mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a wireless terminal device in a communication network, the method comprising, on receiving a rejection of a connection request to a network node, (i) receiving, from the network node, an indication of whether the terminal device is to apply broadcast parameters from the network node or from another network node and discard dedicated parameters received from the network node using dedicated signalling; (ii) using the broadcast parameters that have been broadcast from the network node or from another network node in an access network selection and/or traffic steering or routing procedure between networks operating according to different radio access technologies, if so indicated in the indication; and (iii) discarding dedicated parameters that have been received from the network node using dedicated signalling, the dedicated parameters being for use in the access network selection and/or traffic steering or routing procedure between networks operating according to different radio access technologies, if so indicated in the indication. (i) receiving, from the network node, an indication of whether the terminal device is to apply broadcast parameters from the network node or from another network node and discard dedicated parameters received from the network node using dedicated signalling; (ii) using the broadcast parameters that have been broadcast from the network node or from another network node in an access network selection and/or traffic steering or routing procedure between networks operating according to different radio access technologies, if so indicated in the indication; and (iii) discarding dedicated parameters that have been received from the network node using dedicated signalling, the dedicated parameters being for use in the access network selection and/or traffic steering or routing procedure between networks operating according to different radio access technologies, if so indicated in the indication.
Method of producing induction components, having the following method steps: - a winding operation is carried out for a multiplicity of coils arranged one beside the other and having parallel coil axes; - the coils are embedded at mutual intervals in a block made of pressed substrate; - the interior of the coils in the block is filled with the substrate, which is present in the form of powder material; - the substrate powder is pressed; - the two ends of the coil winding of all the coils are exposed; characterized by the steps: - the exposed ends of the coil windings are provided with connection contacts; - the block is then divided up to form the individual induction components each containing at least one coil. - a winding operation is carried out for a multiplicity of coils arranged one beside the other and having parallel coil axes; - the coils are embedded at mutual intervals in a block made of pressed substrate; - the interior of the coils in the block is filled with the substrate, which is present in the form of powder material; - the substrate powder is pressed; - the two ends of the coil winding of all the coils are exposed; - the exposed ends of the coil windings are provided with connection contacts; - the block is then divided up to form the individual induction components each containing at least one coil.
Electrical current transducer including a housing, a magnetic field detector device comprising a magnetic field sensing element, and a magnetic circuit comprising a magnetic core with a gap and a bridging device mounted on the magnetic core and spanning across the gap, the magnetic field sensing element being positioned in the gap, characterised in that the bridging device comprises a gap positioning element made of a non-magnetic material inserted in the gap configured to determine a minimum width of the gap, and wherein the bridging device further comprises at least two parts (8a, 8b), a first part mounted against a first lateral side of the magnetic core and a second part mounted mounted against a second lateral side of the magnetic core opposite the first lateral side, at least one of the first and second parts comprising fixing extensions cooperating with the other of the first and second parts configured for clamping together the first and second parts around a portion of the magnetic core comprising the gap.
A method for manufacturing 1,4-bis(4-phenoxybenzoyl)benzene, comprising: - providing terephthaloyl chloride, diphenyl ether, a reaction solvent and a Lewis acid, wherein the terephthaloyl chloride is of a purity grade such that, 10 minutes after introducing it at a reference concentration of 6.5 wt.% into an anhydrous grade of ortho-dichlorobenzene having a content of water of less than 50 ppm, at a temperature of 20°C, a solution is obtained having a turbidity of less than 500 NTU; - mixing the terephthaloyl chloride, the diphenyl ether and the reaction solvent so as to make a reactant mixture; - adding the Lewis acid to the reactant mixture so as to effect the reaction of the terephthaloyl chloride with the diphenyl ether to form 1,4-bis(4-phenoxybenzoyl)benzene-Lewis, wherein the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex is dissolved in the reaction solvent at a 1,4-bis(4-phenoxybenzoyl)benzene weight concentration in the reaction solvent which is higher than the saturation limit of the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex during at least part of the reaction of the terephthaloyl chloride with the diphenyl ether; - recovering a product mixture comprising a 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex. - providing terephthaloyl chloride, diphenyl ether, a reaction solvent and a Lewis acid, wherein the terephthaloyl chloride is of a purity grade such that, 10 minutes after introducing it at a reference concentration of 6.5 wt.% into an anhydrous grade of ortho-dichlorobenzene having a content of water of less than 50 ppm, at a temperature of 20°C, a solution is obtained having a turbidity of less than 500 NTU; - mixing the terephthaloyl chloride, the diphenyl ether and the reaction solvent so as to make a reactant mixture; - adding the Lewis acid to the reactant mixture so as to effect the reaction of the terephthaloyl chloride with the diphenyl ether to form 1,4-bis(4-phenoxybenzoyl)benzene-Lewis, wherein the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex is dissolved in the reaction solvent at a 1,4-bis(4-phenoxybenzoyl)benzene weight concentration in the reaction solvent which is higher than the saturation limit of the 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex during at least part of the reaction of the terephthaloyl chloride with the diphenyl ether; - recovering a product mixture comprising a 1,4-bis(4-phenoxybenzoyl)benzene-Lewis acid complex.
A method performed by a user equipment, UE, the method comprising: receiving, at the UE from an access device (110, 140), on a physical downlink control channel, PDCCH, a first downlink control information, DCI, set with DCI formats (402, 404, 406; 502, 504, 506, 508) containing a carrier indicator field, CIF (405, 507); receiving at the UE from the access device a radio resource control, RRC, command indication to switch from using the first DCI set to using a second DCI set; the indication causing the UE to reconfigure, when carriers are aggregated for use by the UE, for switching from monitoring the first downlink control information, DCI, set to monitoring the second DCI set such that after the UE is caused to reconfigure for switching from monitoring the first DCI set to monitoring the second DCI set, the UE temporarily monitors both the first DCI set and the second DCI set on the PDCCH; and wherein the first DCI set comprises a set of DCI formats having a first CIF size, and wherein the second DCI set comprises a set of DCI formats having a second, different CIF size. receiving, at the UE from an access device (110, 140), on a physical downlink control channel, PDCCH, a first downlink control information, DCI, set with DCI formats (402, 404, 406; 502, 504, 506, 508) containing a carrier indicator field, CIF (405, 507); receiving at the UE from the access device a radio resource control, RRC, command indication to switch from using the first DCI set to using a second DCI set; the indication causing the UE to reconfigure, when carriers are aggregated for use by the UE, for switching from monitoring the first downlink control information, DCI, set to monitoring the second DCI set such that after the UE is caused to reconfigure for switching from monitoring the first DCI set to monitoring the second DCI set, the UE temporarily monitors both the first DCI set and the second DCI set on the PDCCH; and wherein the first DCI set comprises a set of DCI formats having a first CIF size, and wherein the second DCI set comprises a set of DCI formats having a second, different CIF size.
A ceiling-mounted and wall-mounted dual-purpose lamp kit, comprising a light-emitting component, an installation bottom box, a suspension wire mounting box and a wall mounting box, wherein the light-emitting component comprises a lampshade; a PCB, a control board and a lamp holder are sequentially arranged in the lampshade; the two ends of the lampshade are sealed through seal heads, and the two sides of the top end of the lampshade are provided with a threaded hole fixed to the wall mounting box and the suspension wire mounting box and an electrical port electrically connected with the suspension wire mounting box and the wall mounting box, respectively; a binding post is disposed in the installation bottom box and electrically connected with a driving device, the driving device is fixed on the installation bottom box through a driving cover, the two ends of the installation bottom box are provided with through holes fixed to the wall, and long screws are fixed on the two sides of the installation bottom box and used for mounting the wall mounting box or the suspension wire mounting box.
A statistical copolymer comprising a plurality of repeating units (a) independently selected from repeating units of the following formulae and: -CH 2 -CH 2 -NH- and a plurality of repeating units (b) independently selected from repeating units of the following formulae to: -CH 2 -CH 2 -CH 2 -NH- -CH 2 -CH 2 -CH 2 -CH 2 -NH- wherein the molar ratio of the sum of the repeating units (a) to the sum of the repeating units (b) lies within the range of 0.7/1.0 to 1.0/0.7, and wherein one or more of the nitrogen atoms of the repeating units (a) and/or (b) contained in the copolymer may be protonated to provide a cationic copolymer. wherein the molar ratio of the sum of the repeating units (a) to the sum of the repeating units (b) lies within the range of 0.7/1.0 to 1.0/0.7, and wherein one or more of the nitrogen atoms of the repeating units (a) and/or (b) contained in the copolymer may be protonated to provide a cationic copolymer.
An amphiphilic pressure sensitive adhesive composition suitable for securing a medical device to human skin, wherein the pressure sensitive adhesive comprises a non-water soluble copolymer of at least one hydrophobic acrylic monomer or oligomer and at least one hydrophilic or amphiphilic monomer or oligomer, wherein the hydrophobic monomer or oligomer is a long chain acrylate selected from butyl acrylate, iso-octyl acrylate, n-octyl acrylate, 2-ethylhexyl acrylate, and combinations thereof, and the hydrophilic or amphiphilic monomer or oligomer is selected from acrylamides, N-alkylacrylamides, N,N-dialkylacrylamides, N-alkylaminoalkylacrylamides, methacrylamides, amino methacrylates, N-alkylamino acrylates, N,N-dialkylamino acrylates, N-alkylamino methacrylates, acrylamido alkylsulfonic acid and its salts, N-vinylpyrrolidones, N-vinylcaprolactams, and combinations thereof; such that the amphiphilic copolymer: a) is crosslinked with a chemical crosslinker, b) does not dissolve in aqueous medium, c) absorbs less than 10% of its weight in the presence of water or moisture as measured using ASTM E-96 Method D at 37°C, and d) is peelable from human skin and does not leave residue, e) remains adherent to skin under wet conditions, and f) has a glass transition temperature as tested per dynamic scanning calorimetry below 25°C. a) is crosslinked with a chemical crosslinker, b) does not dissolve in aqueous medium, c) absorbs less than 10% of its weight in the presence of water or moisture as measured using ASTM E-96 Method D at 37°C, and d) is peelable from human skin and does not leave residue, e) remains adherent to skin under wet conditions, and f) has a glass transition temperature as tested per dynamic scanning calorimetry below 25°C.
A mass transfer process involving contact of at least one gaseous phase with at least one liquid phase to enable mass transfer between the phases such that the heat ratio α of the system in which Q T is total heat loss and Q S is sensible heat transferred is maintained at an α value of greater than 0.5 during mass transfer, wherein the process comprises at least one gaseous phase comprising microbubbles of mean diameter within the range of 0.03 to 0.5 mm generated via fluidic oscillation to produce a laminar flow of microbubbles passing through a liquid phase of thickness no more than 10 cm and wherein a resident contact time between the gaseous phase and liquid phase is selected to ensure that non-equilibrium sensible heat transfer conditions are maintained throughout the residence contact time.
An audio control unit for receiving an external power signal and an audio input signal, and for outputting at least one variable-voltage power supply signal (1025, 1035, 1045) and an audio speaker signal (1024, 1034, 1044) to a speaker unit (1020, 1030, 1040) via at least one low power cable (1024-1025, 1034-1035, 1044-1045), wherein the at least one variable-voltage power supply signal is suitable for providing power to a local output amplifier (1021, 1031, 1041) of the speaker unit, and wherein the audio speaker signal is suitable for amplification by the local output amplifier of the speaker unit.
A compound of Formula 1, or pharmaceutically acceptable salt thereof wherein, R 1 is methoxy; R 2 is -(CH 2) m X wherein X is halogen or a radioactive isotope, and m is an integer selected from 1, 2, or 3; R 3, R 4 and R 5 are independently selected from H or -C 1 -C 6 alkyl; Q is a direct bond; " " is either a single bond or double bond; R 6 is selected from the group consisting of R 7 and R 8 are the same or different and are independently selected from the group consisting of H, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, or hydroxy; n is 1; and p is 1. R 1 is methoxy; R 2 is -(CH 2) m X wherein X is halogen or a radioactive isotope, and m is an integer selected from 1, 2, or 3; R 3, R 4 and R 5 are independently selected from H or -C 1 -C 6 alkyl; Q is a direct bond; " " is either a single bond or double bond; R 6 is selected from the group consisting of R 7 and R 8 are the same or different and are independently selected from the group consisting of H, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, or hydroxy; n is 1; and p is 1.
A mechanical suture fastener configured to fasten sutures used in surgeries wherein the mechanical suture fastener comprises a crimpable sleeve defining a channel therein, the crimpable sleeve has a sleeve length and a wall thickness; and the channel has a channel diameter; characterised in that the wall thickness is approximately 0.102 mm (0.004 inches); and the ratio of the sleeve length to the channel diameter is about 4.69 to about 4.87, and wherein the mechanical suture fastener is configured to fasten sutures having a diameter ranging from 0.04 mm to 0.07 mm. wherein the mechanical suture fastener comprises a crimpable sleeve defining a channel therein, the crimpable sleeve has a sleeve length and a wall thickness; and the channel has a channel diameter; characterised in that the wall thickness is approximately 0.102 mm (0.004 inches); and the ratio of the sleeve length to the channel diameter is about 4.69 to about 4.87, and wherein the mechanical suture fastener is configured to fasten sutures having a diameter ranging from 0.04 mm to 0.07 mm.
A method for transmitting channel status information, CSI, for a downlink transmission through an uplink channel, the method comprising: generating a rank indicator, RI, a first precoding matrix indicator, PMI, a second PMI and channel quality indicator, CQI, as the CSI for the downlink transmission; and transmitting the CSI including at least one of the RI, the first PMI, the second PMI and the CQI according to a predetermined order, wherein a precoding matrix used for the downlink transmission is determined based on a combination of the first PMI and the second PMI, characterized in that, when the first PMI is dropped from the transmitted CSI, the following CSI is generated based on a previously transmitted first PMI having the same rank indicator value as applied to the following CSI. generating a rank indicator, RI, a first precoding matrix indicator, PMI, a second PMI and channel quality indicator, CQI, as the CSI for the downlink transmission; and transmitting the CSI including at least one of the RI, the first PMI, the second PMI and the CQI according to a predetermined order, wherein a precoding matrix used for the downlink transmission is determined based on a combination of the first PMI and the second PMI,
A method executed by a user equipment, comprising: receiving system information, broadcasted by a base station of a current LTE cell, indicating whether the base station of the current LTE cell supports connectivity to a Next Generation Core, NextGen Core, and an Evolved Packet Core, EPC; and in a case that the system information indicates that the base station of the current LTE cell supports connectivity to the NextGen Core and the EPC, in a case that the user equipment selects the Next Generation Core, transmitting a first information element in a Radio Resource Control, RRC, Connection Request message and a second information element in a RRC Connection Setup Complete message, the first information element indicating the NextGen Core as a core network to be accessed and the second information element indicating an identity of the user equipment in the NextGen Core; and in a case that the user equipment selects the EPC, not transmitting the first information element in the RRC Connection Request message. receiving system information, broadcasted by a base station of a current LTE cell, indicating whether the base station of the current LTE cell supports connectivity to a Next Generation Core, NextGen Core, and an Evolved Packet Core, EPC; and in a case that the system information indicates that the base station of the current LTE cell supports connectivity to the NextGen Core and the EPC, in a case that the user equipment selects the Next Generation Core, transmitting a first information element in a Radio Resource Control, RRC, Connection Request message and a second information element in a RRC Connection Setup Complete message, the first information element indicating the NextGen Core as a core network to be accessed and the second information element indicating an identity of the user equipment in the NextGen Core; and in a case that the user equipment selects the EPC, not transmitting the first information element in the RRC Connection Request message. in a case that the user equipment selects the Next Generation Core, transmitting a first information element in a Radio Resource Control, RRC, Connection Request message and a second information element in a RRC Connection Setup Complete message, the first information element indicating the NextGen Core as a core network to be accessed and the second information element indicating an identity of the user equipment in the NextGen Core; and in a case that the user equipment selects the EPC, not transmitting the first information element in the RRC Connection Request message.
An alignment method for 3D printers, adopted for use by a 3D printer comprising a 3D nozzle for jetting material and a 2D pen-module for jetting ink, the alignment method comprising: a) controlling the 3D nozzle to print an alignment template (2, 2') on a printing platform, wherein the alignment template (2, 2') comprises multiple alignment blocks which are respectively and separately printed along at least one axis, and wherein each of the alignment blocks respectively deviates from a center-line of each printed location according to an accumulated offset, and wherein distances between each two neighbor center-lines are the same; b) controlling the 2D pen-module to print an ink matrix (3, 3') on the alignment template (2, 2'), wherein the ink matrix (3, 3') comprises multiple ink blocks which are respectively and separately printed along the same axis, and wherein each of the ink blocks is exactly corresponding to the center-line of each printed location, and wherein the size and shape of each of the ink blocks are equal to the size and shape of the alignment blocks; c) determining a deviation between the 3D nozzle and the 2D pen-module according to a covering status of each ink block and each corresponding alignment block; and d) performing a compensating alignment action to the 3D nozzle or the 2D pen-module according to the determined deviation so as to keep the 3D nozzle and the 2D pen-module to locate at the same printing datum. a) controlling the 3D nozzle to print an alignment template (2, 2') on a printing platform, wherein the alignment template (2, 2') comprises multiple alignment blocks which are respectively and separately printed along at least one axis, and wherein each of the alignment blocks respectively deviates from a center-line of each printed location according to an accumulated offset, and wherein distances between each two neighbor center-lines are the same; b) controlling the 2D pen-module to print an ink matrix (3, 3') on the alignment template (2, 2'), wherein the ink matrix (3, 3') comprises multiple ink blocks which are respectively and separately printed along the same axis, and wherein each of the ink blocks is exactly corresponding to the center-line of each printed location, and wherein the size and shape of each of the ink blocks are equal to the size and shape of the alignment blocks; c) determining a deviation between the 3D nozzle and the 2D pen-module according to a covering status of each ink block and each corresponding alignment block; and d) performing a compensating alignment action to the 3D nozzle or the 2D pen-module according to the determined deviation so as to keep the 3D nozzle and the 2D pen-module to locate at the same printing datum.