mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining at least one communication algorithm for communication between a first network node and a second network node , the method comprising: receiving status information for the first network node and the second network node , a communication channel having been established between the first network node and the second network node (S1000); wherein the status information includes identification information and information related to software upgrades, and/or hardware module replacements in the first network node and the second network node; wherein the first node is a base station and the second node is a user equipment; determining a first category for the first network node based on the received status information for the first network node and determining a second category for the second network node based on the received status information for the second network node (S1010); wherein the first and second category are a type or a user identity of the first network node and the second network node respectively; creating a pairing entry in a container repository , the pairing entry including a pairing of the first category for the first network node with the second category for the second network node (S1020); and identifying at least one communication algorithm based at least on the pairing entry (S1030); wherein the at least one communication algorithm is a resource management algorithm usable by the first network node , or wherein the at least one communication algorithm is a measurement algorithm usable by the second network node . receiving status information for the first network node and the second network node , a communication channel having been established between the first network node and the second network node (S1000); wherein the status information includes identification information and information related to software upgrades, and/or hardware module replacements in the first network node and the second network node; wherein the first node is a base station and the second node is a user equipment; determining a first category for the first network node based on the received status information for the first network node and determining a second category for the second network node based on the received status information for the second network node (S1010); wherein the first and second category are a type or a user identity of the first network node and the second network node respectively; creating a pairing entry in a container repository , the pairing entry including a pairing of the first category for the first network node with the second category for the second network node (S1020); and identifying at least one communication algorithm based at least on the pairing entry (S1030); wherein the at least one communication algorithm is a resource management algorithm usable by the first network node , or wherein the at least one communication algorithm is a measurement algorithm usable by the second network node .
Herbicidal compositions comprising, as herbicidally active constituents, A) aclonifen (component A), B) pyroxasulfone (component B) and C) diflufenican (component C), comprising the respective herbicide components in the application rates stated below: component A: generally 10 - 5000 g of AS/ha, preferably 80 - 3000 g of AS/ha, particularly preferably 80 - 1000 g of AS/ha of aclonifen; component B: generally 10 - 300 g of AS/ha, preferably 25 - 100 g of AS/ha, particularly preferably 25 - 75 g of AS/ha of pyroxasulfone; component C: generally 1 - 500 g of AS/ha, preferably 10 - 300 g of AS/ha, particularly preferably 30 - 200 g of AS/ha of diflufenican. A) aclonifen (component A), B) pyroxasulfone (component B) and C) diflufenican (component C), component A: generally 10 - 5000 g of AS/ha, preferably 80 - 3000 g of AS/ha, particularly preferably 80 - 1000 g of AS/ha of aclonifen; component B: generally 10 - 300 g of AS/ha, preferably 25 - 100 g of AS/ha, particularly preferably 25 - 75 g of AS/ha of pyroxasulfone; component C: generally 1 - 500 g of AS/ha, preferably 10 - 300 g of AS/ha, particularly preferably 30 - 200 g of AS/ha of diflufenican.
A flooring plank comprising: a core comprising at least 50 wt. % of calcium carbonate by weight; a first wood veneer having a first grain direction and being affixed to one surface of the core ; characterized by a second wood veneer having a second grain direction and being affixed on top of the first wood veneer . a core comprising at least 50 wt. % of calcium carbonate by weight; a first wood veneer having a first grain direction and being affixed to one surface of the core ; characterized by a second wood veneer having a second grain direction and being affixed on top of the first wood veneer .
Computer network having an annular bus connection , wherein the bus connection has a thread topology, characterized in that , during normal operation, a bus segment of the bus connection remains open and the two ends of the bus connection are terminated with terminating resistors , in that bus connection logic units , in combination with a respectively associated control logic unit of the computer network , are each constructed in such a manner that, when the failure of communication is registered by a control logic unit , the bus connection is interconnected to form a ring topology of point-to-point connections, and, after determining the defective bus segment , the normal bus connection is restored, wherein the bus connection remains open in the region of the defective bus segment , wherein the bus connection logic units each contain a changeover switch with two terminating resistors .
A lactic acid bacteria strain for probiotic use characterized by 16 S RNA sequence defined by SEQ ID NO: 1 and having deposit number VTT E-173549.
Process for manufacturing decorative, rigid, heat-resistant products, comprising: preparing a layer of fabric obtained from textile fibre yarns having different colour and/or titre and/or wettability, representing a decorative texture resulting from their interweaving, obtaining a deformable composite laminate by coupling the textile fibre fabric layer between a layer of fibreglass weighing in the range between 400 g/m2 and 1000 g/m2, and a surface layer made of micronized glass powder arranged on one side of the laminate, impregnating said layers and/or said composite laminate with a transparent fireproof matrix, preferably a thermosetting epoxy matrix; heat-hardening and deforming the laminate in a desired final shape; whereby said layer of textile fibre fabric weighing in the range between 150 g/m2 and 400 g/m2 and said glass surface layer made of a micronized glass powder weighing in the range between 10 g/m2 and 150 g/m2. preparing a layer of fabric obtained from textile fibre yarns having different colour and/or titre and/or wettability, representing a decorative texture resulting from their interweaving, obtaining a deformable composite laminate by coupling the textile fibre fabric layer between a layer of fibreglass weighing in the range between 400 g/m2 and 1000 g/m2, and a surface layer made of micronized glass powder arranged on one side of the laminate, impregnating said layers and/or said composite laminate with a transparent fireproof matrix, preferably a thermosetting epoxy matrix; heat-hardening and deforming the laminate in a desired final shape; whereby said layer of textile fibre fabric weighing in the range between 150 g/m2 and 400 g/m2 and said glass surface layer made of a micronized glass powder weighing in the range between 10 g/m2 and 150 g/m2.
A feeder/conveyor apparatus for queuing a plurality of uniform disc-shaped objects into and from an adjacent piece of equipment, the apparatus comprising: a supporting frame including a pair of upstanding supports spaced apart and oriented in parallel; a first pair of linear but non-parallel rods , said rods being rotatably journaled in said pair of upstanding supports and traversing said supports at an intermediate distance less than a diameter of said disc-shaped objects; characterized by a second pair of non-parallel rods rotatably journaled in said pair of upstanding supports below said first pair of non-parallel rods and a drive mechanism mounted on said frame for co-rotating said first pair of non-parallel rods ; and a first sensor mounted on one of said upstanding supports proximate said first pair of non-parallel rods for detecting said disc-shaped objects on said first pair of non-parallel rods .
Operating device , in particular operating panel, for a platform lift on a vehicle which has a load platform and a lifting mechanism, wherein the lifting mechanism connects the load platform to a chassis of the vehicle, with operating elements which are to be activated manually, and with operating fields in which the operating elements are arranged, wherein the operating device can be activated by an operator with both hands, and wherein the operating elements of each operating field are to be activated manually, wherein the operating fields are arranged with the operating elements on a plate-like carrier , characterized in that the operating fields are oriented antiparallel to one another and are inclined in opposite directions in that they converge in the direction of the operator.
A method for increasing the molecular weight of ketoacids, the method comprising the steps of: a) providing in a reactor a feedstock comprising at least one ketoacid; and b) subjecting the feedstock to one or more C-C-coupling reaction(s); characterised in that the C-C-coupling reaction(s) are conducted by heating the feedstock to a temperature of 205 - 400 °C in the absence of a catalyst, and wherein the C-C-coupling reaction(s) are conducted in the liquid and/or gaseous phase, and wherein at least 80 wt-% of the feedstock comprises a ketoacid. a) providing in a reactor a feedstock comprising at least one ketoacid; and b) subjecting the feedstock to one or more C-C-coupling reaction(s);
A method for preparing a polymerase-template complex, comprising: (a) providing a polymerase; and (b) contacting the polymerase with a polynucleotide template in a solution comprising a 0.8 μM to 2.2 μM concentration of nucleotides and a temperature between 35°C to 45°C, thereby preparing the polymerase-template complex, wherein the polymerase of the polymerase-template complex has at least 85%, 90%, 95%, 98% or more sequence identity or is identical to the amino acid sequence set forth as SEQ ID NO: 14. (a) providing a polymerase; and (b) contacting the polymerase with a polynucleotide template in a solution comprising a 0.8 μM to 2.2 μM concentration of nucleotides and a temperature between 35°C to 45°C, thereby preparing the polymerase-template complex, wherein the polymerase of the polymerase-template complex has at least 85%, 90%, 95%, 98% or more sequence identity or is identical to the amino acid sequence set forth as SEQ ID NO: 14.
A method for monitoring a control channel by a wireless device in a wireless communication system, the method comprising: determining (S310) a search space for detecting a physical downlink control channel, PDCCH, based on a first device identifier; monitoring (S320) the PDCCH in the search space based on a second device identifier; performing demasking of downlink control information, DCI, in the PDCCH with the second device identifier; and determining that the PDCCH is for the wireless device , based on not detecting any cyclic redundancy check, CRC, error, wherein the first device identifier is a part of at least one of an international mobile subscriber identity, IMSI, a temporary mobile subscriber identity, TMSI, and/or a public land mobile network identity, PLMN ID, the first device identifier includes the second device identifier. determining (S310) a search space for detecting a physical downlink control channel, PDCCH, based on a first device identifier; monitoring (S320) the PDCCH in the search space based on a second device identifier; performing demasking of downlink control information, DCI, in the PDCCH with the second device identifier; and determining that the PDCCH is for the wireless device , based on not detecting any cyclic redundancy check, CRC, error, wherein the first device identifier is a part of at least one of an international mobile subscriber identity, IMSI, a temporary mobile subscriber identity, TMSI, and/or a public land mobile network identity, PLMN ID, the first device identifier includes the second device identifier.
A method for determining airborne particulate density, said method comprising the steps of: a) locating or positioning at least one dark target within a local environment; b) scanning said local environment using an image capturing component of a user equipment device and constructing a geometric three-dimensional model of said local environment; c) determining pertinent features within said local environment based on said geometric three-dimensional model, said pertinent features including: a relative location of said at least one dark target with respect to said user equipment; and, a relative location and intensity of any light sources within said local environment; d) focusing said image capturing component of said user equipment device on said at least one dark target, said user equipment device having quantified location and orientation within said local environment; e) determining an instantaneous light intensity of said local environment and capturing at least one image of said at least one dark target using said image capturing component of said user equipment device, said instantaneous light intensity being obtained prior to capturing said at least one image; and, f) analyzing said at least one image in correspondence with said pertinent features, said instantaneous light intensity, and said dark target, and determining therefrom an airborne particulate density in said local environment. a) locating or positioning at least one dark target within a local environment; b) scanning said local environment using an image capturing component of a user equipment device and constructing a geometric three-dimensional model of said local environment; c) determining pertinent features within said local environment based on said geometric three-dimensional model, said pertinent features including: a relative location of said at least one dark target with respect to said user equipment; and, a relative location and intensity of any light sources within said local environment; d) focusing said image capturing component of said user equipment device on said at least one dark target, said user equipment device having quantified location and orientation within said local environment; e) determining an instantaneous light intensity of said local environment and capturing at least one image of said at least one dark target using said image capturing component of said user equipment device, said instantaneous light intensity being obtained prior to capturing said at least one image; and, f) analyzing said at least one image in correspondence with said pertinent features, said instantaneous light intensity, and said dark target, and determining therefrom an airborne particulate density in said local environment.
A camera for capturing component images comprising: multiple lighting units configured to irradiate components with light of a light emitting element; an image capturing unit configured to capture the components irradiated with the light; and multiple lighting unit control sections configured to be provided for the lighting units, respectively; characterized in that each of the lighting unit control sections is configured to turn on, in a case where a common turn- on command signal for the multiple lighting unit control sections including a turn-on command pulse is input from a unit separate from the lightning unit control section, the light emitting element for a turn-on time from a rising edge of the turn-on command pulse included in the turn-on command signal, wherein the turn-on time is calculated by multiplying a pulse width time of the turn-on command pulse by a constant, the constant being set for the lighting unit and stored in a memory of the lightning control section. multiple lighting units configured to irradiate components with light of a light emitting element; an image capturing unit configured to capture the components irradiated with the light; and multiple lighting unit control sections configured to be provided for the lighting units, respectively; characterized in that each of the lighting unit control sections is configured to turn on, in a case where a common turn- on command signal for the multiple lighting unit control sections including a turn-on command pulse is input from a unit separate from the lightning unit control section, the light emitting element for a turn-on time from a rising edge of the turn-on command pulse included in the turn-on command signal, wherein the turn-on time is calculated by multiplying a pulse width time of the turn-on command pulse by a constant, the constant being set for the lighting unit and stored in a memory of the lightning control section.
Device for 3D form generating, at least comprising multiple hollow form changing elements , wherein the form changing elements are arranged in a stack like manner, a main hub for providing a material that is able to flow to the changing elements , wherein at least the majority of the form changing elements surrounds the main hub , wherein each form changing element is connected to the main hub , an actuator unit for causing material transfer of the material that is able to flow from the main hub or through the main hub to the hollow section of the form changing elements for adapting the outer surface of an object set up by the form changing elements and characterised in that a projecting unit is provided, wherein the projecting unit comprises multiple projecting devices for projecting light onto the outer surface of the object generated by the stack of form changing elements , wherein the projections can be applied to the surface of the object generated by the stack of form changing elements in dependency of coordinates of the said surface. at least comprising multiple hollow form changing elements , wherein the form changing elements are arranged in a stack like manner, a main hub for providing a material that is able to flow to the changing elements , wherein at least the majority of the form changing elements surrounds the main hub , wherein each form changing element is connected to the main hub , wherein at least the majority of the form changing elements surrounds the main hub , wherein each form changing element is connected to the main hub , an actuator unit for causing material transfer of the material that is able to flow from the main hub or through the main hub to the hollow section of the form changing elements for adapting the outer surface of an object set up by the form changing elements and characterised in that a projecting unit is provided, wherein the projecting unit comprises multiple projecting devices for projecting light onto the outer surface of the object generated by the stack of form changing elements , wherein the projections can be applied to the surface of the object generated by the stack of form changing elements in dependency of coordinates of the said surface.
Cosmetic use of a tocopherol phosphoric acid ester represented by a following formula , a pharmacologically-acceptable salt thereof, or a solvate thereof for removing skin pigmentary deposits derived from blood: wherein R 1 , R 2 , and R 3 each independently represents a hydrogen atom or a methyl group.
A method performed by a terminal in a wireless communication system, the method comprising: receiving (S1410), from a base station, information including a number of configured repetitions related to an uplink channel; mapping (S1210) the uplink channel to a plurality of actual repetitions, wherein a configured repetition includes one or more actual repetitions, the configured repetitions include at least one first configured repetition and at least one second configured repetition, each of the at least one first configured repetition includes two or more contiguous actual repetitions, and each of the at least one second configured repetition includes one actual repetition; mapping (S1220) at least one sounding reference signal, SRS, resource to each of the plurality of actual repetitions; and transmitting (S1230), to a base station, the uplink channel based on the at least one SRS resource in each of the plurality of actual repetitions, wherein the SRS resources mapped to two or more contiguous actual repetitions included in each of the at least one first configured repetition are same. receiving (S1410), from a base station, information including a number of configured repetitions related to an uplink channel; mapping (S1210) the uplink channel to a plurality of actual repetitions, wherein a configured repetition includes one or more actual repetitions, the configured repetitions include at least one first configured repetition and at least one second configured repetition, each of the at least one first configured repetition includes two or more contiguous actual repetitions, and each of the at least one second configured repetition includes one actual repetition; mapping (S1220) at least one sounding reference signal, SRS, resource to each of the plurality of actual repetitions; and transmitting (S1230), to a base station, the uplink channel based on the at least one SRS resource in each of the plurality of actual repetitions, wherein the SRS resources mapped to two or more contiguous actual repetitions included in each of the at least one first configured repetition are same.
A gas turbine aero engine having a pair of coaxial spools, the gas turbine aero engine further having an electro-magnetic coupling system for transferring torque between a pair of coaxial spools of a gas turbine aero engine, the system including a first rotor rotatable with one of the spools, a second rotor rotatable with the other of the spools, and a stator , the first and second rotors and the stator being coaxial with each other, and the second rotor operably coupling the first rotor and the stator; wherein: the first rotor carries a plurality of magnetic flux-producing formations which produce a first magnetic field, the stator carries a plurality of electrical winding coils which are energisable to generate a second magnetic field, and the second rotor carries an arrangement of interpoles which modulate the first and second magnetic fields such that the modulated fields interact to transfer torque between the spools. the first rotor carries a plurality of magnetic flux-producing formations which produce a first magnetic field, the stator carries a plurality of electrical winding coils which are energisable to generate a second magnetic field, and the second rotor carries an arrangement of interpoles which modulate the first and second magnetic fields such that the modulated fields interact to transfer torque between the spools.