mhurhangee/patent-ind-claim-en huggingface dataset:
A method of enrolling a wireless access point , in the following also referred to as AP, into an existing Multi-AP, in the following also referred to as MAP, wireless network, the method comprising: scanning, by the wireless AP , the existing MAP wireless network to identify a controller device of the existing MAP wireless network based on an initial DPP configuration ; and receiving, by the wireless AP , operational parameters from the controller device to configure the wireless AP and to enroll the wireless AP into the existing MAP wireless network , wherein the wireless AP is authenticated using a DPP-capable smartphone performing a DPP authentication procedure , wherein DPP stands for Device Provisioning Protocol, wherein the wireless AP is configured by the DPP-capable smartphone performing the initial DPP configuration procedure to connect the wireless AP to the existing MAP wireless network . scanning, by the wireless AP , the existing MAP wireless network to identify a controller device of the existing MAP wireless network based on an initial DPP configuration ; and receiving, by the wireless AP , operational parameters from the controller device to configure the wireless AP and to enroll the wireless AP into the existing MAP wireless network , wherein the wireless AP is authenticated using a DPP-capable smartphone performing a DPP authentication procedure , wherein DPP stands for Device Provisioning Protocol, wherein the wireless AP is configured by the DPP-capable smartphone performing the initial DPP configuration procedure to connect the wireless AP to the existing MAP wireless network .
A negative electrode active material for a lithium secondary battery, comprising: artificial graphite; and soft carbon on a surface of the artificial graphite, wherein the soft carbon is present in an amount 3.5 wt% or more and 4.5 wt% or less based on a combined weight of the artificial graphite and the soft carbon, and the negative electrode active material is defined such that when applied to a negative electrode current collector and rolled, the negative electrode active material has a total pore volume variation of 10 cm 3 /g or less before and after being rolled. artificial graphite; and soft carbon on a surface of the artificial graphite, wherein the soft carbon is present in an amount 3.5 wt% or more and 4.5 wt% or less based on a combined weight of the artificial graphite and the soft carbon, and the negative electrode active material is defined such that when applied to a negative electrode current collector and rolled, the negative electrode active material has a total pore volume variation of 10 cm 3 /g or less before and after being rolled.
A self-position estimation method using a target detection sensor and a self-position estimation circuit , wherein the target detection sensor is mounted in a moving object (V), the target detection sensor is configured to detect relative positions between targets present in surroundings of the moving object (V) and the moving object (V); the self-position estimation circuit is configured (i) to convert the relative positions into positions of the targets in an odometry coordinate system on the basis of the moved amount and (ii) to store the converted position data as target position data ; and the self-position estimation method comprises: extracting target position data (71a to 71d, 72a to 72d, and 73a to 73d) indicating a traveling lane boundary on the basis of a plurality of the stored target position data; selecting target position data to be compared with map information from the target position data on the basis of reliability of the relative position of the extracted target position data with respect to the moving object (V); and comparing the selected target position data with map information including position information on the target present on a road or around the road, thereby estimating a self-position which is a current position of the moving object (V). extracting target position data (71a to 71d, 72a to 72d, and 73a to 73d) indicating a traveling lane boundary on the basis of a plurality of the stored target position data; selecting target position data to be compared with map information from the target position data on the basis of reliability of the relative position of the extracted target position data with respect to the moving object (V); and comparing the selected target position data with map information including position information on the target present on a road or around the road, thereby estimating a self-position which is a current position of the moving object (V).
Method for manufacturing a porous layer of an acoustic attenuation structure, the method comprising a first step of production of a solid layer comprising at least one structural frame having first reinforcing bands (48.1) that are parallel and spaced apart from one another and second reinforcing bands (48.2) that are parallel and spaced apart from one another and secant with the first reinforcing bands (48.1), the first and second reinforcing bands (48.1, 48.2) delimiting zones without reinforcing bands , and a second step of production of through-holes in the zones without reinforcing bands of the solid layer , the method being characterized in that : said structural frame being embedded in a matrix of resin filling at least the zones without reinforcing bands , and said holes are produced using a laser beam parameterized to produce holes and for a temperature in the impact zones of the laser beam to be maintained within a range of temperatures higher than a sublimation temperature of the resin of the matrix . said structural frame being embedded in a matrix of resin filling at least the zones without reinforcing bands , and said holes are produced using a laser beam parameterized to produce holes and for a temperature in the impact zones of the laser beam to be maintained within a range of temperatures higher than a sublimation temperature of the resin of the matrix .
A method for manufacturing a dopant composition-nanomaterial composite, the method comprising the steps of: (a) putting a dopant composition in contact with a nanomaterial in a solvent; and (b) drying a mixture obtained in the step (a) so as to remove the solvent, the dopant composition being a composition for changing a Seebeck coefficient of the nanomaterial, wherein the dopant composition contains an anion and a cation, the anion being at least one selected from the group consisting of hydroxy ions, alkoxy ions, thio ions, alkyl thio ions, cyanide ions, and carboxy ions, the cation being an onium ion, said onium ion being (i) an onium ion represented by the following general formula (I): where: Y is a phosphorus atom; and R1 through R4 are each independently an alkyl group having 1 to 16 carbon atom(s) or (ii) an onium ion having, as a skeleton, oxonium, sulfonium, fluoronium, chloronium, carbocation, iminium, diazenium, nitronium, nitrilium, nitrosonium, imidazolium, or pyridinium, or wherein the dopant composition comprises a compound selected from: tetramethylammonium hydroxide, tetraethylammonium hydroxide, trimethylphenylammonium hydroxide, 1-butyl-3-methylimidazolium hydroxide, tetrabutylphosphonium hydroxide, and tetrabutylammonium methoxide, wherein the nanomaterial is carbon nanotubes, graphenes or tellurium nanowires. (a) putting a dopant composition in contact with a nanomaterial in a solvent; and (b) drying a mixture obtained in the step (a) so as to remove the solvent, where: Y is a phosphorus atom; and R1 through R4 are each independently an alkyl group having 1 to 16 carbon atom(s) or (ii) an onium ion having, as a skeleton, oxonium, sulfonium, fluoronium, chloronium, carbocation, iminium, diazenium, nitronium, nitrilium, nitrosonium, imidazolium, or pyridinium, or wherein the dopant composition comprises a compound selected from: tetramethylammonium hydroxide, tetraethylammonium hydroxide, trimethylphenylammonium hydroxide, 1-butyl-3-methylimidazolium hydroxide, tetrabutylphosphonium hydroxide, and tetrabutylammonium methoxide, wherein the nanomaterial is carbon nanotubes, graphenes or tellurium nanowires.
An electronic component able to detect an active attack comprising: • reference-obtaining means for obtaining a physical magnitude (I REF , U REF ) referred to as a reference magnitude, which magnitude is dynamically adjustable and representative of the expected activity of said component , the physical magnitude being an intensity or a voltage; • comparator means (REG, 17) suitable for comparing said reference magnitude (I REF , U REF ) with a magnitude of the same type (I CONSO_MIRROR , I CONS , U CONSO-MIRROR ) representative of the real activity of said component; and • detector means suitable for detecting, as a function of the result of said comparison, an attack by delivery of energy causing surplus current to be delivered upstream (Vcc) and downstream (Gnd) of the component. • reference-obtaining means for obtaining a physical magnitude (I REF , U REF ) referred to as a reference magnitude, which magnitude is dynamically adjustable and representative of the expected activity of said component , the physical magnitude being an intensity or a voltage; • comparator means (REG, 17) suitable for comparing said reference magnitude (I REF , U REF ) with a magnitude of the same type (I CONSO_MIRROR , I CONS , U CONSO-MIRROR ) representative of the real activity of said component; and • detector means suitable for detecting, as a function of the result of said comparison, an attack by delivery of energy causing surplus current to be delivered upstream (Vcc) and downstream (Gnd) of the component.
A rechargeable battery cell comprising an active metal, at least one positive electrode , at least one negative electrode , a housing and an electrolyte, the positive electrode having at least one polyanionic compound as an active material and the electrolyte being based on SO 2 and comprising at least one first conducting salt which has the formula (I) - M being a metal selected from the group formed by alkali metals, alkaline earth metals, metals of group 12 of the periodic table of the elements, and aluminum; - x being an integer from 1 to 3; - the substituents R 1 , R 2 , R 3 and R 4 being selected independently of one another from the group formed by C 1 -C 10 alkyl, C 2 -C 10 alkenyl, C 2 -C 10 alkynyl, C 3 -C 10 cycloalkyl, C 6 -C 14 aryl and C 5 -C 14 heteroaryl; and - Z being aluminum or boron. the positive electrode having at least one polyanionic compound as an active material and the electrolyte being based on SO 2 and comprising at least one first conducting salt which has the formula (I) - M being a metal selected from the group formed by alkali metals, alkaline earth metals, metals of group 12 of the periodic table of the elements, and aluminum; - x being an integer from 1 to 3; - the substituents R 1 , R 2 , R 3 and R 4 being selected independently of one another from the group formed by C 1 -C 10 alkyl, C 2 -C 10 alkenyl, C 2 -C 10 alkynyl, C 3 -C 10 cycloalkyl, C 6 -C 14 aryl and C 5 -C 14 heteroaryl; and - Z being aluminum or boron. - M being a metal selected from the group formed by alkali metals, alkaline earth metals, metals of group 12 of the periodic table of the elements, and aluminum; - x being an integer from 1 to 3; - the substituents R 1 , R 2 , R 3 and R 4 being selected independently of one another from the group formed by C 1 -C 10 alkyl, C 2 -C 10 alkenyl, C 2 -C 10 alkynyl, C 3 -C 10 cycloalkyl, C 6 -C 14 aryl and C 5 -C 14 heteroaryl; and - Z being aluminum or boron.
A heat-radiating cartridge comprising: first and second guide members that are spaced apart from each other, wherein the first and second guide members are formed of a thermally conductive non-insulating plastic and capable of supporting both longitudinal sides of a battery ; third and fourth guide members connected to both ends of the first and second guide members , respectively, to form a battery receiving penetration hole surrounded by the first, second, third and fourth guide members , wherein the third and fourth guide members are formed of a thermally conductive insulation plastic; and a seating portion protruding from a sidewall of the battery receiving penetration hole , the battery being capable of being seated on the seating portion , wherein each of the third and fourth guide members includes a thermally conductive insulating member , the thermally conductive insulating member includes a conductive connecting member , and the conductive connecting member is configured to be in contact with an electrode terminal of the battery and simultaneously with a conductive connecting member of a neighboring heat-radiating cartridge . first and second guide members that are spaced apart from each other, wherein the first and second guide members are formed of a thermally conductive non-insulating plastic and capable of supporting both longitudinal sides of a battery ; third and fourth guide members connected to both ends of the first and second guide members , respectively, to form a battery receiving penetration hole surrounded by the first, second, third and fourth guide members , wherein the third and fourth guide members are formed of a thermally conductive insulation plastic; and a seating portion protruding from a sidewall of the battery receiving penetration hole , the battery being capable of being seated on the seating portion , wherein each of the third and fourth guide members includes a thermally conductive insulating member , the thermally conductive insulating member includes a conductive connecting member , and the conductive connecting member is configured to be in contact with an electrode terminal of the battery and simultaneously with a conductive connecting member of a neighboring heat-radiating cartridge .
A work processing apparatus including a processing head , a work table arranged facing the processing head configured to perform processing for a work piece (WK) and configured to hold the work piece (WK), a table displacement mechanism configured to displace the work table in a direction perpendicular to an arrangement direction of the processing head , a table displacement mechanism drive apparatus configured to generate drive force for driving the table displacement mechanism , a table rotary drive apparatus configured to support the work table and the table displacement mechanism such that the work table and the table displacement mechanism are integrally rotatably drivable, and a control apparatus configured to control actuation of each of the table displacement mechanism drive apparatus and the table rotary drive apparatus , characterized by a drive source displacement apparatus configured to cause the table displacement mechanism drive apparatus to approach or separate from the table displacement mechanism to connect the table displacement mechanism drive apparatus to the table displacement mechanism or disconnect the table displacement mechanism drive apparatus from the table displacement mechanism . a processing head , a work table arranged facing the processing head configured to perform processing for a work piece (WK) and configured to hold the work piece (WK), a table displacement mechanism configured to displace the work table in a direction perpendicular to an arrangement direction of the processing head , a table displacement mechanism drive apparatus configured to generate drive force for driving the table displacement mechanism , a table rotary drive apparatus configured to support the work table and the table displacement mechanism such that the work table and the table displacement mechanism are integrally rotatably drivable, and a control apparatus configured to control actuation of each of the table displacement mechanism drive apparatus and the table rotary drive apparatus , characterized by a drive source displacement apparatus configured to cause the table displacement mechanism drive apparatus to approach or separate from the table displacement mechanism to connect the table displacement mechanism drive apparatus to the table displacement mechanism or disconnect the table displacement mechanism drive apparatus from the table displacement mechanism .
A surgical instrument , comprising: an instrument mounting portion configured to mount to a robotic surgical system, the instrument mounting portion comprising an interface to mechanically and electrically interface to the surgical instrument adapted for use with the robotic surgical system; a fluid management system contained within the instrument mounting portion, the fluid management system comprising a first container to contain a first fluid agent to be dispensed; a drive assembly coupled to an end effector and coupled to the fluid management system, wherein a fluidic channel fluidically couples the first container to the end effector; and a peristaltic pump operatively coupled to the drive assembly and fluidically coupled to the first container and the fluidic channel, wherein the peristaltic pump comprises a flexible fluidic channel portion (1526; 1556, 1557; 1566) operatively coupled between at least one roller (1530, 1532; 1550, 1552; 1572) operatively coupled to the drive assembly and operable to rotate in an eccentric pattern, and a rigid surface to compress the flexible fluidic channel portion at at least one point between first roller and the rigid surface during a revolution of the first roller. an instrument mounting portion configured to mount to a robotic surgical system, the instrument mounting portion comprising an interface to mechanically and electrically interface to the surgical instrument adapted for use with the robotic surgical system; a fluid management system contained within the instrument mounting portion, the fluid management system comprising a first container to contain a first fluid agent to be dispensed; a drive assembly coupled to an end effector and coupled to the fluid management system, wherein a fluidic channel fluidically couples the first container to the end effector; and a peristaltic pump operatively coupled to the drive assembly and fluidically coupled to the first container and the fluidic channel, wherein the peristaltic pump comprises a flexible fluidic channel portion (1526; 1556, 1557; 1566) operatively coupled between at least one roller (1530, 1532; 1550, 1552; 1572) operatively coupled to the drive assembly and operable to rotate in an eccentric pattern, and a rigid surface to compress the flexible fluidic channel portion at at least one point between first roller and the rigid surface during a revolution of the first roller.
Apparatus for determining and/or monitoring at least a process variable, with at least a relay , with at least a voltage source , and with at least a voltage increase unit , wherein said voltage increase unit is arranged between the voltage source and the relay and wherein the voltage source , voltage increase unit and the relay are switched in series, wherein the relay , the voltage source and the voltage increase unit are designed, harmonized with one another and connected to one another in such a way that in the event that the voltage source supplies the relay with a voltage for the purpose of energizing the relay , the voltage increase unit causes the voltage present at the relay to increase to the extent that the voltage applied corresponds at least to the energizing voltage of the relay , characterized in that the relay and the voltage source are designed and harmonized with one another in such a way that the voltage which the voltage source supplies to the relay in the event of a hold is less than the energizing voltage of the relay but at least equal to the holding voltage of the relay , and in that the voltage increase unit comprises at least an electrical oscillating circuit or at least a voltage storage unit .
Apraglutide, or a pharmaceutically acceptable salt thereof, for use in the treatment or prevention of acute gastrointestinal Graft versus Host Disease (GvHD) in a subject.
A gas separation membrane module , comprising: a hollow fiber bundle having a plurality of polymer hollow fiber membranes with permselectivity; a module vessel in which the hollow fiber bundle is placed; and a thermosetting resin tube sheet fixing the plurality of hollow fiber membranes at an end portion of the hollow fiber bundle , wherein a cross section of the tube sheet includes a hollow fiber membrane embedded portion in which the hollow fiber membranes are embedded and a solid portion in which no hollow fiber membrane is embedded, the solid potion located outside the hollow fiber membrane embedded portion , and wherein a reinforcing fiber cloth is disposed within the hollow fiber membrane embedded portion so that some of the plurality of hollow fiber membranes are wound with the reinforcing fiber cloth, characterized in that the width dimension of the reinforcing fiber cloth embedded in the tube sheet , which is the dimension in the thickness direction of the tube sheet, is 50% to 90% of the thickness of the tube sheet. a hollow fiber bundle having a plurality of polymer hollow fiber membranes with permselectivity; a module vessel in which the hollow fiber bundle is placed; and a thermosetting resin tube sheet fixing the plurality of hollow fiber membranes at an end portion of the hollow fiber bundle , wherein a cross section of the tube sheet includes a hollow fiber membrane embedded portion in which the hollow fiber membranes are embedded and a solid portion in which no hollow fiber membrane is embedded, the solid potion located outside the hollow fiber membrane embedded portion , and wherein a reinforcing fiber cloth is disposed within the hollow fiber membrane embedded portion so that some of the plurality of hollow fiber membranes are wound with the reinforcing fiber cloth, characterized in that the width dimension of the reinforcing fiber cloth embedded in the tube sheet , which is the dimension in the thickness direction of the tube sheet, is 50% to 90% of the thickness of the tube sheet.
A method performed by a serving node , for differentiating Non-IP Data Delivery, NIDD, traffic in a communication network , wherein the communication network comprises a subscriber's data node , the serving node and an exposure function node , the method comprising: receiving a non-IP flow description from the subscriber's data node , wherein the non-IP flow description comprises an application identifier and a non-IP flow identifier; associating the application identifier and the non-IP flow identifier as an authorized non-IP flow description; receiving , from the exposure function node , a corresponding NIDD submission request with non-IP data and a non-IP flow identifier; determining an application identifier associated with the non-IP flow identifier; and applying a non-IP traffic policy configured for the application identifier to the non-IP data. receiving a non-IP flow description from the subscriber's data node , wherein the non-IP flow description comprises an application identifier and a non-IP flow identifier; associating the application identifier and the non-IP flow identifier as an authorized non-IP flow description; receiving , from the exposure function node , a corresponding NIDD submission request with non-IP data and a non-IP flow identifier; determining an application identifier associated with the non-IP flow identifier; and applying a non-IP traffic policy configured for the application identifier to the non-IP data.