mhurhangee/patent-ind-claim-en huggingface dataset:
Spool fixation device for use in a wire winding installation comprising a rotatable flange for holding a spool with a spool flange that is magnetically attractable, said rotatable flange being provided with one or more magnet assemblies (104, 104', 104", 104"') wherein said magnet assemblies are attached directionally compliant to said rotatable flange, characterised in that said one or more magnet assemblies (104, 104', 104", 104'") can be selectively set to a 'hold' state for magnetically holding said spool flange to said rotatable flange or to a 'release' state for releasing said spool flange from said rotatable flange wherein said magnet assemblies (104, 104', 104", 104'") comprise permanent magnet arrays that are sealed from the outside by a housing wherein said magnet assemblies only require energy input when in the 'release' state or when switching state, said spool fixation device further comprising an energy coupling for coupling said energy input from the wire winding installation to said magnet assembly (104, 104', 104", 104'") wherein said energy coupling is a rotatable energy coupling that can be established when said spool fixation device is stationary and can be broken when said spool fixation device is rotating.
A method for operating a spinning machine or winder comprising a plurality of workstations of the same kind and multiple input terminals situated in the region of the workstations , wherein at least one input terminal acts, at least intermittently, as the master terminal , and wherein commands for the operation of several of the workstations are entered via the master terminal , characterized in that different input terminals can act as the master terminal at different points in time.
A method for operating an evolved Node B, eNB, in time division duplex, TDD, mode, comprising: via an enhanced physical downlink control charnel, EPDCCH, made up of indexed enhanced control channel elements, ECCEs, transmitting downlink control information, DCI, to a UE that grants a physical downlink shared channel, PDSCH, resource for a downlink subframe belonging to a bundling window and assigning a physical uplink control channel, PUCCH, resource index to the UE for acknowledging the PDSCH transmission calculated as a function of the lowest index of the ECCEs used to construct the EPDCCH added to the number of ECCEs in EPDCCHs derived for the UE from earlier subframes that belong to the bundling window and added to one of two specified integer values; and, transmitting an acknowledgment resource offset, ARO, in an ARO field of the DCI that instructs the UE to shift the PUCCH resource index by an amount equal to the value of the ARO and wherein, except for the earliest subframe of the bundling window, values for the ARO are selected from a group that includes a value that shifts the PUCCH resource index to a range used for acknowledging PDSCH transmissions in the earliest subframe of the bundling window, wherein a first value of the group comprises minus the number of ECCEs in EPDCCHs derived for the UE from earlier subframes that belong to the bundling window minus 2. via an enhanced physical downlink control charnel, EPDCCH, made up of indexed enhanced control channel elements, ECCEs, transmitting downlink control information, DCI, to a UE that grants a physical downlink shared channel, PDSCH, resource for a downlink subframe belonging to a bundling window and assigning a physical uplink control channel, PUCCH, resource index to the UE for acknowledging the PDSCH transmission calculated as a function of the lowest index of the ECCEs used to construct the EPDCCH added to the number of ECCEs in EPDCCHs derived for the UE from earlier subframes that belong to the bundling window and added to one of two specified integer values; and, transmitting an acknowledgment resource offset, ARO, in an ARO field of the DCI that instructs the UE to shift the PUCCH resource index by an amount equal to the value of the ARO and wherein, except for the earliest subframe of the bundling window, values for the ARO are selected from a group that includes a value that shifts the PUCCH resource index to a range used for acknowledging PDSCH transmissions in the earliest subframe of the bundling window, wherein a first value of the group comprises minus the number of ECCEs in EPDCCHs derived for the UE from earlier subframes that belong to the bundling window minus 2.
A compressor having - at least one blade ring (8; 10; 12; 14) of a first compressor stage, which comprises at least two ring segments (20, 22; 30, 32), - blades which are arranged in the ring segments (20, 22; 30, 32) of the blade ring (8; 12) in such a manner that a first number (X + a; Y + b) are arranged on blades (23; 34) in a first ring segment (20; 30) and a second number (X; Y) are arranged on blades (23; 34) in a second ring segment (22; 32), wherein the first number (X + a; Y + b) of blades is unequal to the second number (X; Y) of blades ; characterized by - a further blade ring (10; 14) of a further compressor stage, having at least two further ring segments (24, 26; 36, 38), which comprise further blades , wherein the second further ring segment (26; 38) comprises the first number (X + a; Y + b) on further blades (28; 40) and the first further ring segment (24; 36) comprises the second number (X; Y) of further blades (28; 40), wherein the blade ring and the further blade ring, non-rotatably locked relative to one another, have a configuration that is twisted by 180° and are thus configured inversely relative to one another. - at least one blade ring (8; 10; 12; 14) of a first compressor stage, which comprises at least two ring segments (20, 22; 30, 32), - blades which are arranged in the ring segments (20, 22; 30, 32) of the blade ring (8; 12) in such a manner that a first number (X + a; Y + b) are arranged on blades (23; 34) in a first ring segment (20; 30) and a second number (X; Y) are arranged on blades (23; 34) in a second ring segment (22; 32), wherein the first number (X + a; Y + b) of blades is unequal to the second number (X; Y) of blades ; characterized by - a further blade ring (10; 14) of a further compressor stage, having at least two further ring segments (24, 26; 36, 38), which comprise further blades ,
A compound represented by Formula (1-1) or by Formula (1-2): wherein: R 2 and R 3 are different from each other and are each independently an aliphatic hydrocarbon group having 6 or more carbon atoms.
A power rotary unit provided in an engine body comprising an outer rotor and an inner rotor provided eccentrically within the outer rotor , and is provided with a gas-supply port for introducing a compressed gas, a fuel-supply device for supplying fuel and a exhaust port for discharging a burned gas, inner teeth constituted by a plurality of convex arc surfaces are formed in an inner circumference of the outer rotor , outer teeth constituted by a plurality of concave arc surfaces are formed in an outer circumference of the inner rotor , and a plurality of cavities (G) independent of each other are formed in such a manner that tops of every two adjacent outer teeth contact with corresponding arc surfaces of the inner teeth, whereby volumes of respective cavities (G) change during the engagement and disengagement between the inner teeth and the outer teeth, and thus achieve power and exhaust of the power rotary unit , characterized in that the gas-supply port and the exhaust port of the power rotary unit are provided on a hollow shaft in the inner rotor of the power rotary unit , and an opening is provided on each concave arc surface of the inner rotor of the power rotary unit , such that the opening is communicated with the gas-supply port and the exhaust port respectively when the inner rotor of the power rotary unit rotates around the hollow shaft .
An aqueous gelling agent composition, comprising: Compound (A) represented by the following general formula ; and Compound (B) represented by the following general formula , wherein a mass ratio of compound (A) to compound (B), (A) : (B), is from 95:5 to 85:15: where R 1 , R 2 , R 8 , and R 9 each independently represent a hydrocarbon group having 4 to 20 carbon atoms, R 3 , R 5 , and R 7 each independently represent a divalent hydrocarbon group having 2 to 4 carbon atoms, R 4 and R 6 each independently represent a divalent hydrocarbon group having 3 to 16 carbon atoms, a and e each independently represent a number of 10 to 100, d represents a number of 100 to 500, and g represents a number of 1 to 10; and where R 10 , R 11 , R 15 , and R 16 each independently represent a hydrocarbon group having 4 to 20 carbon atoms, R 12 and R 14 each independently represent a divalent hydrocarbon group having 2 to 4 carbon atoms, R 13 represents a divalent hydrocarbon group having 3 to 16 carbon atoms, and j and m each independently represent a number of 10 to 100. Compound (A) represented by the following general formula ; and Compound (B) represented by the following general formula , wherein a mass ratio of compound (A) to compound (B), (A) : (B), is from 95:5 to 85:15: where R 1 , R 2 , R 8 , and R 9 each independently represent a hydrocarbon group having 4 to 20 carbon atoms, R 3 , R 5 , and R 7 each independently represent a divalent hydrocarbon group having 2 to 4 carbon atoms, R 4 and R 6 each independently represent a divalent hydrocarbon group having 3 to 16 carbon atoms, a and e each independently represent a number of 10 to 100, d represents a number of 100 to 500, and g represents a number of 1 to 10; and where R 10 , R 11 , R 15 , and R 16 each independently represent a hydrocarbon group having 4 to 20 carbon atoms, R 12 and R 14 each independently represent a divalent hydrocarbon group having 2 to 4 carbon atoms, R 13 represents a divalent hydrocarbon group having 3 to 16 carbon atoms, and j and m each independently represent a number of 10 to 100.
A cooling device of a V-type engine (E) in which a front cylinder and a rear cylinder are arranged in V-shape and an exhaust pipe of the rear cylinder is placed at one side in a width direction of a vehicle body , the cooling device comprising: a duct having a suction port ; and a fan which causes air heated by the exhaust pipe to be suctioned into an interior of the duct through the suction port and exhausts the suctioned heated air to a location distant from the exhaust pipe , wherein the suction port faces toward the one side in the vehicle width direction and opens toward the exhaust pipe of the rear cylinder , characterized in that the duct extends in the vehicle width direction along an insertion hole penetrating the vehicle body in the vehicle width direction, in a location behind the rear cylinder . a duct having a suction port ; and a fan which causes air heated by the exhaust pipe to be suctioned into an interior of the duct through the suction port and exhausts the suctioned heated air to a location distant from the exhaust pipe , wherein the suction port faces toward the one side in the vehicle width direction and opens toward the exhaust pipe of the rear cylinder , characterized in that the duct extends in the vehicle width direction along an insertion hole penetrating the vehicle body in the vehicle width direction, in a location behind the rear cylinder .
A magnetic resonance (MR) receive device comprising: a coil array including a plurality of radiofrequency (RF) coil elements wherein each RF coil element comprises a coil (E1, E2, E3, ..., E N ) configured to detect an MR signal and a preamplifier (LNA 1 , LNA 2 , LNA 3 , ..., LNA N ) connected and configured to amplify an output of the RF coil element to generate an amplified RF signal, and the coil array further comprising a plurality of RF mixers connected to respective RF coil elements, each RF mixer configured for frequency shifting the RF signal of the corresponding RF coil element to a designated frequency for that RF coil element; and an RF-over-Fiber module comprising an optical fiber , a photonic device optically coupled and configured to send an optical signal into the optical fiber, and an RF modulator connected and configured to modulate the optical signal by a multiplexed MR signal comprising a frequency domain multiplexed (FDM) combination of the frequency shifted RF signals of the plurality of RF coil elements, and wherein the device further comprises a second RF-over-Fiber module configured to send oscillator signals to the RF mixers, and wherein the coil array is configured to be powered at least partially by optical power conveyed to the coil array via the oscillator signals of the second RF-over-Fiber module , wherein the device further comprises a coil-side photodetector configured to convert optical power received via the second RF-over-Fiber module into electrical power. a coil array including a plurality of radiofrequency (RF) coil elements wherein each RF coil element comprises a coil (E1, E2, E3, ..., E N ) configured to detect an MR signal and a preamplifier (LNA 1 , LNA 2 , LNA 3 , ..., LNA N ) connected and configured to amplify an output of the RF coil element to generate an amplified RF signal, and the coil array further comprising a plurality of RF mixers connected to respective RF coil elements, each RF mixer configured for frequency shifting the RF signal of the corresponding RF coil element to a designated frequency for that RF coil element; and an RF-over-Fiber module comprising an optical fiber , a photonic device optically coupled and configured to send an optical signal into the optical fiber, and an RF modulator connected and configured to modulate the optical signal by a multiplexed MR signal comprising a frequency domain multiplexed (FDM) combination of the frequency shifted RF signals of the plurality of RF coil elements, and wherein the device further comprises a second RF-over-Fiber module configured to send oscillator signals to the RF mixers, and wherein the coil array is configured to be powered at least partially by optical power conveyed to the coil array via the oscillator signals of the second RF-over-Fiber module , wherein the device further comprises a coil-side photodetector configured to convert optical power received via the second RF-over-Fiber module into electrical power.
A print mode determination method , comprising: receiving , using a processor, image data defining parameters of pixels of an image to be printed using a print apparatus; identifying , using a processor and based on the image data, a first fill area in the image that exceeds a defined threshold area, wherein the first fill area is to be printed in a first color, whereby the first fill area is an area in which all of the pixels have substantially the same color; determining , using a processor and based on the image data, a first proportion of print agent of each of a plurality of colors to be used to print the first color; and determining , using a processor and based on the determined first proportions of print agent, a print mode to be used by the print apparatus to print the image. receiving , using a processor, image data defining parameters of pixels of an image to be printed using a print apparatus; identifying , using a processor and based on the image data, a first fill area in the image that exceeds a defined threshold area, wherein the first fill area is to be printed in a first color, whereby the first fill area is an area in which all of the pixels have substantially the same color; determining , using a processor and based on the image data, a first proportion of print agent of each of a plurality of colors to be used to print the first color; and determining , using a processor and based on the determined first proportions of print agent, a print mode to be used by the print apparatus to print the image.
A box-making apparatus comprising: a tape-affixing section configured to affix tape (T) unreeled from a tape roll to a cardboard box (B) assembled into a box shape; a detection unit configured to detect an action of unreeling the tape (T) from the tape roll ; a conveying section configured to convey the cardboard box (B) during tape affixing; and an electronic controller is configured to monitor the conveyed state of the cardboard box (B) and the unreeled state of the tape (T) and determine whether or not there are abnormalities in the affixing of the tape (T). a tape-affixing section configured to affix tape (T) unreeled from a tape roll to a cardboard box (B) assembled into a box shape; a detection unit configured to detect an action of unreeling the tape (T) from the tape roll ; a conveying section configured to convey the cardboard box (B) during tape affixing; and an electronic controller is configured to monitor the conveyed state of the cardboard box (B) and the unreeled state of the tape (T) and determine whether or not there are abnormalities in the affixing of the tape (T).
A method for determining a sequence of at least one target template nucleic acid molecule comprising: (a) providing a pair of samples, each sample comprising at least one target template nucleic acid molecule; (b) sequencing regions of the at least one target template nucleic acid molecule in a first of the pair of samples to provide non-mutated sequence reads; (c) introducing mutations into the at least one target template nucleic acid molecule in a second of the pair of samples to provide at least one mutated target template nucleic acid molecule; (d) sequencing regions of the at least one mutated target template nucleic acid molecule to provide mutated sequence reads; (e) analysing the mutated sequence reads, and using information obtained from analysing the mutated sequence reads to assemble a sequence for at least a portion of at least one target template nucleic acid molecule from the non-mutated sequence reads, wherein the first of the pair of samples is provided by pooling two or more sub-samples and/or the second of the pair of samples is provided by pooling two or more sub-samples, and wherein the method further comprises controlling the number of target template nucleic acid molecules in the first of the pair of samples and/or in the second of the pair of samples. (a) providing a pair of samples, each sample comprising at least one target template nucleic acid molecule; (b) sequencing regions of the at least one target template nucleic acid molecule in a first of the pair of samples to provide non-mutated sequence reads; (c) introducing mutations into the at least one target template nucleic acid molecule in a second of the pair of samples to provide at least one mutated target template nucleic acid molecule; (d) sequencing regions of the at least one mutated target template nucleic acid molecule to provide mutated sequence reads; (e) analysing the mutated sequence reads, and using information obtained from analysing the mutated sequence reads to assemble a sequence for at least a portion of at least one target template nucleic acid molecule from the non-mutated sequence reads,
The nontherapeutic cosmetic use of a hydrolyzate of Hippophae rhamnoides cake for increasing the growth of the skin appendages and/or decreasing the loss thereof, advantageously of the hair; and/or for maintaining and/or increasing the biomechanical properties and/or the surface and/or textural properties of the skin appendages, advantageously of the hair; and/or for repairing damaged skin appendages, advantageously the hair.
An in-band full-duplex, IBFD, antenna system comprising: a linearly polarized transmission antenna configured to be coupled to a wireless transmission subsystem of a wireless device; and a linearly polarized reception antenna configured to be coupled to a reception subsystem of the wireless device; wherein both antennas are configured to be co-located in the wireless device; wherein the transmission antenna and the reception antenna are configured to radiate with linear polarization substantially orthogonal to one another when the wireless device is operating in in-band full-duplex mode, characterized in that one of the transmission antenna and the reception antenna is a dipole antenna (310;360;420) and the other is a slot antenna (320,322;370,372;430); the dipole antenna (310;360;420) is positioned inside a slot (324;374;432) of the slot antenna (320,322;370,372;430); the slot antenna has a coaxial cable slot feed connecting elements of the slot antenna; the coaxial cable slot feed (330;380;440) is disposed over the slot (324;374;432) of the slot antenna (320,322;370,372;430) and over the dipole antenna (310;360;420) therein; the coaxial cable slot feed (330;380;440) comprises an exposed center conductor (332;382;442) in a portion of the coaxial cable slot feed that is disposed over the slot (324;374;432) of the slot antenna (320,322;370,372;430) and over the dipole antenna (310;360;420). a linearly polarized transmission antenna configured to be coupled to a wireless transmission subsystem of a wireless device; and a linearly polarized reception antenna configured to be coupled to a reception subsystem of the wireless device; wherein both antennas are configured to be co-located in the wireless device; wherein the transmission antenna and the reception antenna are configured to radiate with linear polarization substantially orthogonal to one another when the wireless device is operating in in-band full-duplex mode, characterized in that one of the transmission antenna and the reception antenna is a dipole antenna (310;360;420) and the other is a slot antenna (320,322;370,372;430); the dipole antenna (310;360;420) is positioned inside a slot (324;374;432) of the slot antenna (320,322;370,372;430); the slot antenna has a coaxial cable slot feed connecting elements of the slot antenna; the coaxial cable slot feed (330;380;440) is disposed over the slot (324;374;432) of the slot antenna (320,322;370,372;430) and over the dipole antenna (310;360;420) therein; the coaxial cable slot feed (330;380;440) comprises an exposed center conductor (332;382;442) in a portion of the coaxial cable slot feed that is disposed over the slot (324;374;432) of the slot antenna (320,322;370,372;430) and over the dipole antenna (310;360;420).