layer and at least one functional carrier (3, 3a) on or in the adhesive layer, activating the adhesive layer, wherein the functional carrier (3, 3a) absorbs at least some of the energy introduced by a laser beam during activation of the adhesive layer, characterised in that a detectable signal is emitted during energetic excitation of the functional carrier, in particular an optical, physical or chemical signal, and said signal is detected by means of a sensor, wherein a control unit changes the energy input, in particular reduces same, and/or changes the supply speed of the coating material based on the result of the detection of the detectable signal, or wherein a control unit issues a warning and/or the coating method is stopped when a detectable signal has been detected. supplying a coating material to a workpiece, which coating material comprises a carrier layer, an activatable adhesive layer and at least one functional carrier (3, 3a) on or in the adhesive layer, activating the adhesive layer, wherein the functional carrier (3, 3a) absorbs at least some of the energy introduced by a laser beam during activation of the adhesive layer, characterised in that a detectable signal is emitted during energetic excitation of the functional carrier, in particular an optical, physical or chemical signal, and said signal is detected by means of a sensor, wherein a control unit changes the energy input, in particular reduces same, and/or changes the supply speed of the coating material based on the result of the detection of the detectable signal, or wherein a control unit issues a warning and/or the coating method is stopped when a detectable signal has been detected.
A method of operating a base station including multiple antenna elements for use with a plurality of wireless terminals, the method comprising: selecting first and second wireless terminals, from said plurality of wireless terminals, based on first and second channel estimate vectors corresponding to said first and second wireless terminals, respectively, each of said first and second channel estimate vectors including channel information corresponding to different ones of said multiple antenna elements; and transmitting assignment information to the selected first and second wireless terminal, the selected first and second wireless terminals being assigned first and second segments, respectively, said first and second segments including communications resources which at least substantially overlap; characterized in that said selecting of first and second wireless terminals is performed as a function of both: (i) estimated spatial correlation between communications channels between the first terminal and the base station and second wireless terminal and the base station; and (ii) estimated difference between signal to noise ratios corresponding to signals from the first and second wireless terminals, respectively. selecting first and second wireless terminals, from said plurality of wireless terminals, based on first and second channel estimate vectors corresponding to said first and second wireless terminals, respectively, each of said first and second channel estimate vectors including channel information corresponding to different ones of said multiple antenna elements; and transmitting assignment information to the selected first and second wireless terminal, the selected first and second wireless terminals being assigned first and second segments, respectively, said first and second segments including communications resources which at least substantially overlap; characterized in that said selecting of first and second wireless terminals is performed as a function of both: (i) estimated spatial correlation between communications channels between the first terminal and the base station and second wireless terminal and the base station; and (ii) estimated difference between signal to noise ratios corresponding to signals from the first and second wireless terminals, respectively. (i) estimated spatial correlation between communications channels between the first terminal and the base station and second wireless terminal and the base station; and (ii) estimated difference between signal to noise ratios corresponding to signals from the first and second wireless terminals, respectively.
Process comprising forming a stable mixture comprising I(CF 2) n I, wherein n is at least 3 and at least one of I(CF 2) n I, wherein n is 1 or 2, as a contaminant in said mixture and heating said mixture to a temperature of at least 220°C to reduce the amount of said contaminant to be no greater than 1 % when said contaminant is ICF= 2 I and no greater than 0.1% when said contaminant is ICF 2 CF 2 I, wherein said stable mixture is the reaction product of a chemical reaction in a reactor, wherein said chemical reaction is between iodine and hexafluoropropylene oxide, wherein said chemical reaction between said iodine and said hexafluoropropylene oxide is carried out at a temperature of 150°C to 210°C prior to heating said mixture to a temperature of at least 220°C, and wherein the molar proportion of said hexafluoropropylene oxide to said iodine in said chemical reaction is at least 3.0.
Primary explosive charge comprising a complex salt comprising 5-aminotetrazole as ligands, an ion which can potentially oxidize the ligand or a high-energy ion and a counterion complexed by the ligand, wherein the counterion is a metal ion, wherein the explosive contains no silver-containing complex salt.
A nicotinyl alcohol ether derivative of Formula: or a stereoisomer or a pharmaceutically acceptable salt thereof, wherein: R 1 is selected from R 3 is selected from substituted C 1 -C 8 saturated alkylamino, substituted C 2 -C 6 unsaturated alkylamino, substituted N-containing C 2 -C 6 heterocycle-1-yl, wherein each is mono-, di-, tri-, or tetra-substituted with substituent(s) selected from fluorine, chlorine, bromine, iodine, hydroxy, C 1 -C 5 alkyl, C 1 -C 5 alkoxy, amino, C 1 -C 6 alkylamino, acetylamino, cyano, ureido (-NH(C=O)NH 2), guanidino (-NH(C=NH)NH 2), ureido amino (-NH-NH(C=O)NH 2), guanidino amino (-NH-NH(C=NH)NH 2), sulfonylamino (-NHSO 3 H), sulfamoyl (-SO 2 NH 2), methanesulfonylamino (-NH-SO 2 CH 3), hydroxyformyl (-COOH), C 1 -C 8 alkoxyl carbonyl, sulfydryl, imidazolyl, thiazolyl, oxazolyl, tetrazolyl, X is selected from hydrogen, fluorine, chlorine, bromine, iodine, C 1 -C 4 alkyl, ethenyl, trifluoromethyl, methoxy.
A metal layer-free multi-layer film suitable for the production of a buoyancy/lift body with a surface weight of ≤ 33 g/m 2 and an at least nine-layer structure, comprising: (a) a layer (a) composed of at least one thermoplastic olefin homopolymer or copolymer as one of the outer layers, (b) an adhesive layer (b), being non-peelable, if necessary multilayer (c) a layer (c) composed of at least one homo and/or copolyamide, (d) at least one internal gas barrier layer (d) which adjoins layer (c) and differs from layers (c) and (e) at least in the composition of the polymer component(s); (e) a layer (e) adjoining the gas barrier layer (d) and composed of at least one homopolyamide and/or copolyamide; (f) an adhesive layer (f), if necessary multilayer; (g) at least one internal layer (g) composed of at least one thermoplastic olefin homopolymer or copolymer; (h) an adhesive layer (h), being non-peelable, if necessary multilayer; (i) a layer (i) composed of at least one homopolyamide and/or copolyamide as one of the outer layers; characterized in that the multi-layer film in machine direction as well as transverse to the machine direction at 90°C has a shrinkage behavior of < 10 %, determined as a change in dimensions in accordance with DIN 53377 and in that the multilayer film comprises no metal film nor a vapor-deposited layer form a metal or a metal compound. (a) a layer (a) composed of at least one thermoplastic olefin homopolymer or copolymer as one of the outer layers, (b) an adhesive layer (b), being non-peelable, if necessary multilayer (c) a layer (c) composed of at least one homo and/or copolyamide, (d) at least one internal gas barrier layer (d) which adjoins layer (c) and differs from layers (c) and (e) at least in the composition of the polymer component(s); (e) a layer (e) adjoining the gas barrier layer (d) and composed of at least one homopolyamide and/or copolyamide; (f) an adhesive layer (f), if necessary multilayer; (g) at least one internal layer (g) composed of at least one thermoplastic olefin homopolymer or copolymer; (h) an adhesive layer (h), being non-peelable, if necessary multilayer; (i) a layer (i) composed of at least one homopolyamide and/or copolyamide as one of the outer layers; the multi-layer film in machine direction as well as transverse to the machine direction at 90°C has a shrinkage behavior of < 10 %, determined as a change in dimensions in accordance with DIN 53377 and in that the multilayer film comprises no metal film nor a vapor-deposited layer form a metal or a metal compound.
A modified conjugated diene-based polymer, which is a compound represented by Chemical Formula 2 below: wherein R 2 is or a C1-C50 alkyl group, Pn and Pm are polymers comprising a conjugated diene monomer and a aromatic vinyl monomer as main components, with a number average molecular weight of 1,000 to 10,000,000 g/mol, and including an acryl, amine, ether or thioether monomer, Pn and Pm are identical to or different from each other, a is 1 to 3, b is 0 to 3, n is 1 to 20, and m is 0 to 20.
A low voltage circuit breaker comprising a control device for re-closing said low voltage circuit breaker, said control device being operatively associated with manoeuvring means (10, 28) of said circuit breaker, which are capable of taking a first operative position, associated with an opening configuration of said circuit breaker, and a second operative position, associated with an closing configuration of said circuit breaker, characterised in that said control device comprises at least an actuating element comprising a shape memory material and operatively associated with said manoeuvring means, said actuating element causing the movement of said manoeuvring means from said first operative position towards said second operative position, when said shape memory material performs a state transition.