mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, at least one synchronization signal block, SSB; receiving, from the base station, configuration information including information on a number of SSBs associated with one random access channel, RACH, occasion; identifying an RACH occasion corresponding to an SSB of the at least one SSB based on the configuration information; and transmitting a random access preamble based on the RACH occasion, wherein the number of SSBs are assigned to the one RACH occasion according to a frequency domain first criterion wherein a frequency resource of the RACH occasion is used before a time resource of the RACH occasion for assigning the SSBs to the one RACH occasion, wherein a frequency domain index n RO of the RACH occasion corresponding to the SSB is calculated as n RO = ⌊ ⌊ n SS / S ⌋ / N RO ⌋ , and wherein a time domain index m RO of the RACH occasion corresponding to the SSB is calculated as m RO = mod ⌊ n SS / S ⌋ , N RO , wherein n ss is an index of the SSB starting from zero, S is the number of SSBs associated with one RACH occasion and N RO is a number of available RACH occasions in the frequency domain, and wherein └ ┘ denotes a floor operation and mod () denotes a modulo operation. receiving, from a base station, at least one synchronization signal block, SSB; receiving, from the base station, configuration information including information on a number of SSBs associated with one random access channel, RACH, occasion; identifying an RACH occasion corresponding to an SSB of the at least one SSB based on the configuration information; and transmitting a random access preamble based on the RACH occasion, wherein the number of SSBs are assigned to the one RACH occasion according to a frequency domain first criterion wherein a frequency resource of the RACH occasion is used before a time resource of the RACH occasion for assigning the SSBs to the one RACH occasion, wherein a frequency domain index n RO of the RACH occasion corresponding to the SSB is calculated as n RO = ⌊ ⌊ n SS / S ⌋ / N RO ⌋ , and wherein a time domain index m RO of the RACH occasion corresponding to the SSB is calculated as m RO = mod ⌊ n SS / S ⌋ , N RO , wherein n ss is an index of the SSB starting from zero, S is the number of SSBs associated with one RACH occasion and N RO is a number of available RACH occasions in the frequency domain, and wherein └ ┘ denotes a floor operation and mod () denotes a modulo operation.
A hydraulic circuit arrangement comprising: a fluid working machine , said fluid working machine comprising at least a first and a second group of piston cylinder assemblies, at least first and second fluid flow connections for hydraulic fluid flow circuits serving hydraulic loads , the first fluid flow connection of the fluid working machine being designed to be connected to a first hydraulic fluid flow circuit and the second fluid flow connection being designed to be connected to a second hydraulic fluid flow circuit; the hydraulic circuit arrangement further comprising a controller for said fluid working machine , wherein the controller is designed and configured in a way to actuate actively controllable valves associated with a first group of piston cylinder assemblies, and a second group of piston cylinder assemblies in a way to actively control the net displacement of fluid by the first and second group of piston cylinder assemblies by actuation of said actively controllable valves , wherein the actuation is controlled on a cycle-by-cycle basis for at least some of the piston cylinder assemblies, wherein the controller is further configured in a way that the actuation of said actively controllable valves of said first and second group of piston cylinder assemblies is performed in a way that the first and the second group of piston cylinder assemblies fulfil fluid flow demands and/or motoring demands independently from each other, characterised in that the first and second hydraulic fluid flow circuit are an open fluid flow circuit and a closed fluid flow circuit, wherein the actuation cycle of the actively controllable valves of said second group of piston cylinder assemblies is performed in a way to changeably fulfil the requirements of an open fluid flow circuit and of a closed fluid flow circuit.
A method for making an imidazoline functionalized oxidized fatty substance emulsifier comprising the steps of: (a) obtaining a fatty substance composition; (b) performing an oxidative oligomerization of the fatty substance composition to produce an oxidized fatty substance composition comprising from 10 to 75% by weight of oligomeric fatty acid components based on the total weight of fatty acid containing components in the composition; (c) reacting the oxidized fatty substance composition with a polyamine comprising at least one ethylene diamine functional group with at least three hydrogens attached to the two nitrogens to form an aminoethylamido functionalized oxidized fatty substance composition; and (d) forming an imidazoline functionalized oxidized fatty substance emulsifier from the aminoethylamido functionalized oxidized fatty substance composition. (a) obtaining a fatty substance composition; (b) performing an oxidative oligomerization of the fatty substance composition to produce an oxidized fatty substance composition comprising from 10 to 75% by weight of oligomeric fatty acid components based on the total weight of fatty acid containing components in the composition; (c) reacting the oxidized fatty substance composition with a polyamine comprising at least one ethylene diamine functional group with at least three hydrogens attached to the two nitrogens to form an aminoethylamido functionalized oxidized fatty substance composition; and (d) forming an imidazoline functionalized oxidized fatty substance emulsifier from the aminoethylamido functionalized oxidized fatty substance composition.
A variable capacitor bank (112,114; 800) comprising: a conductive housing (306; 802) defining an interior volume: an electrical bus (303; 806) comprising a first portion disposed within the conductive housing and a second portion extending through the conductive housing such that the second portion of the bus and the conductive housing form a port (320; 850); and a switched capacitor (302A-302N; 804A-804F) disposed within the conductive housing and electrically coupled to the first portion of the electrical bus. an electrical bus (303; 806) comprising a first portion disposed within the conductive housing and a second portion extending through the conductive housing such that the second portion of the bus and the conductive housing form a port (320; 850); and a switched capacitor (302A-302N; 804A-804F) disposed within the conductive housing and electrically coupled to the first portion of the electrical bus.
A sport helmet for protecting a head of a wearer, the sport helmet comprising: a) an outer shell comprising an internal side and an external side ; and b) an inner pad mounted to the internal side of the outer shell for absorbing shocks when the sport helmet is impacted, the inner pad comprising a core of polymeric cellular material , the core of polymeric cellular material comprises expanded polymeric microspheres (70 1 -70 M ), each of the expanded polymeric microspheres comprising a polymeric shell having been expanded by a fluid encapsulated in the polymeric shell; the sport helmet being characterized in that : the inner pad comprises a covering on the core of polymeric cellular material, wherein the covering covers at least a majority of a periphery of the core of polymeric cellular material, the periphery comprising an outer side , an inner side and a lateral side ; and the core of polymeric cellular material is molded such that the periphery of the core of polymeric cellular material defines a three-dimensional configuration of the inner pad that generally conforms to the internal side of the outer shell. a) an outer shell comprising an internal side and an external side ; and b) an inner pad mounted to the internal side of the outer shell for absorbing shocks when the sport helmet is impacted, the inner pad comprising a core of polymeric cellular material , the core of polymeric cellular material comprises expanded polymeric microspheres (70 1 -70 M ), each of the expanded polymeric microspheres comprising a polymeric shell having been expanded by a fluid encapsulated in the polymeric shell; the inner pad comprises a covering on the core of polymeric cellular material, wherein the covering covers at least a majority of a periphery of the core of polymeric cellular material, the periphery comprising an outer side , an inner side and a lateral side ; and the core of polymeric cellular material is molded such that the periphery of the core of polymeric cellular material defines a three-dimensional configuration of the inner pad that generally conforms to the internal side of the outer shell.
A license plate location method, wherein the method comprises: acquiring a to-be-located license plate image; sending the to-be-located license plate image to a deep learning network for license plate location; wherein, the deep learning network comprises a feature extraction layer and a regression layer; the deep learning network is pre-trained by sample license plate images; the sample license plate images comprise positive sample license plate images and negative sample license plate images; and the positive sample license plate images comprise combinations of license plate frame areas and license plate character areas, and the negative sample license plate images are images not containing license plate frame areas and license plate character areas; extracting, by the feature extraction layer, a feature value of the to-be-located license plate image, and sending the feature value to the regression layer; acquiring a combination of a license plate frame area and a license plate character area, which is obtained by the regression layer based on the feature value; and determining a license plate area of the to-be-located license plate image based on a location area corresponding to the acquired combination, wherein the license plate frame area is an area enclosed by an outer frame of a license plate, and the license plate character area is an area in which a license plate character is located. acquiring a to-be-located license plate image; sending the to-be-located license plate image to a deep learning network for license plate location; wherein, the deep learning network comprises a feature extraction layer and a regression layer; the deep learning network is pre-trained by sample license plate images; the sample license plate images comprise positive sample license plate images and negative sample license plate images; and the positive sample license plate images comprise combinations of license plate frame areas and license plate character areas, and the negative sample license plate images are images not containing license plate frame areas and license plate character areas; extracting, by the feature extraction layer, a feature value of the to-be-located license plate image, and sending the feature value to the regression layer; acquiring a combination of a license plate frame area and a license plate character area, which is obtained by the regression layer based on the feature value; and determining a license plate area of the to-be-located license plate image based on a location area corresponding to the acquired combination, wherein the license plate frame area is an area enclosed by an outer frame of a license plate, and the license plate character area is an area in which a license plate character is located.
Formaldehyde-free sizing composition for fibres, in particular mineral fibres, characterized in that it comprises: - at least one non-reducing sugar, - at least one catalyst for the dehydration of the non-reducing sugar, - at least one amine, - and at least one compound comprising activated ethylenic unsaturation(s). - at least one non-reducing sugar, - at least one catalyst for the dehydration of the non-reducing sugar, - at least one amine, - and at least one compound comprising activated ethylenic unsaturation(s).
A solution comprising: a) a heteropolyacid with the general formula H 3 PM 12 O 40 , wherein M is tungsten or molybdenum, b) a lanthanide salt with the general formula Ln(III)A x *nH 2 O, wherein Ln is an element belonging to the series of lanthanides other than promethium, A is an organic or inorganic anion, x is a whole number greater than or equal to 1, and n is a whole number greater than or equal to 0; c) a solvent consisting of a water/organic solvent mixture or an organic solvent, wherein said organic solvent is selected from a ketone and an alcohol and, in the case of a water/organic solvent mixture, is present in an amount comprised from 1 to 99% (v/v) relative to the total volume of the mixture in the case of ketone, or in an amount comprised from 71 to 99% (v/v) relative to the total volume of the mixture in the case of alcohol. a) a heteropolyacid with the general formula H 3 PM 12 O 40 , wherein M is tungsten or molybdenum, b) a lanthanide salt with the general formula Ln(III)A x *nH 2 O, wherein Ln is an element belonging to the series of lanthanides other than promethium, A is an organic or inorganic anion, x is a whole number greater than or equal to 1, and n is a whole number greater than or equal to 0; c) a solvent consisting of a water/organic solvent mixture or an organic solvent, wherein said organic solvent is selected from a ketone and an alcohol and, in the case of a water/organic solvent mixture, is present in an amount comprised from 1 to 99% (v/v) relative to the total volume of the mixture in the case of ketone, or in an amount comprised from 71 to 99% (v/v) relative to the total volume of the mixture in the case of alcohol.
A medical system, the medical system comprising: a plurality of implantable medical devices including a first implantable medical device and a second implantable medical device, wherein the first implantable medical device is a leadless cardiac pacemaker (LCP) and the second implantable medical device is a leadless cardiac pacemaker (LCP), wherein the first implantable medical device is configured to provide an anti-tachycardia response via one or more electrodes of the first implantable medical device and to communicate a message to at least the second implantable medical device before providing the anti-tachycardia response.
A solar cell apparatus comprising: • a substrate ; • an n-type transparent conductive oxide (TCO) layer being zinc oxide deposited over said substrate ; • a p-i-n structure , deposited on the n-type transparent conductive oxide (TCO) layer , including ∘ a p-type layer ∘ an i-type layer ∘ said n-type layer • a metal back layer deposited over said n-type layer of said p-i-n structure ; wherein • said p-type layer comprises a p-type dopants graded multi-layers structure having a dopants concentration profile that varies as a function of thickness of said p-type dopants graded multi-layers structure , wherein • said p-type dopants graded multi-layers structure comprises boron (B) as a doping element, • said p-type dopants graded multi-layers structure comprises: ∘ a first nanocrystalline or microcrystalline p-type layer , ∘ a second amorphous p-type layer , ∘ a third amorphous p-type layer , ∘ a fourth amorphous p-type layer , ∘ said second, third and fourth amorphous p-type layers having different dopant concentrations and the boron (B) dopant concentration varies from the highest value in the first nanocrystalline or microcrystalline p-type layer to the lowest value in the fourth p-type amorphous layer denoting a tapering boron concentration profile. • a substrate ; • an n-type transparent conductive oxide (TCO) layer being zinc oxide deposited over said substrate ; • a p-i-n structure , deposited on the n-type transparent conductive oxide (TCO) layer , including ∘ a p-type layer ∘ an i-type layer ∘ said n-type layer ∘ a p-type layer ∘ an i-type layer ∘ said n-type layer • a metal back layer deposited over said n-type layer of said p-i-n structure ; wherein • said p-type layer comprises a p-type dopants graded multi-layers structure having a dopants concentration profile that varies as a function of thickness of said p-type dopants graded multi-layers structure , wherein • said p-type dopants graded multi-layers structure comprises boron (B) as a doping element, • said p-type dopants graded multi-layers structure comprises: ∘ a first nanocrystalline or microcrystalline p-type layer , ∘ a second amorphous p-type layer , ∘ a third amorphous p-type layer , ∘ a fourth amorphous p-type layer , ∘ said second, third and fourth amorphous p-type layers having different dopant concentrations and the boron (B) dopant concentration varies from the highest value in the first nanocrystalline or microcrystalline p-type layer to the lowest value in the fourth p-type amorphous layer denoting a tapering boron concentration profile. ∘ a first nanocrystalline or microcrystalline p-type layer , ∘ a second amorphous p-type layer , ∘ a third amorphous p-type layer , ∘ a fourth amorphous p-type layer , ∘ said second, third and fourth amorphous p-type layers having different dopant concentrations and the boron (B) dopant concentration varies from the highest value in the first nanocrystalline or microcrystalline p-type layer to the lowest value in the fourth p-type amorphous layer denoting a tapering boron concentration profile.
A driveshaft comprising an elongated rotary slip stub ; a tube sleeve telescopically engaged to the slip stub ; a bearing assembly mounted on the slip stub by means of a roller at a vicinity of a movable end of the tube sleeve and a bellow secured to the adjacent tube sleeve from a distal end such that surrounding an outer periphery characterized in that a retaining part is provided on the bearing assembly and holding the bellow on the bearing assembly such that the bellow is secured directly to the bearing assembly from a proximal end wherein a cover is extending radially outwardly from the slip stub covering the roller and having a groove on which the retaining part is mounted, wherein the retaining part is having a sleeve to engage in the groove from radially inwardly section. wherein a cover is extending radially outwardly from the slip stub covering the roller and having a groove on which the retaining part is mounted, wherein the retaining part is having a sleeve to engage in the groove from radially inwardly section.
An expandable threaded connection between first and second tubular members comprising: an inner seal portion formed by an inner seal pin portion of a pin member sealingly engaged with an inner seal box portion of a box member ; a threaded portion formed by a threaded pin portion of the pin member engaged with a threaded box portion of the box member ; an outer seal portion formed by an outer seal pin portion of the pin member sealingly engaged with an outer seal box portion of the box member ;wherein an inner diameter of the inner seal pin portion is greater than an inner diameter of the outer seal pin portion ; and wherein an outer diameter of the inner seal box portion is greater than an outer diameter of the outer seal box portion. an inner seal portion formed by an inner seal pin portion of a pin member sealingly engaged with an inner seal box portion of a box member ; a threaded portion formed by a threaded pin portion of the pin member engaged with a threaded box portion of the box member ; an outer seal portion formed by an outer seal pin portion of the pin member sealingly engaged with an outer seal box portion of the box member ;wherein an inner diameter of the inner seal pin portion is greater than an inner diameter of the outer seal pin portion ; and wherein an outer diameter of the inner seal box portion is greater than an outer diameter of the outer seal box portion.
Reaction flywheel comprising a base , a support frame , a motor , a rotor and a control assembly for controlling the speed of the motor; wherein the support frame is installed above the base; the support frame is an inverted U-shaped elastic support frame; the motor is installed within the support frame; the top of the support frame is provided with a center hole; the motor is fixedly installed within the support frame, wherein there is a space between the motor and the base; the motor shaft is inserted into the center hole, the rotor is fixedly installed on the motor shaft, and the motor drives the rotor to rotate; characterized in that the control assembly for controlling the speed of the motor is mounted on the base.
Gas measurement sensor comprising: - a measurement chamber comprising an inlet (8; 9) and an outlet (9; 8) for a gaseous sample to be measured; - an infrared light source arranged to produce substantially collimated infrared light and to direct said infrared light into said measurement chamber ; - a beam splitter situated in said measurement chamber so as to receive said infrared light from said infrared light source and to split said infrared light into a reference beam and a measurement beam such that said measurement beam has a longer pathway through said measurement chamber than said reference beam ; - a reference infrared detector arranged to receive said reference beam ; - a measurement infrared detector arranged to receive said measurement beam ; wherein said beam splitter is arranged to reflect a first portion of said infrared light from said infrared light source by specular reflection so as to form said reference beam , and to reflect a second portion of said infrared light from said infrared light source by specular reflection so as to form said measurement beam . - a measurement chamber comprising an inlet (8; 9) and an outlet (9; 8) for a gaseous sample to be measured; - an infrared light source arranged to produce substantially collimated infrared light and to direct said infrared light into said measurement chamber ; - a beam splitter situated in said measurement chamber so as to receive said infrared light from said infrared light source and to split said infrared light into a reference beam and a measurement beam such that said measurement beam has a longer pathway through said measurement chamber than said reference beam ; - a reference infrared detector arranged to receive said reference beam ; - a measurement infrared detector arranged to receive said measurement beam ; wherein said beam splitter is arranged to reflect a first portion of said infrared light from said infrared light source by specular reflection so as to form said reference beam , and to reflect a second portion of said infrared light from said infrared light source by specular reflection so as to form said measurement beam .
A non-aqueous electrolyte secondary battery comprising: a positive electrode , a negative electrode , and a separator , wherein the separator includes: a substrate ; a first filler layer containing phosphate particles and formed on at least one surface of the substrate ; and a second filler layer containing inorganic particles having a higher melting point than the phosphate particles and formed on a surface of the first filler layer on a side of the at least one surface of the substrate , and wherein the phosphate particles have a BET specific surface area of 5 m 2 /g or more and 100 m 2 /g or less. a substrate ; a first filler layer containing phosphate particles and formed on at least one surface of the substrate ; and a second filler layer containing inorganic particles having a higher melting point than the phosphate particles and formed on a surface of the first filler layer on a side of the at least one surface of the substrate , and wherein the phosphate particles have a BET specific surface area of 5 m 2 /g or more and 100 m 2 /g or less.