mhurhangee/patent-ind-claim-en huggingface dataset:
A qualification system for gas turbine engine components comprising: a computer system configured to receive a set of measured parameters for each gas turbine engine component in a plurality of substantially identical gas turbine engine components , and determine a variation model based on the set of measured parameters; the computer system including at least one simulated engine model, the simulated engine model being configured to determine a predicted operation of each gas turbine engine component in the plurality of substantially identical gas turbine engine components ; a correlation system configured to correlate variations in the set of parameters for each of the gas turbine engine components in the plurality of substantially identical gas turbine engine components with a set of the predicted operations of each gas turbine engine component in the plurality of substantially identical gas turbine engine components , thereby generating a predictive model based on the variations; and a qualification module configured to generate a qualification formula based on the predictive model, wherein the qualification formula is configured to receive a set of measured parameters of an as-manufactured gas turbine engine component and determine when the as-manufactured gas turbine engine component is qualified for inclusion in at least one engine . a computer system configured to receive a set of measured parameters for each gas turbine engine component in a plurality of substantially identical gas turbine engine components , and determine a variation model based on the set of measured parameters; the computer system including at least one simulated engine model, the simulated engine model being configured to determine a predicted operation of each gas turbine engine component in the plurality of substantially identical gas turbine engine components ; a correlation system configured to correlate variations in the set of parameters for each of the gas turbine engine components in the plurality of substantially identical gas turbine engine components with a set of the predicted operations of each gas turbine engine component in the plurality of substantially identical gas turbine engine components , thereby generating a predictive model based on the variations; and a qualification module configured to generate a qualification formula based on the predictive model, wherein the qualification formula is configured to receive a set of measured parameters of an as-manufactured gas turbine engine component and determine when the as-manufactured gas turbine engine component is qualified for inclusion in at least one engine .
A neurostimulation system , comprising: at least one electrode adapted for implantation in or near a target neural structure in the brain; a signal generator selectively coupled to one or more of the at least one electrode and configured to apply a plurality of electrical stimuli having differing amplitudes via a first electrode of the at least one electrode at a first position in a brain of a patient; a measurement device selectively coupled to one or more of the at least one electrode and configured to detect, for each of the plurality of electrical stimuli, a resonant response from the target neural structure, each resonant response evoked by a respective one of the plurality of electrical stimuli; and a processing unit coupled to the measurement device and configured to: determine a change in one or more common waveform characteristics between two or more of the detected resonant responses; and determine an effectiveness of delivering therapeutic stimulation at the first position based on the change. at least one electrode adapted for implantation in or near a target neural structure in the brain; a signal generator selectively coupled to one or more of the at least one electrode and configured to apply a plurality of electrical stimuli having differing amplitudes via a first electrode of the at least one electrode at a first position in a brain of a patient; a measurement device selectively coupled to one or more of the at least one electrode and configured to detect, for each of the plurality of electrical stimuli, a resonant response from the target neural structure, each resonant response evoked by a respective one of the plurality of electrical stimuli; and a processing unit coupled to the measurement device and configured to: determine a change in one or more common waveform characteristics between two or more of the detected resonant responses; and determine an effectiveness of delivering therapeutic stimulation at the first position based on the change. determine a change in one or more common waveform characteristics between two or more of the detected resonant responses; and determine an effectiveness of delivering therapeutic stimulation at the first position based on the change.
A method being performed by one or more computing devices including at least one processor , the method for securely storing content in the cloud, wherein the content is encrypted using a symmetric key, the symmetric key being generated outside the cloud, the method comprising: providing one or more processors having secure enclave capability, each processor having a processor identifier associated therewith; receiving a set of the processor identifiers, each processor identifier of the set being associated with a processor of the one or more processors and having been selected for storing content; and providing a processor-specific public key corresponding to each processor identified by the set of processor identifiers received, wherein each processor includes a private key corresponding to the processor-specific public key, wherein each processor is constructed such that content encrypted with the public key can only be decrypted within the secure enclave of the respective processor; the method further comprising: creating an array whose entries include at least one processor identifier of the set of processor identifiers and the symmetric key encrypted with the corresponding processor-specific public key, wherein the processor identifier is used to securely decrypt the symmetric key and then use the decrypted symmetric key to decrypt the content into the secure enclave. providing one or more processors having secure enclave capability, each processor having a processor identifier associated therewith; receiving a set of the processor identifiers, each processor identifier of the set being associated with a processor of the one or more processors and having been selected for storing content; and providing a processor-specific public key corresponding to each processor identified by the set of processor identifiers received, wherein each processor includes a private key corresponding to the processor-specific public key, wherein each processor is constructed such that content encrypted with the public key can only be decrypted within the secure enclave of the respective processor; the method further comprising: creating an array whose entries include at least one processor identifier of the set of processor identifiers and the symmetric key encrypted with the corresponding processor-specific public key, wherein the processor identifier is used to securely decrypt the symmetric key and then use the decrypted symmetric key to decrypt the content into the secure enclave.
A cementitious mixture for a 3D printer which comprises a) cement or hydraulic binder, b) latent hydraulic addition, c) filler, d) aggregates, e) additives, f) water, said mixture being characterized in that component c) i.e. the filler, in accordance with standard UNI EN 12620-1: 2008, selected from calcareous, silica or silico-calcareous fillers, preferably calcareous fillers, alone or in a mixture, has a particle size which is such that 90% by weight of the filler passes through an 0.063 mm sieve; component d) is present in a quantity ranging from 10% to 80% by weight, preferably from 25% to 50% by weight, with respect to the total weight of the cementitious mixture, and is composed of calcareous, silica or silico-calcareous aggregates, in accordance with standard UNI EN 206: 2014, alone or in a mixture, having a particle size with a maximum diameter less than or equal to 2 mm, said component d) being composed of one or more fractions having a particle size with a diameter greater than 0.2 mm, preferably with a diameter greater than 0.6 mm, and a fraction having a particle size with a diameter less than or equal to 0.2 mm and such that less than 2% by weight passes through an 0.063 mm sieve; component e) comprises superplasticizers and at least two rheology modifiers, and possibly shrinkage reducing agents and hydrophobic agents, said cementitious mixture being characterized by a torque value ranging from 1,000 N·mm to 2,100 N·mm, measured by a rotational viscometer, model Schleibinger Viskomat XL, with a fixed blade at a rotation rate of 5 rpm and at a temperature of 20°C. component c) i.e. the filler, in accordance with standard UNI EN 12620-1: 2008, selected from calcareous, silica or silico-calcareous fillers, preferably calcareous fillers, alone or in a mixture, has a particle size which is such that 90% by weight of the filler passes through an 0.063 mm sieve; component d) is present in a quantity ranging from 10% to 80% by weight, preferably from 25% to 50% by weight, with respect to the total weight of the cementitious mixture, and is composed of calcareous, silica or silico-calcareous aggregates, in accordance with standard UNI EN 206: 2014, alone or in a mixture, having a particle size with a maximum diameter less than or equal to 2 mm, said component d) being composed of one or more fractions having a particle size with a diameter greater than 0.2 mm, preferably with a diameter greater than 0.6 mm, and a fraction having a particle size with a diameter less than or equal to 0.2 mm and such that less than 2% by weight passes through an 0.063 mm sieve; component e) comprises superplasticizers and at least two rheology modifiers, and possibly shrinkage reducing agents and hydrophobic agents, said cementitious mixture being characterized by a torque value ranging from 1,000 N·mm to 2,100 N·mm, measured by a rotational viscometer, model Schleibinger Viskomat XL, with a fixed blade at a rotation rate of 5 rpm and at a temperature of 20°C.
A laminate membrane for a core in an energy recovery system for the exchange of heat and moisture between air streams passing through said system, said membrane comprising: a fibrous microporous support substrate, a film being composed of or including a sulfonated block copolymer having at least one end block A and at least one interior block B wherein each A block contains essentially no sulfonic acid or sulfonate ester functional groups and each B block is a polymer block containing from 10 to 100 mol percent sulfonic acid or sulfonate ester functional groups based on the number of monomer units, wherein the A block containing essentially no sulfonic acid or sulfonate ester functional groups has a sulfonation level of 0 to 15 mol percent of the total monomers in the A block, characterized in that the film being composed of or including the sulfonated block copolymer is heat laminated onto the microporous support substrate. a fibrous microporous support substrate, a film being composed of or including a sulfonated block copolymer having at least one end block A and at least one interior block B wherein each A block contains essentially no sulfonic acid or sulfonate ester functional groups and each B block is a polymer block containing from 10 to 100 mol percent sulfonic acid or sulfonate ester functional groups based on the number of monomer units, wherein the A block containing essentially no sulfonic acid or sulfonate ester functional groups has a sulfonation level of 0 to 15 mol percent of the total monomers in the A block, characterized in that the film being composed of or including the sulfonated block copolymer is heat laminated onto the microporous support substrate.
A catheter pump system comprising: an impeller ; a catheter body having a lumen therethrough; a drive shaft disposed inside the catheter body and coupled with the impeller at a distal portion of the drive shaft ; and a motor assembly comprising a rotor mechanically coupled with a proximal portion of the drive shaft ; and a stator assembly disposed about the rotor and configured to cause the rotor to rotate; and a heat exchanger coupled with the motor assembly to remove heat therefrom, the heat exchanger comprising a volume to receive fluid, wherein the heat exchanger is disposed about a portion of the stator assembly . an impeller ; a catheter body having a lumen therethrough; a drive shaft disposed inside the catheter body and coupled with the impeller at a distal portion of the drive shaft ; and a motor assembly comprising a rotor mechanically coupled with a proximal portion of the drive shaft ; and a stator assembly disposed about the rotor and configured to cause the rotor to rotate; and a rotor mechanically coupled with a proximal portion of the drive shaft ; and a stator assembly disposed about the rotor and configured to cause the rotor to rotate; and a heat exchanger coupled with the motor assembly to remove heat therefrom, the heat exchanger comprising a volume to receive fluid, wherein the heat exchanger is disposed about a portion of the stator assembly .
An actinic radiation-curable inkjet ink which reversibly undergoes sol-gel phase transition through a temperature change, the inkjet ink comprising: one or more polymerization initiators, one or more photocurable compounds, and a gelling agent, wherein: the polymerization initiators include one or more radical polymerization initiators with a molecular weight of 360 or more; the photocurable compounds include a polyfunctional photocurable compound; a content of the at least one radical polymerization initiator with a molecular weight of 360 or more is 3.0 mass% or more and less than 8.0 mass%, based on the total mass of the inkjet ink; a content of the gelling agent is 1.0 mass% or more and less than 5.0 mass%, based on the total mass of the inkjet ink; a content of a polymerization initiator with a molecular weight of less than 360 is less than 0.1 mass%, based on the total mass of the inkjet ink; and a content of a monofunctional photocurable compound is less than 5.0 mass%, based on the total mass of the inkjet ink. the polymerization initiators include one or more radical polymerization initiators with a molecular weight of 360 or more; the photocurable compounds include a polyfunctional photocurable compound; a content of the at least one radical polymerization initiator with a molecular weight of 360 or more is 3.0 mass% or more and less than 8.0 mass%, based on the total mass of the inkjet ink; a content of the gelling agent is 1.0 mass% or more and less than 5.0 mass%, based on the total mass of the inkjet ink; a content of a polymerization initiator with a molecular weight of less than 360 is less than 0.1 mass%, based on the total mass of the inkjet ink; and a content of a monofunctional photocurable compound is less than 5.0 mass%, based on the total mass of the inkjet ink.
A method comprising: periodically receiving, by at least one network node from a Proxy Call Session Control Function, P-CSCF , associated with a network , a P-CSCF configuration file, the P-CSCF configuration file identifying at least one service provided by the P-CSCF, the P-CSCF configuration file identifying at least one service availability indicating at least one of whether the P-CSCF is accepting attach requests for the at least one service, or whether the P-CSCF is able to handle a bandwidth required to process traffic to be generated by the at least one service associated with the P-CSCF; generating, by the at least one network node and based at least on the P-CSCF configuration file, a service configuration file that includes the P-CSCF as available for network sessions that utilize at least a service of the at least one service identified as being available; receiving, by the at least one network node and from a serving network node, a user device request to connect to the network, the user device request requesting access to the network and utilization of the service; determining, by the at least one network node and based at least on the user device request, a set of active P-CSCFs (414; 416, 418, 420) associated with the service, the set of active P-CSCFs including the P-CSCF; and providing, by the at least one network node and to the serving network node , the service configuration file and session establishment information associated with the set of active P-CSCFs. periodically receiving, by at least one network node from a Proxy Call Session Control Function, P-CSCF , associated with a network , a P-CSCF configuration file, the P-CSCF configuration file identifying at least one service provided by the P-CSCF, the P-CSCF configuration file identifying at least one service availability indicating at least one of whether the P-CSCF is accepting attach requests for the at least one service, or whether the P-CSCF is able to handle a bandwidth required to process traffic to be generated by the at least one service associated with the P-CSCF; generating, by the at least one network node and based at least on the P-CSCF configuration file, a service configuration file that includes the P-CSCF as available for network sessions that utilize at least a service of the at least one service identified as being available; receiving, by the at least one network node and from a serving network node, a user device request to connect to the network, the user device request requesting access to the network and utilization of the service; determining, by the at least one network node and based at least on the user device request, a set of active P-CSCFs (414; 416, 418, 420) associated with the service, the set of active P-CSCFs including the P-CSCF; and providing, by the at least one network node and to the serving network node , the service configuration file and session establishment information associated with the set of active P-CSCFs.
An image processing apparatus comprising: an acquirer configured to acquire information related to a lateral chromatic aberration of an image capturing optical system; and a corrector configured to correct an image obtained by using the image capturing optical system to reduce the lateral chromatic aberration based on the information related to the lateral chromatic aberration, wherein the acquirer is configured to acquire, as the information related to the lateral chromatic aberration, at least information of a first component related to a design value of the image capturing optical system and information of a second component related to a manufacturing error of the image capturing optical system, separately from each other, characterized in that each of the first component and the second component is a rotationally symmetric component, and the first component is different from the second component. an acquirer configured to acquire information related to a lateral chromatic aberration of an image capturing optical system; and a corrector configured to correct an image obtained by using the image capturing optical system to reduce the lateral chromatic aberration based on the information related to the lateral chromatic aberration, wherein the acquirer is configured to acquire, as the information related to the lateral chromatic aberration, at least information of a first component related to a design value of the image capturing optical system and information of a second component related to a manufacturing error of the image capturing optical system, separately from each other, characterized in that each of the first component and the second component is a rotationally symmetric component, and the first component is different from the second component.
A surface cleaning apparatus including: a housing supporting: a suction source ; a cyclonic separator device for separating dirt from dirt- laden air, wherein the cyclonic separator device has an elongate axis (A) about which dirt laden air is caused to rotate and which lies in a plane (Q1); a user graspable handle which extends along an elongate axis (C), a passage member for transporting dirt-laden air to the dirt separation device, the passage member which extends along an elongate axis (B), wherein the elongate axis (B) of the passage member and the elongate axis (C) of the user graspable handle lie in a plane (P1), and the elongate axis (A) of the cyclonic separator device intersects the plane (P1), and wherein the cyclonic separator device includes: a first separating chamber fluidly connected to the passage member for separating relatively coarse dust or debris from any dirt-laden air received from the passage member ; an inlet through which dirt-laden air is drawn into the first dirt separating chamber; a first dirt collection chamber for receiving dirt separated by the first separating chamber ; a shroud ; an outlet through which cleaner air exits the first separating chamber ; and characterized in that it further comprises a generally planar baffle positioned in the first dirt collection chamber which lies in a plane (R1), and wherein, in side view, the plane (Q1) is perpendicular to the vertical and the baffle is positioned above the plane (Q1) such that, in normal use, dirt collected in the first dirt collection chamber reaches the plane (Q1) before the dirt reaches the baffle. a housing supporting: a suction source ; a cyclonic separator device for separating dirt from dirt- laden air, wherein the cyclonic separator device has an elongate axis (A) about which dirt laden air is caused to rotate and which lies in a plane (Q1); a user graspable handle which extends along an elongate axis (C), a suction source ; a cyclonic separator device for separating dirt from dirt- laden air, wherein the cyclonic separator device has an elongate axis (A) about which dirt laden air is caused to rotate and which lies in a plane (Q1); a user graspable handle which extends along an elongate axis (C), a passage member for transporting dirt-laden air to the dirt separation device, the passage member which extends along an elongate axis (B), a first separating chamber fluidly connected to the passage member for separating relatively coarse dust or debris from any dirt-laden air received from the passage member ; an inlet through which dirt-laden air is drawn into the first dirt separating chamber; a first dirt collection chamber for receiving dirt separated by the first separating chamber ; a shroud ; an outlet through which cleaner air exits the first separating chamber ; a generally planar baffle positioned in the first dirt collection chamber which lies in a plane (R1), and wherein, in side view, the plane (Q1) is perpendicular to the vertical and the baffle is positioned above the plane (Q1) such that, in normal use, dirt collected in the first dirt collection chamber reaches the plane (Q1) before the dirt reaches the baffle.