mhurhangee/patent-ind-claim-en huggingface dataset:
Cooking hob comprising a gas burner, the gas burner comprising: - an injection holder with at least three gas injectors (2.1, 2.2, 2.3); - a burner crown assembly , the burner crown assembly comprising at least three flame rings (FR1, FR2, FR3) with different sizes, the burner crown assembly further comprising at least three chambers (CH1, CH2, CH3) and at least three pipes (3.1.1, 3.1.2, 3.1.3), each pipe (3.1.1, 3.1.2, 3.1.3) being fluidly coupled with a single chamber (CH1, CH2, CH3); wherein each gas injector (2.1, 2.2, 2.3) is associated with one of said pipes (3.1.1, 3.1.2, 3.1.3) for providing gas into said pipe (3.1.1, 3.1.2, 3.1.3), said pipe (3.1.1, 3.1.2, 3.1.3) being adapted to receive primary air in the area of the injection holder and to provide a combustion mixture of gas and primary air to one of said flame rings (FR1, FR2, FR3) of the burner crown assembly , wherein said burner crown assembly enables an air flow below an outer chamber (CH2, CH3) in order to provide air to air gaps (AG1, AG2) located between adjacent flame rings (FR1, FR2, FR3) and characterized in that said adjacent flame rings (FR1, FR2, FR3) are separated from each other based on said air gaps (AG1, AG2). - an injection holder with at least three gas injectors (2.1, 2.2, 2.3); - a burner crown assembly , the burner crown assembly comprising at least three flame rings (FR1, FR2, FR3) with different sizes, the burner crown assembly further comprising at least three chambers (CH1, CH2, CH3) and at least three pipes (3.1.1, 3.1.2, 3.1.3), each pipe (3.1.1, 3.1.2, 3.1.3) being fluidly coupled with a single chamber (CH1, CH2, CH3);
A method for combating Doppler shift performed by a user equipment, comprising: obtaining , in a case where a user equipment performs cell handover, a Doppler shift estimation of the user equipment at a last moment in a source cell; and obtaining an additive inverse of the Doppler shift estimation, and using the additive inverse of the Doppler shift estimation for Carrier Frequency Offset, CFO, compensation in an Automatic Frequency Control, AFC. obtaining , in a case where a user equipment performs cell handover, a Doppler shift estimation of the user equipment at a last moment in a source cell; and obtaining an additive inverse of the Doppler shift estimation, and using the additive inverse of the Doppler shift estimation for Carrier Frequency Offset, CFO, compensation in an Automatic Frequency Control, AFC.
A measuring method for measuring the viscosity of an essentially non-compressible measuring medium (F) with a measuring device comprising a first container , wherein the measuring medium (F) can leak from the first container via a capillary which, in an operating position, is arranged at a certain capillary angle (α) toward the horizontal, preferably perpendicularly, via an outlet opening of the capillary , and wherein, in a first process step, the measuring medium (F) is introduced into the first container filled with a compressible medium (L), in particular ambient air, whereupon the measuring medium (F) occupies a partial volume (V F0 ) of the total volume (V 0 ) of the first container , and wherein, in a second process step, a pressure difference (Δp;Δp(t)) between a pressure (p; p(t)) of the compressible medium (L) in the first container and a pressure (p 0 ) of the compressible medium (L) at the outlet opening of the capillary is adjusted, and wherein, in a third process step, the decrease in volume (dV F (t)/dt) of the measuring medium (F) per time unit is determined for the pressure difference (Δp) which is kept constant or for a pressure difference (Δp(t)) which decreases as a result of the decrease in volume (dV F (t)/dt) of the measuring medium (F) in order to determine at least two measurement points of the decrease in volume (dV F (t)/dt) of the measuring medium (F) per time unit over the pressure difference (Δp) as a resulting straight line in a coordinate system, and wherein, in a final process step, the kinematic viscosity (v) is determined from the value of the resulting straight line for the decrease in volume (dV F (t)/dt) of the measuring medium (F) per time unit at the pressure difference of Δp = 0 and the dynamic viscosity (η) of the measuring medium (F) is determined from the slope of the resulting straight line .
Method for automated control and regulation of a machine for one- or two-sided lubricant application on a substrate, in particular, a metal sheet , wherein the machine comprises: at least one application unit , at least one pump unit connected to the at least one application unit via at least one transport line , at least one sensing unit for carrying out a spatially resolved optical or spectroscopic measurement method, as well as a data processing unit , comprising the following steps: a. using the at least one pump unit : conveying the lubricant in the direction of the at least one application unit via the at least one transport line ; b. measurement of at least one first analysis parameter with at least one measurement unit assigned to the at least one pump unit or determination of at least one first analysis parameter from machine parameters; c. using the at least one application unit : application of the lubricant on at least one side of the substrate or metal sheet ; d. measurement of at least one second analysis parameter with the sensing unit ; e. using the data processing unit : calculation of at least one quality parameter; f. using the data processing unit : comparison of the at least one quality parameter with at least one first default parameter, wherein a positive or negative determination is made as a result of the comparison; characterized by : g. in the case of a negative determination: automatic checking and/or modifying at least one control parameter via a control and regulation unit comprised by the machine ; and in the case of a positive determination: executing a control loop and/or releasing the substrate, wherein, at step e, the at least one quality parameter is calculated from the at least one first analysis parameter and the at least one second analysis parameter. a. using the at least one pump unit : conveying the lubricant in the direction of the at least one application unit via the at least one transport line ; b. measurement of at least one first analysis parameter with at least one measurement unit assigned to the at least one pump unit or determination of at least one first analysis parameter from machine parameters; c. using the at least one application unit : application of the lubricant on at least one side of the substrate or metal sheet ; d. measurement of at least one second analysis parameter with the sensing unit ; e. using the data processing unit : calculation of at least one quality parameter; f. using the data processing unit : comparison of the at least one quality parameter with at least one first default parameter, wherein a positive or negative determination is made as a result of the comparison; g. in the case of a negative determination: automatic checking and/or modifying at least one control parameter via a control and regulation unit comprised by the machine ; and in the case of a positive determination: executing a control loop and/or releasing the substrate, wherein, at step e, the at least one quality parameter is calculated from the at least one first analysis parameter and the at least one second analysis parameter.
A computer-implemented method for performing a cryptographic operation by a computing device , the method comprising: receiving, at a protected application executing on the computing device, from a hardware security module, HSM , a cryptographic key to be used in performing the cryptographic operation in response to future requests, the computing device storing instructions of the protected application within a secure memory space , wherein the secure memory space is allocated and managed by a chip set of the computing device; generating, by the chip set, an encrypted key using the cryptographic key; receiving, at a network interface of the computing device from a requesting device, a first request to perform the cryptographic operation on first data in the first request; retrieving, by the protected application using the chip set, the encrypted key from the secure memory space; performing, by the protected application, the cryptographic operation on the first data using the encrypted key to obtain encrypted first data; and sending the encrypted first data to the requesting device; wherein the HSM is distinct from the computing device. receiving, at a protected application executing on the computing device, from a hardware security module, HSM , a cryptographic key to be used in performing the cryptographic operation in response to future requests, the computing device storing instructions of the protected application within a secure memory space , wherein the secure memory space is allocated and managed by a chip set of the computing device; generating, by the chip set, an encrypted key using the cryptographic key; receiving, at a network interface of the computing device from a requesting device, a first request to perform the cryptographic operation on first data in the first request; retrieving, by the protected application using the chip set, the encrypted key from the secure memory space; performing, by the protected application, the cryptographic operation on the first data using the encrypted key to obtain encrypted first data; and sending the encrypted first data to the requesting device; wherein the HSM is distinct from the computing device.
Tyre having an outer sidewall, said outer sidewall comprising at least one composition based on an elastomeric matrix comprising: - one or more thermoplastic elastomers comprising at least one elastomer block and at least one thermoplastic block, the elastomer block(s) not denoting one or more polyisobutylene blocks; and - one or more synthetic diene elastomers selected from butadiene polymers having a glass transition temperature of less than or equal to -50°C; selected from the group consisting of butadiene polymers, said composition comprising at least one crosslinking system and one or more reinforcing fillers. - one or more thermoplastic elastomers comprising at least one elastomer block and at least one thermoplastic block, the elastomer block(s) not denoting one or more polyisobutylene blocks; and - one or more synthetic diene elastomers selected from butadiene polymers having a glass transition temperature of less than or equal to -50°C; selected from the group consisting of butadiene polymers,
A computer readable medium comprising instructions which, when executed by one or more hardware processors , cause performance of operations comprising: identifying a first virtual machine instruction to be processed using a first set of one or more parameters , wherein the first virtual machine instruction is within a set of compiled code generated during a code compilation process, wherein the first virtual machine instruction is executable by a runtime environment that includes a virtual machine ; detecting, by the runtime environment , information that is stored external to, and immediately preceding or immediately following, the first virtual machine instruction , wherein the information references, for each parameter of the first set of one or more parameters , a memory location and/or a variable, or a method handle; and processing, by the runtime environment , the first virtual machine instruction based on the respective type of each of the first set of one or more parameters , wherein, for each parameter of the first set of one or more parameters , the respective type is determined by accessing the memory location and/or the variable referenced by the information , or by executing a method associated with the method handle referenced by the information . identifying a first virtual machine instruction to be processed using a first set of one or more parameters , wherein the first virtual machine instruction is within a set of compiled code generated during a code compilation process, wherein the first virtual machine instruction is executable by a runtime environment that includes a virtual machine ; detecting, by the runtime environment , information that is stored external to, and immediately preceding or immediately following, the first virtual machine instruction , wherein the information references, for each parameter of the first set of one or more parameters , a memory location and/or a variable, or a method handle; and processing, by the runtime environment , the first virtual machine instruction based on the respective type of each of the first set of one or more parameters , wherein, for each parameter of the first set of one or more parameters , the respective type is determined by accessing the memory location and/or the variable referenced by the information , or by executing a method associated with the method handle referenced by the information .
A method of forming at least one integrated light emitting device assembly, comprising: disposing a first assembly comprising a first source substrate and first light emitting devices that emit light of a first wavelength over a backplane , wherein first conductive bonding structures , second conductive bonding structures , and third conductive bonding structures are disposed between the backplane and respective first, second and third subsets of the first light emitting devices in the first assembly ; bonding the first subset of the first light emitting devices to the backplane through the first conductive bonding structures which comprise first solder material portions, by reflowing the first solder material portions while additional bonding is not formed between the backplane and second and third subsets of the first light emitting devices through the respective second and third conductive bonding structures ; detaching the first subset of the first light emitting devices from the first source substrate by laser ablation of material portions overlying the first subset of the first light emitting devices after the first subset of the first light emitting devices are bonded to the backplane by reflowing the first solder material portions; and separating an assembly comprising the first source substrate and the second and third subsets of the first light emitting devices from the backplane while the first subset of the first light emitting devices remains bonded to the backplane . disposing a first assembly comprising a first source substrate and first light emitting devices that emit light of a first wavelength over a backplane , wherein first conductive bonding structures , second conductive bonding structures , and third conductive bonding structures are disposed between the backplane and respective first, second and third subsets of the first light emitting devices in the first assembly ; bonding the first subset of the first light emitting devices to the backplane through the first conductive bonding structures which comprise first solder material portions, by reflowing the first solder material portions while additional bonding is not formed between the backplane and second and third subsets of the first light emitting devices through the respective second and third conductive bonding structures ; detaching the first subset of the first light emitting devices from the first source substrate by laser ablation of material portions overlying the first subset of the first light emitting devices after the first subset of the first light emitting devices are bonded to the backplane by reflowing the first solder material portions; and separating an assembly comprising the first source substrate and the second and third subsets of the first light emitting devices from the backplane while the first subset of the first light emitting devices remains bonded to the backplane .
A method for producing methionine comprising a) a crystallization step in which carbon dioxide is introduced into a reaction solution containing an alkali salt of methionine, which is obtained by hydrolyzing 5-[2-(methylthio)ethyl] imidazolidine-2,4-dione in the presence of an alkali compound to precipitate methionine, b) a step of subjecting the reaction solution containing precipitated methionine resulting in the crystallization step to a solid-liquid separation to obtain methionine and mother liquor, c) a step of recovering methionine by filtration contained in the mother liquor obtained by the solid-liquid separation step, d) a step of drying the methionine obtained by the solid-liquid separation to obtain dried methionine, e) a step of sieving the dried methionine to obtain sieved methionine, f) a step of packaging the sieved methionine powders to obtain a packaged methionine product, and g) a step of transporting methionine between each of the steps c) to f), wherein the method comprises a step of adding waste methionine to the reaction solution, and wherein the waste methionine supplied to the hydrolysis reaction solution includes recovered methionine in step c), and at least one recovered methionine selected from the group consisting of methionine discharged out of the system due to exhaust in the drying step, fine powdered methionine passed through a sieve mesh in a sieving step, methionine that is soared when filling a container with methionine in the product packaging step, and methionine discharged in each of the transporting steps. a) a crystallization step in which carbon dioxide is introduced into a reaction solution containing an alkali salt of methionine, which is obtained by hydrolyzing 5-[2-(methylthio)ethyl] imidazolidine-2,4-dione in the presence of an alkali compound to precipitate methionine, b) a step of subjecting the reaction solution containing precipitated methionine resulting in the crystallization step to a solid-liquid separation to obtain methionine and mother liquor, c) a step of recovering methionine by filtration contained in the mother liquor obtained by the solid-liquid separation step, d) a step of drying the methionine obtained by the solid-liquid separation to obtain dried methionine, e) a step of sieving the dried methionine to obtain sieved methionine, f) a step of packaging the sieved methionine powders to obtain a packaged methionine product, and g) a step of transporting methionine between each of the steps c) to f), wherein the waste methionine supplied to the hydrolysis reaction solution includes recovered methionine in step c), and at least one recovered methionine selected from the group consisting of methionine discharged out of the system due to exhaust in the drying step, fine powdered methionine passed through a sieve mesh in a sieving step, methionine that is soared when filling a container with methionine in the product packaging step, and methionine discharged in each of the transporting steps.
A method performed by a mission critical push to talk, MCPTT, server in a communication system, the method comprising: receiving , from an MCPTT originating client , a first MCPTT first-to-answer call request message including a session description protocol, SDP, offer including at least one media parameter; identifying a plurality of MCPTT recipient clients to transmit a second MCPTT first-to-answer call request message, based on information included in the first MCPTT first-to-answer call request message; transmitting (912a-c), to the plurality of MCPTT recipient clients the second MCPTT first-to-answer call request message; receiving , from a first MCPTT recipient client (160 1 ) among the plurality of MCPTT recipient clients , a first MCPTT first-to-answer call response message; transmitting , to the MCPTT originating client , a second MCPTT first-to-answer call response message for indicating that the first MCPTT recipient client has accepted the MCPTT first-to-answer call, the second MCPTT first-to-answer call response message including an SDP answer including a media parameter selected from the at least one media parameter; transmitting, to a second MCPTT recipient client (160 2 ) among the plurality of MCPTT recipient clients , an MCPTT first-to-answer call cancel request message; and receiving, from the second MCPTT recipient client (160 2 ), an MCPTT first-to-answer call cancel response message. receiving , from an MCPTT originating client , a first MCPTT first-to-answer call request message including a session description protocol, SDP, offer including at least one media parameter; identifying a plurality of MCPTT recipient clients to transmit a second MCPTT first-to-answer call request message, based on information included in the first MCPTT first-to-answer call request message; transmitting (912a-c), to the plurality of MCPTT recipient clients the second MCPTT first-to-answer call request message; receiving , from a first MCPTT recipient client (160 1 ) among the plurality of MCPTT recipient clients , a first MCPTT first-to-answer call response message; transmitting , to the MCPTT originating client , a second MCPTT first-to-answer call response message for indicating that the first MCPTT recipient client has accepted the MCPTT first-to-answer call, the second MCPTT first-to-answer call response message including an SDP answer including a media parameter selected from the at least one media parameter; transmitting, to a second MCPTT recipient client (160 2 ) among the plurality of MCPTT recipient clients , an MCPTT first-to-answer call cancel request message; and receiving, from the second MCPTT recipient client (160 2 ), an MCPTT first-to-answer call cancel response message.
A method of identifying a super-enhancer, the method comprising: cross-linking, preferably covalently cross-linking, chromatin from a cell such that chromosomal nucleic acid is cross-linked to a super-enhancer component with which the chromosomal nucleic acid is associated to form a cross-linked complex; contacting the cross-linked complex with a ligand having affinity for the super-enhancer component or a surrogate mark of enhancers; determining an amount of ligand bound to each enhancer or surrogate mark in the cross-linked complex; and utilizing the determined amount of ligand bound to each enhancer or surrogate mark to identify a super-enhancer , wherein an enhancer that is bound to at least 10-fold more ligand than is bound to an average single enhancer within the cell identifies a super-enhancer. cross-linking, preferably covalently cross-linking, chromatin from a cell such that chromosomal nucleic acid is cross-linked to a super-enhancer component with which the chromosomal nucleic acid is associated to form a cross-linked complex; contacting the cross-linked complex with a ligand having affinity for the super-enhancer component or a surrogate mark of enhancers; determining an amount of ligand bound to each enhancer or surrogate mark in the cross-linked complex; and utilizing the determined amount of ligand bound to each enhancer or surrogate mark to identify a super-enhancer , wherein an enhancer that is bound to at least 10-fold more ligand than is bound to an average single enhancer within the cell identifies a super-enhancer.