mhurhangee/ep-ind-claims huggingface dataset:
Process for producing a laser-structurable component, characterized in that an extruded, single-layer or multilayer molding having at least one laser-structurable layer that forms an exposed surface of the molding is applied to the surface of a non-laser-structurable carrier element, or is in-mold-coated with a non-laser-structurable thermoplastic carrier element, so that at least one laser-structurable layer of the molding forms at least one part of the surface of the laser-structurable component, or that the extruded, single-layer or multilayer molding is thermoformed to form the component, preferably without having already formed conductor tracks, the laser-structurable layer of the molding consisting substantially over its entire area of a thermoplastic molding composition composed of: 30 - 99.9 wt% of a thermoplastic consisting of polyamide, wherein consists of a cycloaliphatic amorphous polyamide (A1_4) or a mixture of aliphatic polyamides (A1_1) and semiaromatic, semicrystalline polyamides (A1_2), amorphous semiaromatic polyamides (A1_3) and/or amorphous cycloaliphatic polyamides (A1_4) or of a mixture of a polyamide and another thermoplastic, the fraction of polyamide being at least 70 wt%, based on the sum of and, and wherein consists of an amorphous semiaromatic polyamide (A1_3) a amorphous cycloaliphatic polyamide (A1_4) or mixture of aliphatic polyamides (A1_1) and semiaromatic, semicrystalline polyamides (A1_2), amorphous semiaromatic polyamides (A1_3) and/or amorphous cycloaliphatic polyamides (A1_4); 0.1 - 10 wt% of LDS additive; 0 - 60 wt% of adjuvants different from and; the sum of - making 100 wt%. 30 - 99.9 wt% of a thermoplastic consisting of polyamide, wherein consists of a cycloaliphatic amorphous polyamide (A1_4) or a mixture of aliphatic polyamides (A1_1) and semiaromatic, semicrystalline polyamides (A1_2), amorphous semiaromatic polyamides (A1_3) and/or amorphous cycloaliphatic polyamides (A1_4) or of a mixture of a polyamide and another thermoplastic, the fraction of polyamide being at least 70 wt%, based on the sum of and, and wherein consists of an amorphous semiaromatic polyamide (A1_3) a amorphous cycloaliphatic polyamide (A1_4) or mixture of aliphatic polyamides (A1_1) and semiaromatic, semicrystalline polyamides (A1_2), amorphous semiaromatic polyamides (A1_3) and/or amorphous cycloaliphatic polyamides (A1_4); a cycloaliphatic amorphous polyamide (A1_4) or a mixture of aliphatic polyamides (A1_1) and semiaromatic, semicrystalline polyamides (A1_2), amorphous semiaromatic polyamides (A1_3) and/or amorphous cycloaliphatic polyamides (A1_4) the fraction of polyamide being at least 70 wt%, based on the sum of and, and wherein consists of an amorphous semiaromatic polyamide (A1_3) a amorphous cycloaliphatic polyamide (A1_4) or mixture of aliphatic polyamides (A1_1) and semiaromatic, semicrystalline polyamides (A1_2), amorphous semiaromatic polyamides (A1_3) and/or amorphous cycloaliphatic polyamides (A1_4); 0.1 - 10 wt% of LDS additive; 0 - 60 wt% of adjuvants different from and;
A method performed by a wireless device in a communication network supporting dual connectivity, the method comprising: when being connected to a first and a second network node (1400, 1500): - receiving an Instant Uplink Access, IUA, grant from the first network node, indicating at least a periodicity of a semi-persistent scheduling, the IUA being a form of prescheduling to allow uplink transmission of data without a Scheduling Request; and when having information to be transmitted in the UL to the first network node: - determining whether being scheduled for UL transmission by the second network node in a resource associated with the IUA grant, and: when not being scheduled: - transmitting UL information to the first network node in the resource associated with IUA, and, when being scheduled: - refraining from transmitting the UL information to the first network node in the resource associated with IUA. - receiving an Instant Uplink Access, IUA, grant from the first network node, indicating at least a periodicity of a semi-persistent scheduling, the IUA being a form of prescheduling to allow uplink transmission of data without a Scheduling Request; and - determining whether being scheduled for UL transmission by the second network node in a resource associated with the IUA grant, and: - transmitting UL information to the first network node in the resource associated with IUA, - refraining from transmitting the UL information to the first network node in the resource associated with IUA.
Method for applying a thermal insulation on a 3-dimensional structure (10, 20, 30), the 3-dimensional structure comprising at least two individual tube sections and an outward extending connecting section, the thermal insulation having a thickness of 0.5 cm-5 cm, wherein the method consists of the steps of - providing a substantially flat panel of insulation material, wherein the method is characterized by the steps of - forming one or more 2-dimensional elements (1, 2) from the flat insulation material, wherein forming is assisted by a motor that provides reciprocating motion to a cutting element, - applying the one or more 2-dimensional elements on the 3-dimensional structure, wherein the forming is performed at a constant angle with respect to the 2-dimensional element, by having the motor in a fixed position in view of the constant angle. - providing a substantially flat panel of insulation material, wherein the method is characterized by the steps of - forming one or more 2-dimensional elements (1, 2) from the flat insulation material, wherein forming is assisted by a motor that provides reciprocating motion to a cutting element, - applying the one or more 2-dimensional elements on the 3-dimensional structure,
A method for preventing malware downloads, comprising: determining, by a unified threat manager, UTM, of a firewall device, in response to a HyperText Transfer Protocol, HTTP, byte-serving request to download a portion of a resource from a server, that the UTM has previously determined that the resource comprises malware; in response to determining by the UTM that the resource has previously been determined to comprise malware, modifying, by the UTM, the HTTP byte-serving request to request downloading all the resource; and passing the modified HTTP byte-serving request to the server. determining, by a unified threat manager, UTM, of a firewall device, in response to a HyperText Transfer Protocol, HTTP, byte-serving request to download a portion of a resource from a server, that the UTM has previously determined that the resource comprises malware; in response to determining by the UTM that the resource has previously been determined to comprise malware, modifying, by the UTM, the HTTP byte-serving request to request downloading all the resource; and passing the modified HTTP byte-serving request to the server.
Process for preparing 4-{[ -2-{4-[5-chloro-2-(4-chloro-1H-1,2,3-triazol-1-yl)phenyl]-5-methoxy-2-oxopyridin-1 -yl}butanoyl]amino}-2-fluorobenzamide or 4-({ -2-[4-{5-chloro-2-[4-(trifluoromethyl)-1H-1,2,3-triazol-1-yl]phenyl}-5-methoxy-2-oxopyridin-1 -yl]butanoyl}-amino)-2-fluorobenzamide, characterized in that respectively 4-[5-chloro-2-(4-chloro-1H-1,2,3 -triazol-1-yl)phenyl]-5-methoxypyridin-2 -one (XVI-Cl) or 4-{5-chloro-2-[4-(trifluoromethyl)-1H-1,2,3-triazol-1-yl]phenyl}-5-methoxypyridin-2 -one (XVI-CF 3) is reacted with 4-{[ -2-bromobutanoyl]amino}-2-fluorobenzamide in the presence of a base in a solvent and the compound of the formula or is subsequently isolated.
Automated machining head with vision, of the type used industrially associated with robot arms, to perform various machining tasks, such as drilling and riveting, controlled by a robot controller module, comprising vision equipment provided with at least two video cameras, connected to a computer provided with specific software, and a communications module, characterised in that it comprises: - a pressure foot, encasing the machining tool, - the said pressure foot associated with a vertical movement device provided with mechanical locking. - a pressure foot, encasing the machining tool, - the said pressure foot associated with a vertical movement device provided with mechanical locking.
A communication device that is connected, as a terminal device, to a base station of a cellular communication system and that relays communication between the base station and another terminal device of the cellular communication system, wherein the communication device comprises: setting means configured to set, as service quality identification information, a first value from a first range of numbers for user data generated in the communication device, and a second value from a second range of numbers that does not overlap the first range and for user data received from the other terminal device; and transmission means configured to transmit the user data generated in the communication device with the service quality identification information in which the first value is set, and transmit the user data received from the other terminal device with the service quality identification information in which the second value is set. setting means configured to set, as service quality identification information, a first value from a first range of numbers for user data generated in the communication device, and a second value from a second range of numbers that does not overlap the first range and for user data received from the other terminal device; and transmission means configured to transmit the user data generated in the communication device with the service quality identification information in which the first value is set, and transmit the user data received from the other terminal device with the service quality identification information in which the second value is set.
An ultrasound transducer, comprising: a control circuit which comprises an integrated circuit, the integrated circuit comprising an array of circuit portions; an array of capacitive micromachined ultrasound transducer, cMUT, elements provided to overlay the control circuit each having a bottom electrode opposing a top electrode and a cavity between the bottom electrode and the top electrode; and an array of vias, with at least one via providing a coupling between each cMUT element and a respective one of the circuit portions said CMUT element is arranged to overlay, those circuit portions defining a circuit area, wherein: at least some vias are located beneath the bottom electrode of the cMUT element; each via connects to the respective circuit portion at a same position relative to the circuit portion; the array of cMUT elements overlaps at least one side of a pair of opposite sides in a given direction of the circuit area; the ultrasound transducer being characterized in that the array of circuit portions has a smaller pitch, in at least one direction, than the array of cMUT elements. a control circuit which comprises an integrated circuit, the integrated circuit comprising an array of circuit portions; an array of capacitive micromachined ultrasound transducer, cMUT, elements provided to overlay the control circuit each having a bottom electrode opposing a top electrode and a cavity between the bottom electrode and the top electrode; and an array of vias, with at least one via providing a coupling between each cMUT element and a respective one of the circuit portions said CMUT element is arranged to overlay, those circuit portions defining a circuit area, wherein: at least some vias are located beneath the bottom electrode of the cMUT element; each via connects to the respective circuit portion at a same position relative to the circuit portion; the array of cMUT elements overlaps at least one side of a pair of opposite sides in a given direction of the circuit area; the ultrasound transducer being characterized in that the array of circuit portions has a smaller pitch, in at least one direction, than the array of cMUT elements. at least some vias are located beneath the bottom electrode of the cMUT element; each via connects to the respective circuit portion at a same position relative to the circuit portion; the array of cMUT elements overlaps at least one side of a pair of opposite sides in a given direction of the circuit area; the ultrasound transducer being characterized in that the array of circuit portions has a smaller pitch, in at least one direction, than the array of cMUT elements.
A composition comprising an amino terminated phosphonamide of general Formula I: wherein: R is a C 1 to C 20 alkyl or, optionally substituted, aryl group; X is an aliphatic group; Z is: and n is an integer of from 1 to 20; or general Formula II: wherein each R 1-5 is individually a C 1 to C 20 alkyl or, optionally substituted, aryl group; each X 14 is individually an aliphatic group; n and m are an integer of from 0 to 20; and each Z is, independently: wherein X is an aliphatic group; and wherein the amino-terminated phosphonamide of Formula I or Formula II comprises at least 50% amine end-groups based on the total number of end groups. R is a C 1 to C 20 alkyl or, optionally substituted, aryl group; X is an aliphatic group; Z is: and n is an integer of from 1 to 20; or general Formula II: wherein each R 1-5 is individually a C 1 to C 20 alkyl or, optionally substituted, aryl group; each X 14 is individually an aliphatic group; n and m are an integer of from 0 to 20; and each Z is, independently: wherein X is an aliphatic group; and wherein the amino-terminated phosphonamide of Formula I or Formula II comprises at least 50% amine end-groups based on the total number of end groups. each R 1-5 is individually a C 1 to C 20 alkyl or, optionally substituted, aryl group; each X 14 is individually an aliphatic group; n and m are an integer of from 0 to 20; and each Z is, independently: wherein X is an aliphatic group; and wherein the amino-terminated phosphonamide of Formula I or Formula II comprises at least 50% amine end-groups based on the total number of end groups.
An electrostatic coating apparatus comprising: - a motor; - a rotary atomizing head that is provided on the front side of said motor to be rotatable by said motor; - an external electrode unit that is provided in the periphery of said rotary atomizing head; and - a high-voltage applying unit that applies a high voltage to said external electrode unit to indirectly charge paint particles atomized from said rotary atomizing head with the high voltage, - a film cover (17, 44) provided to be formed with a resin material in a film shape for covering an outer peripheral side of said motor; characterized in that - said film cover (17, 44) includes a cylindrical rear cover (18, 45) that covers the rear side from said external electrode unit and a cylindrical front cover (19, 49) that is mounted to the front side of said rear cover (18, 45) to cover the front side from said external electrode unit, - either one of a flange part and a combining groove part as a rear combining part (18C, 45C) is provided on the front side opening end of said rear cover (18, 45), and another one of said flange part and said combining groove part as a front combining part (19C, 49C) is provided on the rear side opening end of said front cover (19, 49), - wherein said film cover (17, 44) is formed to be integrated by attaching said rear combining part (18C, 45C) of said rear cover (18, 45) to said front combining part (19C, 49C) of said front cover (19, 49). - a motor; - a rotary atomizing head that is provided on the front side of said motor to be rotatable by said motor; - an external electrode unit that is provided in the periphery of said rotary atomizing head; and - a high-voltage applying unit that applies a high voltage to said external electrode unit to indirectly charge paint particles atomized from said rotary atomizing head with the high voltage, - a film cover (17, 44) provided to be formed with a resin material in a film shape for covering an outer peripheral side of said motor; characterized in that - said film cover (17, 44) includes a cylindrical rear cover (18, 45) that covers the rear side from said external electrode unit and a cylindrical front cover (19, 49) that is mounted to the front side of said rear cover (18, 45) to cover the front side from said external electrode unit, - either one of a flange part and a combining groove part as a rear combining part (18C, 45C) is provided on the front side opening end of said rear cover (18, 45), and another one of said flange part and said combining groove part as a front combining part (19C, 49C) is provided on the rear side opening end of said front cover (19, 49), - wherein said film cover (17, 44) is formed to be integrated by attaching said rear combining part (18C, 45C) of said rear cover (18, 45) to said front combining part (19C, 49C) of said front cover (19, 49).
A dual protection inner seal washer comprising: a radially outward metallic portion having an outer diameter and an inner diameter and a dielectric coating; a radially inward polymeric portion having an inner diameter and an outer diameter and engaging the metallic portion at an interface with an interference fit, wherein the inner diameter of the metallic portion surrounds the radially inward polymeric portion; said polymeric portion having at least one tapering compression surface (24, 30) to engage a surface of a structure proximate a hole and having a fastener element contact surface (26, 56) to engage a mating surface on a fastener system element (82, 78), wherein torqueing of the fastener system element compresses the at least one tapering compression surface inducing a predetermined pressure in the radially inward polymeric portion in a joint created by the fastener system element and structure. a radially outward metallic portion having an outer diameter and an inner diameter and a dielectric coating; a radially inward polymeric portion having an inner diameter and an outer diameter and engaging the metallic portion at an interface with an interference fit, wherein the inner diameter of the metallic portion surrounds the radially inward polymeric portion; said polymeric portion having at least one tapering compression surface (24, 30) to engage a surface of a structure proximate a hole and having a fastener element contact surface (26, 56) to engage a mating surface on a fastener system element (82, 78), wherein torqueing of the fastener system element compresses the at least one tapering compression surface inducing a predetermined pressure in the radially inward polymeric portion in a joint created by the fastener system element and structure.
Method for controlling emission of an electric power plant provided with a gas turbine and a compressor comprising the steps of: - determining an inlet air flow rate (Q AIR) at the inlet of the compressor; - determining an enrichment fluid flow rate (Q ENR) to be added to the inlet air flow rate (Q AIR) to reduce polluting emission; and - adding the enrichment fluid flow rate (Q ENR) calculated to the inlet air flow rate (Q AIR); the method being characterized in that the step of determining the enrichment fluid flow rate (Q ENR) comprises: - detecting a parameter indicative of a thermal capacity (C TERM) of the gas at the outlet of the gas turbine; - calculating the enrichment fluid flow rate (Q ENR), on the basis of the inlet air flow rate (Q AIR) and of a difference (E CTERM) between the detected parameter indicative of a thermal capacity (C TEFM) and a reference value (C TERM_SETPOINT). - determining an inlet air flow rate (Q AIR) at the inlet of the compressor; - determining an enrichment fluid flow rate (Q ENR) to be added to the inlet air flow rate (Q AIR) to reduce polluting emission; and - adding the enrichment fluid flow rate (Q ENR) calculated to the inlet air flow rate (Q AIR); the method being characterized in that the step of determining the enrichment fluid flow rate (Q ENR) comprises: - detecting a parameter indicative of a thermal capacity (C TERM) of the gas at the outlet of the gas turbine; - calculating the enrichment fluid flow rate (Q ENR), on the basis of the inlet air flow rate (Q AIR) and of a difference (E CTERM) between the detected parameter indicative of a thermal capacity (C TEFM) and a reference value (C TERM_SETPOINT).
A stent graft (10, 40) comprising a cylinder comprising a graft material in the form of a film, and a stent that supports the cylinder, wherein: the stent graft (10, 40) is inserted within a region from ascending aorta to sinus of Valsalva; and the stent graft (10, 40) comprises a cylindrical body section arranged in the ascending aorta, and a sinus of Valsalva section arranged in the sinus of Valsalva and having an inner diameter larger than that of the body section, characterized in that a roentgen marker, arranged at a boundary between the body section and the sinus of Valsalva section, is formed in the stent. the stent graft (10, 40) is inserted within a region from ascending aorta to sinus of Valsalva; and the stent graft (10, 40) comprises a cylindrical body section arranged in the ascending aorta, and a sinus of Valsalva section arranged in the sinus of Valsalva and having an inner diameter larger than that of the body section, characterized in that a roentgen marker, arranged at a boundary between the body section and the sinus of Valsalva section, is formed in the stent.
A curable silicone composition, comprising: a fluorine-containing organopolysiloxane mixture obtained by mixing the following components and at a mass ratio of 1/99 to 99/1; a fluoro(poly)ether modified organopolysiloxane having at least two alkenyl groups per molecule along with a fluoro(poly)ether-containing organic group; a fluoroalkyl group-containing organopolysiloxane having at least two alkenyl groups per molecule along with a fluoroalkyl group represented by C 4 F 9 -CH 2 CH 2 -; an organopolysiloxane having at least three silicon atom-bonded hydrogen atoms per molecule; a hydrosilylation reaction catalyst; and an organic solvent. a fluorine-containing organopolysiloxane mixture obtained by mixing the following components and at a mass ratio of 1/99 to 99/1; a fluoro(poly)ether modified organopolysiloxane having at least two alkenyl groups per molecule along with a fluoro(poly)ether-containing organic group; a fluoroalkyl group-containing organopolysiloxane having at least two alkenyl groups per molecule along with a fluoroalkyl group represented by C 4 F 9 -CH 2 CH 2 -; a fluoro(poly)ether modified organopolysiloxane having at least two alkenyl groups per molecule along with a fluoro(poly)ether-containing organic group; a fluoroalkyl group-containing organopolysiloxane having at least two alkenyl groups per molecule along with a fluoroalkyl group represented by C 4 F 9 -CH 2 CH 2 -; an organopolysiloxane having at least three silicon atom-bonded hydrogen atoms per molecule; a hydrosilylation reaction catalyst; and an organic solvent.