mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing panels of the type which is at least composed of a substrate and, provided on said substrate , a top layer with a printed decor , wherein the top layer comprises at least two material layers (9-11), namely at least a first material layer forming a basic layer for a second material layer provided thereon in the form of a print , wherein the method consists at least of applying said two material layers (9-11), wherein said print or second material layer is performed with a printing operation taking place directly on the substrate material and this print forms at least a portion of said printed decor , characterized in that said print is based on water-based pigmented inks and for applying said first material layer or basic layer, it is started from a water-based two-component lacquer, wherein said water-based two-component lacquer as a first component comprises a dispersion of amine-, hydroxy- or carboxy-functional acrylate copolymer or a polyester polyol, polyether polyol or a vinyl polymer, and as a second component comprises an isocyanate or an aziridine component and wherein said two-component lacquer is pigmented, and in that the method also comprises at least the step of providing a transparent or translucent synthetic material layer above said print and that for providing said transparent or translucent layer , it is started from a thermo-hardening resin, such as melamine.
A method of detecting mutant alleles that alter a repetitive sequence present in a normal allele of a microsatellite locus, the method comprising: forming a set of isolated volumes each containing (i) a primer pair including a forward primer and a reverse primer configured to amplify the normal allele and each of the mutant alleles, (ii) a first probe having a label, and (iii) a second probe having a label, wherein each volume of only a subset of the volumes contains the normal allele, and wherein each volume of a plurality of the volumes contains none of the mutant alleles; generating amplicon using the primer pair; and collecting amplification data from the label of each probe; wherein the strand of the first probe and the strand of the second probe competitively hybridize at a similar efficiency with amplicon corresponding to the normal allele, wherein the strand of the second probe is configured to outcompete the strand of the first probe for hybridization with amplicon corresponding to each of the mutant alleles, and wherein a strand of the first probe, relative to a strand of the second probe, base-pairs with more nucleotides of the repetitive sequence when hybridized with the normal allele. forming a set of isolated volumes each containing (i) a primer pair including a forward primer and a reverse primer configured to amplify the normal allele and each of the mutant alleles, (ii) a first probe having a label, and (iii) a second probe having a label, wherein each volume of only a subset of the volumes contains the normal allele, and wherein each volume of a plurality of the volumes contains none of the mutant alleles; generating amplicon using the primer pair; and collecting amplification data from the label of each probe; wherein the strand of the first probe and the strand of the second probe competitively hybridize at a similar efficiency with amplicon corresponding to the normal allele, wherein the strand of the second probe is configured to outcompete the strand of the first probe for hybridization with amplicon corresponding to each of the mutant alleles, and wherein a strand of the first probe, relative to a strand of the second probe, base-pairs with more nucleotides of the repetitive sequence when hybridized with the normal allele.
A communication method, comprising: determining by a terminal device (S210) that a first resource overlaps with a second resource, wherein the first resource is used for carrying an uplink Scheduling Request, SR, and the second resource is used for carrying uplink data; and in a case where a first condition is satisfied, transmitting by the terminal device (S220) the uplink SR, wherein the first condition comprises a priority of the uplink SR being different from a priority of a first uplink grant and the first uplink grant being used for transmitting the uplink data, characterized in that transmitting by the terminal device (S220) the uplink SR information comprises in a case where a second condition is satisfied, transmitting the uplink SR, or identifying the uplink SR as a prioritized uplink SR, wherein the second condition comprises at least one of the following: an Media Access Control, MAC, entity of the terminal device being configured with a priority of an Logical Channel, LCH; or the first resource not overlapping with a resource granted by a second uplink grant. determining by a terminal device (S210) that a first resource overlaps with a second resource, wherein the first resource is used for carrying an uplink Scheduling Request, SR, and the second resource is used for carrying uplink data; and in a case where a first condition is satisfied, transmitting by the terminal device (S220) the uplink SR, wherein the first condition comprises a priority of the uplink SR being different from a priority of a first uplink grant and the first uplink grant being used for transmitting the uplink data, characterized in that transmitting by the terminal device (S220) the uplink SR information comprises in a case where a second condition is satisfied, transmitting the uplink SR, or identifying the uplink SR as a prioritized uplink SR, wherein the second condition comprises at least one of the following: an Media Access Control, MAC, entity of the terminal device being configured with a priority of an Logical Channel, LCH; or the first resource not overlapping with a resource granted by a second uplink grant. in a case where a second condition is satisfied, transmitting the uplink SR, or identifying the uplink SR as a prioritized uplink SR, wherein the second condition comprises at least one of the following: an Media Access Control, MAC, entity of the terminal device being configured with a priority of an Logical Channel, LCH; or the first resource not overlapping with a resource granted by a second uplink grant. an Media Access Control, MAC, entity of the terminal device being configured with a priority of an Logical Channel, LCH; or the first resource not overlapping with a resource granted by a second uplink grant.
Electronic smoking device comprising: a flow channel comprising an incoming airflow opening , an incoming airflow pathway , a sensor assembly , and an outgoing airflow opening ; wherein the flow channel is configured to direct an airflow from the incoming airflow opening , through the incoming airflow pathway , over the sensor assembly , and through the outgoing airflow opening , wherein the flow channel is sized and configured to create a laminar flow of air in the incoming airflow pathway before the airflow reaches the sensor assembly , and wherein the sensor assembly comprises a support structure and a sensor , characterized in that the sensor is coupled directly to the support structure , and the sensor assembly further comprises a first layer and a second layer coupled to the support structure , the first layer being arranged between the support structure and the second layer , wherein the first layer and the second layer create an upper surface , and wherein the upper surface comprises a height above the support structure similar to a height of the sensor , the height of the sensor extending above the support structure . a flow channel comprising an incoming airflow opening , an incoming airflow pathway , a sensor assembly , and an outgoing airflow opening ; wherein the flow channel is configured to direct an airflow from the incoming airflow opening , through the incoming airflow pathway , over the sensor assembly , and through the outgoing airflow opening , wherein the flow channel is sized and configured to create a laminar flow of air in the incoming airflow pathway before the airflow reaches the sensor assembly , and wherein the sensor assembly comprises a support structure and a sensor , characterized in that the sensor is coupled directly to the support structure , and the sensor assembly further comprises a first layer and a second layer coupled to the support structure , the first layer being arranged between the support structure and the second layer , wherein the first layer and the second layer create an upper surface , and wherein the upper surface comprises a height above the support structure similar to a height of the sensor , the height of the sensor extending above the support structure .
Gas injector having an injector lance , a drive unit , a tappet rod and a valve , wherein the injector lance has a free end for injecting gas into an external unit and wherein the drive unit generates a linear movement of the tappet rod , whereby the tappet rod actuates the valve and releases a valve passage opening in order to inject the gas, wherein the valve passage opening is arranged in the region of the free end of the injector lance , wherein the injector lance has a shaft and the tappet rod is arranged within the shaft and is linearly displaceable relative thereto, wherein the free end of the injector lance is formed by a valve body , wherein the valve body is arranged at a free end of the shaft and wherein the valve body has a through-opening , which extends through the entire valve body and wherein the valve body comprises a first portion which forms a front free end of the gas injector form, characterized in that the first portion merges into a second portion via a first taper , in that , in the region of the first portion to the front end of the gas injector, the diameter of the through-opening is widened, wherein the through-opening comprises in this region a constant diameter, until it leads in direction opposite to the outflow direction of the gas to a radially extending ledge or balcony, which serves as a stop and which forms the valve seat .
A lens comprising a front lens element and a rear lens element, each lens element being less than 0.8 mm thick and having a convex surface on one side and concave surface on the other side thereof; where at least one of said lens elements comprises a tetrachromic contrast enhancer; the front and rear lens elements being adhered together with a light-polarizer disposed between the front and rear lens elements, a front exterior surface of the lens being defined by the convex surface of said front lens element, and a rear exterior surface of the lens being defined by the concave surface of rear lens element; and wherein the tetrachromic contrast enhancer: provides a maximum light transmittance with respect to CIE illuminant D65 for at least one wavelength within each of four wavelength ranges (local maxima), and a minimum light transmittance within each of three intervening wavelength ranges (local minima) between the local maxima; includes a first local maxima of greater than 75% and less than 85% transmittance in the wavelength range of 415 nm to 430 nm, a second local maxima of less than 80% transmittance in the wavelength range of 495 nm to 505 nm, a third local maxima of less than 83% transmittance in the wavelength range of 550 nm to 565 nm, and a fourth local maxima of less than 84% transmittance in the wavelength range of 615 nm to 645 nm; and includes a first local minima of less than 50% transmittance between the first and second local maxima, a second local minima of less than 35% transmittance between the second and third local maxima, and a third local minima of less than 20% between the third and fourth local maxima; wherein the lens have a UVB (280 to 315 nm) transmittance of no more than one percent and a UVA (315 to 380 nm) transmittance of no more than 0.3 times the light transmittance. provides a maximum light transmittance with respect to CIE illuminant D65 for at least one wavelength within each of four wavelength ranges (local maxima), and a minimum light transmittance within each of three intervening wavelength ranges (local minima) between the local maxima; includes a first local maxima of greater than 75% and less than 85% transmittance in the wavelength range of 415 nm to 430 nm, a second local maxima of less than 80% transmittance in the wavelength range of 495 nm to 505 nm, a third local maxima of less than 83% transmittance in the wavelength range of 550 nm to 565 nm, and a fourth local maxima of less than 84% transmittance in the wavelength range of 615 nm to 645 nm; and includes a first local minima of less than 50% transmittance between the first and second local maxima, a second local minima of less than 35% transmittance between the second and third local maxima, and a third local minima of less than 20% between the third and fourth local maxima;
A detergent composition comprising a first composition and a pungent agent, wherein said first composition is a granular detergent or a tablet detergent, and said first composition is encased in a water-soluble film, and wherein said water-soluble film comprises said pungent agent, wherein 'water-soluble' means the film has a water-solubility of at least 50% as measure by the method described herein using a glass-filter with a maximum pore size of 20 microns. wherein said first composition is a granular detergent or a tablet detergent, and said first composition is encased in a water-soluble film, and wherein said water-soluble film comprises said pungent agent, wherein 'water-soluble' means the film has a water-solubility of at least 50% as measure by the method described herein using a glass-filter with a maximum pore size of 20 microns.
A duplicated data-based transmission method, being applicable to scenarios comprising: a scenario where there are more than two copies of duplicated PDCP data packets, the method comprising: receiving, by a first communication device, first information sent by a second communication device; determining, according to the first information, whether each of at least three radio link control, RLC, entities corresponding to a packet data convergence protocol, PDCP, entity is to be activated for transmitting data which comes from the PDCP entity, wherein the first information comprises resource scheduling and configuration information, wherein the resource scheduling and configuration information indicates a time-frequency resource or channel resource that has been scheduled or occupied, or indicates an idle time-frequency resource or channel resource, and a RLC entity that is determined, according to the resource scheduling and configuration information, to have been scheduled or occupied is to be activated for transmitting data which comes from the PDCP entity; wherein the first communication device is a master eNB, MN, and the second communication device is a secondary eNB, SN; or the first communication device is an MN or an SN, and the second communication device is a core network, CN, device; or first communication device is an MN or an SN, and the second communication device is a terminal device. receiving, by a first communication device, first information sent by a second communication device; determining, according to the first information, whether each of at least three radio link control, RLC, entities corresponding to a packet data convergence protocol, PDCP, entity is to be activated for transmitting data which comes from the PDCP entity, wherein the first information comprises resource scheduling and configuration information, wherein the resource scheduling and configuration information indicates a time-frequency resource or channel resource that has been scheduled or occupied, or indicates an idle time-frequency resource or channel resource, and a RLC entity that is determined, according to the resource scheduling and configuration information, to have been scheduled or occupied is to be activated for transmitting data which comes from the PDCP entity; wherein the first communication device is a master eNB, MN, and the second communication device is a secondary eNB, SN; or the first communication device is an MN or an SN, and the second communication device is a core network, CN, device; or first communication device is an MN or an SN, and the second communication device is a terminal device.
Forging hammer for shaping workpieces , comprising a striking tool and a hydraulic linear drive that is coupled to the striking tool and is designed to drive the striking tool , said linear drive having a hydraulic circuit comprising a servomotor-driven hydro pump , a hydraulic cylinder , in particular a differential cylinder , which is fluidically connected downstream to the hydro pump via a directional valve assembly , and a servomotor-driven hydro generator which is fluidically connected downstream to the hydraulic cylinder via the directional valve assembly , and further comprising a control unit which is designed to at least control the hydro pump , the hydro generator and the directional valve assembly , wherein the hydro pump , using the directional valve assembly , is configured as a unidirectional servomotor-driven hydro pump and is integrated into the hydraulic circuit, and wherein the servomotor-driven hydro generator , using the directional valve assembly , is configured as a unidirectional servomotor-driven hydro generator and is integrated into the hydraulic circuit.
A vapor deposition apparatus , comprising: a chamber configured to operate at vacuum; at least one crucible in the chamber , the at least one crucible configured to receive an ingot ; and a feeder operable to move the ingot with respect to the at least one crucible , characterized by comprising: a heater in the chamber and configured to heat a hot zone between the at least one crucible and the feeder ; and at least one energy source in the chamber and configured to vaporize the ingot . a chamber configured to operate at vacuum; at least one crucible in the chamber , the at least one crucible configured to receive an ingot ; and a feeder operable to move the ingot with respect to the at least one crucible , characterized by comprising: a heater in the chamber and configured to heat a hot zone between the at least one crucible and the feeder ; and at least one energy source in the chamber and configured to vaporize the ingot . a heater in the chamber and configured to heat a hot zone between the at least one crucible and the feeder ; and at least one energy source in the chamber and configured to vaporize the ingot .
A tire manufacturing method comprising the steps of: arranging rubber inside a spring antenna of an electronic component having a communication function; interposing by rubber sheets the electronic component having the spring antenna into which the rubber was arranged; and setting the electronic component interposed by the rubber sheets in a tire . arranging rubber inside a spring antenna of an electronic component having a communication function; interposing by rubber sheets the electronic component having the spring antenna into which the rubber was arranged; and setting the electronic component interposed by the rubber sheets in a tire .
Method for automatically selecting a first network clock (N1 ij ) of a mobile network (BN) comprising at least one group (G i ) of first network clocks each having a local clock (LC), belonging to a link-by-link synchronization domain in which they communicate in a link-by-link synchronization scheme and capable of communicating in an end-to-end synchronization scheme with a master clock (MC) providing a frequency reference for synchronizing said local clocks (LC), said method comprising, in this order, a step (i) of collecting datasets of the local clocks (LC) of said group (G i ), a step (ii) of comparing said collected clock datasets to determine the best one according to at least one criterion, then selecting the first network clock (N1 ij ) offering said best clock dataset, and a step (iii) of configuring said selected first network clock (N1 ij ) as a frequency synchronization gateway for interconnecting said master clock (MC) in an end-to-end synchronization domain by using a domain identifier of an end-to-end synchronization domain comprising said master clock (MC).
A liquid electrostatic ink composition, comprising: a liquid carrier; and chargeable toner particles comprising a resin and an aluminium-based color-shifting pigment. a liquid carrier; and chargeable toner particles comprising a resin and an aluminium-based color-shifting pigment.
System for coating an optical article with a predetermined coating composition , comprising a chamber having an interior space configured to receive said optical article, a coating device configured to carry out a coating treatment of said predetermined coating composition for depositing it on said optical article in said chamber, by vaporizing said predetermined coating composition and by exposing at least a face of said optical article to the vaporized coating composition, and a control unit configured to control said coating device for coating said optical article by vaporizing said predetermined coating composition said coating device being formed as a single cartridge unit, said coating device comprising a casing configured to contain said predetermined coating composition; characterized in that the coating device further comprises a vaporizing conduit opening both into said casing and outside of said coating device, and a propelling member (52; 70; 80) configured to pressurize said predetermined coating composition; said coating device being configured to put in fluidic communication said propelling member in an operative state with said casing in order to carry out said coating treatment.
A method for receiving a paging message by a mobile device, comprising: acquiring network timing information for synchronization to a network, characterised in that acquiring the network timing information comprises symbol-level timing; determining , based on the network timing information, that the mobile device is within a paging window wherein the mobile device can receive a paging message; and sending a message, in response to the determination, that indicates the mobile device is able to receive a paging message or that requests a paging message for the mobile device. acquiring network timing information for synchronization to a network, characterised in that acquiring the network timing information comprises symbol-level timing; determining , based on the network timing information, that the mobile device is within a paging window wherein the mobile device can receive a paging message; and sending a message, in response to the determination, that indicates the mobile device is able to receive a paging message or that requests a paging message for the mobile device.
A method performed by a radio unit, RU, of a base station, the method comprising: monitoring, in real time, at least one in-phase/quadrature-phase, IQ, data sample in a preset time duration; determining whether baseband IQ data is received from a digital unit, DU, in the time duration or not, based on the at least one IQ data sample; and turning off a gate bias of a power amplifier, PA, in case that the baseband IQ data is not received from the DU in the time duration. monitoring, in real time, at least one in-phase/quadrature-phase, IQ, data sample in a preset time duration; determining whether baseband IQ data is received from a digital unit, DU, in the time duration or not, based on the at least one IQ data sample; and turning off a gate bias of a power amplifier, PA, in case that the baseband IQ data is not received from the DU in the time duration.