mhurhangee/patent-ind-claim-en huggingface dataset:
A method for establishing a roaming connection over a bootstrap server comprising the following steps: transmitting a registration request from a communication terminal to an access and mobility management function, AMF, entity of a visited communication network , wherein the registration request comprises an identification (UE ID) of the communication terminal ; forwarding the registration request to a bootstrap server of the visited communication network by the AMF entity ; transmitting network access data for the access to the visited communication network by the bootstrap server to the communication terminal based on the UE ID of the communication terminal , wherein the network access data show capabilities of the visited communication network ; and establishing the roaming connection by the communication terminal via the visited communication network based on the network access data , wherein the registration request is transmitted and forwarded via a specific network slice of the visited communication network , which is dedicatedly determined for connections to the bootstrap server . transmitting a registration request from a communication terminal to an access and mobility management function, AMF, entity of a visited communication network , wherein the registration request comprises an identification (UE ID) of the communication terminal ; forwarding the registration request to a bootstrap server of the visited communication network by the AMF entity ; transmitting network access data for the access to the visited communication network by the bootstrap server to the communication terminal based on the UE ID of the communication terminal , wherein the network access data show capabilities of the visited communication network ; and establishing the roaming connection by the communication terminal via the visited communication network based on the network access data , wherein the registration request is transmitted and forwarded via a specific network slice of the visited communication network , which is dedicatedly determined for connections to the bootstrap server .
Household cooking appliance having a cooking chamber , delimited by a cooking chamber wall (104 - 106), characterised by a cooking chamber camera located outside of the cooking chamber , for capturing images from the cooking chamber through a viewing opening in the cooking chamber wall (104 - 106), wherein - the cooking chamber camera is movable by the household cooking appliance between a resting position (RP) and a capturing position (AP), - the cooking chamber camera is subject to more heat from the cooking chamber in the capturing position (AP) than in the resting position (RP) and - the household cooking appliance is designed to move the cooking chamber camera during an operating sequence, in order to capture an image, from the resting position (RP) into the capturing position (AP) and back into the resting position (RP) after the capture. - the cooking chamber camera is movable by the household cooking appliance between a resting position (RP) and a capturing position (AP), - the cooking chamber camera is subject to more heat from the cooking chamber in the capturing position (AP) than in the resting position (RP) and - the household cooking appliance is designed to move the cooking chamber camera during an operating sequence, in order to capture an image, from the resting position (RP) into the capturing position (AP) and back into the resting position (RP) after the capture.
A surgical stapler end effector assembly , the end effector assembly comprising: (a) a staple cartridge , wherein the staple cartridge comprises: (i) a plurality of staples , and (ii) a deck , wherein the staple cartridge is operable to drive the staples through the deck; (b) an anvil , wherein the anvil is movable from an open position toward the staple cartridge to reach a closed position, wherein the anvil includes an underside having staple forming surface configured to receive staples driven through the deck; and (c) a buttress assembly , wherein the buttress assembly comprises: (i) a buttress body , (ii) an adhesive material , wherein the adhesive material is configured to removably secure the buttress body to the deck of the staple cartridge or the underside of the anvil, (iii) a plurality of reinforcement strands extending through the buttress body, wherein the reinforcement strands are configured to engage one or more staples fired through the buttress body; (iv) an intermediate layer positioned between the buttress body and the adhesive material, wherein the intermediate layer is impermeable or semi-impermeable, characterized in that at least some of the reinforcement strands are woven through the buttress body in discrete woven regions and in that the staple cartridge is operable to drive the staples through the buttress body at regions corresponding to the discrete woven regions. (a) a staple cartridge , wherein the staple cartridge comprises: (i) a plurality of staples , and (ii) a deck , wherein the staple cartridge is operable to drive the staples through the deck; (i) a plurality of staples , and (ii) a deck , wherein the staple cartridge is operable to drive the staples through the deck; (b) an anvil , wherein the anvil is movable from an open position toward the staple cartridge to reach a closed position, wherein the anvil includes an underside having staple forming surface configured to receive staples driven through the deck; and (c) a buttress assembly , wherein the buttress assembly comprises: (i) a buttress body , (ii) an adhesive material , wherein the adhesive material is configured to removably secure the buttress body to the deck of the staple cartridge or the underside of the anvil, (iii) a plurality of reinforcement strands extending through the buttress body, wherein the reinforcement strands are configured to engage one or more staples fired through the buttress body; (iv) an intermediate layer positioned between the buttress body and the adhesive material, wherein the intermediate layer is impermeable or semi-impermeable, (i) a buttress body , (ii) an adhesive material , wherein the adhesive material is configured to removably secure the buttress body to the deck of the staple cartridge or the underside of the anvil, (iii) a plurality of reinforcement strands extending through the buttress body, wherein the reinforcement strands are configured to engage one or more staples fired through the buttress body; (iv) an intermediate layer positioned between the buttress body and the adhesive material, wherein the intermediate layer is impermeable or semi-impermeable,
A data receiver , wherein the data receiver is configured to receive a signal from a data transmitter , wherein the signal comprises at least two pilot sequences (144_1-144_n) which are distributed in time according to a pilot pattern , wherein at least one second pilot sequence (144_2) of the at least two pilot sequences (144_1-144_n) comprises a temporally varying frequency shift relative to a first pilot sequence (144_1) of the at least two pilot sequences (144_1-144_n), wherein the data receiver comprises a detector with a correlator which is configured to detect the at least two pilot sequences (144_1-144_n) based on a correlation pattern, wherein the correlation pattern corresponds to the pilot pattern and describes a distribution of the at least two pilot sequences (144_1-144_n) in time and frequency, wherein the correlation pattern is provided with a temporally varying frequency shift in order to reduce an influence of the temporally varying frequency shift of the at least one second pilot sequence (144_2) relative to the first pilot sequence (144_1). wherein the data receiver is configured to receive a signal from a data transmitter , wherein the signal comprises at least two pilot sequences (144_1-144_n) which are distributed in time according to a pilot pattern , wherein at least one second pilot sequence (144_2) of the at least two pilot sequences (144_1-144_n) comprises a temporally varying frequency shift relative to a first pilot sequence (144_1) of the at least two pilot sequences (144_1-144_n), wherein the data receiver comprises a detector with a correlator which is configured to detect the at least two pilot sequences (144_1-144_n) based on a correlation pattern, wherein the correlation pattern corresponds to the pilot pattern and describes a distribution of the at least two pilot sequences (144_1-144_n) in time and frequency, wherein the correlation pattern is provided with a temporally varying frequency shift in order to reduce an influence of the temporally varying frequency shift of the at least one second pilot sequence (144_2) relative to the first pilot sequence (144_1).
An aqueous dispersion containing a resin component and water, wherein the resin component contains ethylene-unsaturated carboxylic acid copolymer (A), polymer having an acrylic acid ester unit as a polymerization unit (B), and ethylene-vinyl acetate copolymer (C), and contains composite particles (D) having the ethylene-unsaturated carboxylic acid copolymer (A) and the polymer having an acrylic acid ester unit as a polymerization unit (B), and composite particles (E) having the ethylene-unsaturated carboxylic acid copolymer (A) and the ethylene-vinyl acetate copolymer (C), and wherein relative to 100 mass% of the resin component, 35 to 70% of the ethylene-unsaturated carboxylic acid copolymer (A) is contained, 25 to 64.5% of the polymer having an acrylic acid ester unit as a polymerization unit (B) is contained, and 0.5 to 20% of the ethylene-vinyl acetate copolymer (C) is contained (where a total of (A), (B), and (C) is 100%), and wherein the unsaturated carboxylic acid content in the ethylene-unsaturated carboxylic acid copolymer (A) is 10 mass% or more and 25 mass% or less, and wherein the vinyl acetate content in the ethylene-vinyl acetate copolymer (C) is 5 mass% or more and 50 mass% or less. wherein the resin component contains ethylene-unsaturated carboxylic acid copolymer (A), polymer having an acrylic acid ester unit as a polymerization unit (B), and ethylene-vinyl acetate copolymer (C), and contains composite particles (D) having the ethylene-unsaturated carboxylic acid copolymer (A) and the polymer having an acrylic acid ester unit as a polymerization unit (B), and composite particles (E) having the ethylene-unsaturated carboxylic acid copolymer (A) and the ethylene-vinyl acetate copolymer (C), and 35 to 70% of the ethylene-unsaturated carboxylic acid copolymer (A) is contained, 25 to 64.5% of the polymer having an acrylic acid ester unit as a polymerization unit (B) is contained, and 0.5 to 20% of the ethylene-vinyl acetate copolymer (C) is contained (where a total of (A), (B), and (C) is 100%), and wherein the unsaturated carboxylic acid content in the ethylene-unsaturated carboxylic acid copolymer (A) is 10 mass% or more and 25 mass% or less, and wherein the vinyl acetate content in the ethylene-vinyl acetate copolymer (C) is 5 mass% or more and 50 mass% or less.
A method for building a three-dimensional object with an additive manufacturing system having a heated build chamber and an extrusion head , the method comprising: feeding a consumable filament to the extrusion head , the consumable filament comprising a core portion and a shell portion at least partially encasing the core portion , wherein the core portion compositionally comprises a first semi-crystalline polymeric material, and wherein the shell portion compositionally comprises a second semi-crystalline polymeric material having a peak crystallization temperature measured pursuant to ASTM D3418-08 that is greater than a peak crystallization temperature of the first semi-crystalline polymeric material measured pursuant to ASTM D3418-08; melting the fed consumable filament in the extrusion head to form a molten material; depositing the molten material in the heated build chamber as an extruded rod that defines at least a portion of a layer of the three-dimensional object , wherein the extruded rod compositionally comprises the first semi-crystalline polymeric material and the second semi-crystalline polymeric material; crystallizing at least a portion of the second semi-crystalline polymeric material of the extruded rod prior to formation of a subsequent layer of the three-dimensional object ; and crystallizing at least a portion of the first semi-crystalline polymeric material of the extruded rod after crystallizing the portion of the second semi-crystalline polymeric material. feeding a consumable filament to the extrusion head , the consumable filament comprising a core portion and a shell portion at least partially encasing the core portion , wherein the core portion compositionally comprises a first semi-crystalline polymeric material, and wherein the shell portion compositionally comprises a second semi-crystalline polymeric material having a peak crystallization temperature measured pursuant to ASTM D3418-08 that is greater than a peak crystallization temperature of the first semi-crystalline polymeric material measured pursuant to ASTM D3418-08; melting the fed consumable filament in the extrusion head to form a molten material; depositing the molten material in the heated build chamber as an extruded rod that defines at least a portion of a layer of the three-dimensional object , wherein the extruded rod compositionally comprises the first semi-crystalline polymeric material and the second semi-crystalline polymeric material; crystallizing at least a portion of the second semi-crystalline polymeric material of the extruded rod prior to formation of a subsequent layer of the three-dimensional object ; and crystallizing at least a portion of the first semi-crystalline polymeric material of the extruded rod after crystallizing the portion of the second semi-crystalline polymeric material.
A compound having the structure represented by the following formula (I) or a derivative thereof, the derivative being a pharmaceutically acceptable salt, N-oxide, stereoisomer, geometrical isomer, tautomer, solvate or hydrate of the compound, wherein R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , R 10 , R 11 , R 12 , R 13 , and R 14 in formula (I) are each independently hydrogen or deuterium, provided that at least one of them is deuterium.
A process for preparing a fatty acid chloride of formula R-COCl, wherein R is a linear or branched, saturated alkyl group having from 6 to 30 carbon atoms, or a linear or branched, mono- or polyunsaturated alkenyl group having from 6 to 30 carbon atoms, wherein the process comprises i. providing a fatty acid of formula R-COOH, and ii. reacting the fatty acid of step i. with phosphorous trichloride, thionyl chloride or phosgene, preferably thionyl chloride, in the presence of a catalyst to form a fatty acid chloride of formula R-COCl, wherein the catalyst is an amine, wherein the amine is selected from amino acids and amino ethane sulfonic acids. i. providing a fatty acid of formula R-COOH, and ii. reacting the fatty acid of step i. with phosphorous trichloride, thionyl chloride or phosgene, preferably thionyl chloride, in the presence of a catalyst to form a fatty acid chloride of formula R-COCl, wherein the catalyst is an amine, wherein the amine is selected from amino acids and amino ethane sulfonic acids.
A method comprising: receiving code at a platform for an application , wherein the application is an Android application; running the application ; accessing runtime layer data for the application ; wherein the runtime layer data includes internal runtime information from a binary object file of an Android runtime layer; generating static diagnostic and advisory data based on the runtime layer data , and storing the generated static diagnostic and advisory data in a diagnostic and advisory database ; receiving dynamic runtime information, generated based upon reading in-memory binary object file segments and library details, for the application from operation of the application on one or more user systems ; generating dynamic diagnostic and advisory information based on the received dynamic runtime information , and storing the generated dynamic diagnostic and advisory data in the diagnostic and advisory database; and wherein dynamic runtime information for the application is generated by a daemon running on each of the one or more user systems, using the static and dynamic diagnostic and advisory data to recompile the application. receiving code at a platform for an application , wherein the application is an Android application; running the application ; accessing runtime layer data for the application ; wherein the runtime layer data includes internal runtime information from a binary object file of an Android runtime layer; generating static diagnostic and advisory data based on the runtime layer data , and storing the generated static diagnostic and advisory data in a diagnostic and advisory database ; receiving dynamic runtime information, generated based upon reading in-memory binary object file segments and library details, for the application from operation of the application on one or more user systems ; generating dynamic diagnostic and advisory information based on the received dynamic runtime information , and storing the generated dynamic diagnostic and advisory data in the diagnostic and advisory database; and wherein dynamic runtime information for the application is generated by a daemon running on each of the one or more user systems, using the static and dynamic diagnostic and advisory data to recompile the application.
A memory device, comprising: a substrate of semiconductor material of a first conductivity type; first and second spaced-apart regions in the substrate of a second conductivity type, with a channel region in the substrate therebetween; a conductive floating gate over and insulated from the substrate , wherein the floating gate is disposed partially over the first region and over a first portion of the channel region ; a conductive second gate laterally adjacent to and insulated from the floating gate , wherein the second gate is disposed partially or fully over and insulated from a second portion of the channel region ; wherein some or all of the first portion of the channel region includes implanted material only of the second conductivity type, and wherein the second portion of the channel region is entirely free of any implanted material of the first and second conductivity types. a substrate of semiconductor material of a first conductivity type; first and second spaced-apart regions in the substrate of a second conductivity type, with a channel region in the substrate therebetween; a conductive floating gate over and insulated from the substrate , wherein the floating gate is disposed partially over the first region and over a first portion of the channel region ; a conductive second gate laterally adjacent to and insulated from the floating gate , wherein the second gate is disposed partially or fully over and insulated from a second portion of the channel region ; wherein some or all of the first portion of the channel region includes implanted material only of the second conductivity type, and wherein the second portion of the channel region is entirely free of any implanted material of the first and second conductivity types.
An electronic system for non-invasive monitoring of estrogen (E) of a female human, the system comprising: a wearable device including a sensor system configured to be worn in contact with the skin of the female human and to determine one or more physiological parameters (Y) of the female human; and a processor configured to receive and store the physiological parameters (Y) of the female human from the sensor system for a respective point in time; the processor being further configured to determine a change (C) in the physiological parameters (Y) of the female human, using the physiological parameters (Y) of the female human stored for a plurality of respective points in time; and the processor being further configured to detect a change in estrogen level (E) of the female human based on the change (C) in the physiological parameters (Y) of the female human, wherein the sensor system is configured to determine a level of perfusion (p) of the female human; and the processor is configured to receive and store the level of perfusion (p) of the female human from the sensor system for a respective point in time, to determine a change (C) in the level of perfusion (p) of the female human by calculating a first derivative of a course of the level of perfusion (p), using the levels of perfusion (p) of the female human stored for a plurality of respective points in time; and to detect the change in estrogen level (E) of the female human based on the change (C) in the level of perfusion (p) of the female human. a wearable device including a sensor system configured to be worn in contact with the skin of the female human and to determine one or more physiological parameters (Y) of the female human; and a processor configured to receive and store the physiological parameters (Y) of the female human from the sensor system for a respective point in time; the processor being further configured to determine a change (C) in the physiological parameters (Y) of the female human, using the physiological parameters (Y) of the female human stored for a plurality of respective points in time; and the processor being further configured to detect a change in estrogen level (E) of the female human based on the change (C) in the physiological parameters (Y) of the female human, wherein the sensor system is configured to determine a level of perfusion (p) of the female human; and the processor is configured to receive and store the level of perfusion (p) of the female human from the sensor system for a respective point in time, to determine a change (C) in the level of perfusion (p) of the female human by calculating a first derivative of a course of the level of perfusion (p), using the levels of perfusion (p) of the female human stored for a plurality of respective points in time; and to detect the change in estrogen level (E) of the female human based on the change (C) in the level of perfusion (p) of the female human.
A method for the detection of nucleotide polymerase activity comprising the following steps: a) providing a reaction mixture comprising at least said polymerase, an initiator, and nucleoside triphosphates, b) providing conditions sufficient to allow the polymerase an assembling of nucleotides, c) stop said polymerase assembling of nucleotides, d) adding a donor nucleotide probe and an acceptor nucleotide probe, wherein said donor nucleotide probe and said acceptor nucleotide probe are each conjugated to a non-radioactive label, wherein said label allows the determination of close proximity of said nucleotide probes, e) providing conditions sufficient to allow the nucleotide probes to hybridize with the product of step b) and f) determining if said donor and acceptor nucleotide probes are in close proximity by measuring the signal generated by said non-radioactive labels, wherein said close proximity correlates with the activity of the nucleotide polymerase. a) providing a reaction mixture comprising at least said polymerase, an initiator, and nucleoside triphosphates, b) providing conditions sufficient to allow the polymerase an assembling of nucleotides, c) stop said polymerase assembling of nucleotides, d) adding a donor nucleotide probe and an acceptor nucleotide probe, wherein said donor nucleotide probe and said acceptor nucleotide probe are each conjugated to a non-radioactive label, wherein said label allows the determination of close proximity of said nucleotide probes, e) providing conditions sufficient to allow the nucleotide probes to hybridize with the product of step b) and f) determining if said donor and acceptor nucleotide probes are in close proximity by measuring the signal generated by said non-radioactive labels, wherein said close proximity correlates with the activity of the nucleotide polymerase.