mhurhangee/ep-ind-claims huggingface dataset:
A three-phase buried high-voltage electrical line, comprising three-phase conductor cables, each of said conductor cables being made up of a series of cable portions (3, 3a, 3b) coupled to one another by different types of screen-break junctions, each junction including a standard main structure coupling a first portion to a second cable portion, characterized in that the standard main structure has a standard connection interface electrically coupled to a first screen break of the first portion and a second screen break of the second portion, and in that each junction comprises a variable and removable module (6, 6a, 6b, 6c), including a first end provided with a standard complementary connection interface able to plug into the standard connection interface of the main structure of each junction, and comprising a second variable end from which at least one connecting cable (9, 11, 14, 15) emerges, so as to place said at least one connecting cable (9, 11, 14, 15) in contact with said first screen-break and with said second screen, two different modules being differentiated from one another in terms of the number and nature of said at least one connecting cable (9, 11, 14, 15) and two different junctions being distinguished from one another in terms of said variable module (6, 6a, 6b, 6c).
A free-cutting and non-quenched and tempered steel, comprising the following chemical elements by mass percentages: C: 0.35-0.45%, Si: 0.45-0.65%, Mn: 1.35-1.65%, S: 0.025-0.065%, V: 0.07-0.15%, Ti: 0.01-0.018%, N: 0.012-0.017%, Al: 0.015-0.035%, Ca: 0.0008-0.0025%, with the balance being iron and other unavoidable impurities; wherein the S and Ca elements satisfy the relationship of S/Ca=20-60; wherein the steel has a microstructure of ferrite + pearlite; wherein the steel has elongated MnS inclusions; and wherein the steel has a tensile strength (Rm) of 900 MPa or more, a yield strength (RP0.2) of 550 MPa or more, an elongation rate of 18% or more, a reduction of area of 40% or more, and an impact energy (AKv) of 30 J or more. C: 0.35-0.45%, Si: 0.45-0.65%, Mn: 1.35-1.65%, S: 0.025-0.065%, V: 0.07-0.15%, Ti: 0.01-0.018%, N: 0.012-0.017%, Al: 0.015-0.035%, Ca: 0.0008-0.0025%, with the balance being iron and other unavoidable impurities; wherein the S and Ca elements satisfy the relationship of S/Ca=20-60; wherein the steel has a microstructure of ferrite + pearlite; wherein the steel has elongated MnS inclusions; and wherein the steel has a tensile strength (Rm) of 900 MPa or more, a yield strength (RP0.2) of 550 MPa or more, an elongation rate of 18% or more, a reduction of area of 40% or more, and an impact energy (AKv) of 30 J or more.
A system for inductive resonant sensing, comprising a sensor resonator including a sense inductor (12L, 112L) and a resonator capacitor (12C, 112C); a shielded transmission line with a signal line conductor and a shield return line conductor, the shielded transmission line having a sensing end and a terminal end, the sense inductor connected at the sensing end between the signal line conductor and the shield return line conductor, and the resonator capacitor connected at the terminal end to at least the signal line conductor; an inductance-to-data converter, i.e. IDC, including first and second terminals connected at the terminal end of the shielded transmission line respectively to the signal line conductor and the shield return line conductor, the IDC comprising: an operational transconductance amplifier comprising an output coupled to the first terminal, a non-inverting input coupled to the first terminal to provide a positive feedback path from the sensor resonator, and an inverting input coupled to the second terminal, and to a voltage reference; a low pass filter included in the positive feedback path to filter a second resonance frequency mode of the sensor resonator. a sensor resonator including a sense inductor (12L, 112L) and a resonator capacitor (12C, 112C); a shielded transmission line with a signal line conductor and a shield return line conductor, the shielded transmission line having a sensing end and a terminal end, the sense inductor connected at the sensing end between the signal line conductor and the shield return line conductor, and the resonator capacitor connected at the terminal end to at least the signal line conductor; the sense inductor connected at the sensing end between the signal line conductor and the shield return line conductor, and the resonator capacitor connected at the terminal end to at least the signal line conductor; an inductance-to-data converter, i.e. IDC, including first and second terminals connected at the terminal end of the shielded transmission line respectively to the signal line conductor and the shield return line conductor, the IDC comprising: an operational transconductance amplifier comprising an output coupled to the first terminal, a non-inverting input coupled to the first terminal to provide a positive feedback path from the sensor resonator, and an inverting input coupled to the second terminal, and to a voltage reference; a low pass filter included in the positive feedback path to filter a second resonance frequency mode of the sensor resonator.
A method comprising: receiving by a hearing prosthesis via a microphone, from a device external to the hearing prosthesis, audio content being output by the device external to the hearing prosthesis; receiving by the hearing prosthesis, from the device external to the hearing prosthesis, a control signal that indicates at least one characteristic of the audio content being output by the device external to the hearing prosthesis; and responsive to receipt of the control signal, the hearing prosthesis automatically configuring a sound processor of the hearing prosthesis in a manner based at least in part on the control signal indicating the at least one characteristic of the audio content being output by the device external to the hearing prosthesis, wherein the at least one characteristic of the audio content comprises information about the audio content containing latency-sensitive audio, and wherein the hearing-prosthesis responsively sets its sound processor to reduce its rate of digitally sampling the audio input, and/or the hearing prosthesis sets its sound processor to eliminate or bypass one or more frequency filters, which typically require data buffering. receiving by a hearing prosthesis via a microphone, from a device external to the hearing prosthesis, audio content being output by the device external to the hearing prosthesis; receiving by the hearing prosthesis, from the device external to the hearing prosthesis, a control signal that indicates at least one characteristic of the audio content being output by the device external to the hearing prosthesis; and responsive to receipt of the control signal, the hearing prosthesis automatically configuring a sound processor of the hearing prosthesis in a manner based at least in part on the control signal indicating the at least one characteristic of the audio content being output by the device external to the hearing prosthesis, wherein the at least one characteristic of the audio content comprises information about the audio content containing latency-sensitive audio, and wherein the hearing-prosthesis responsively sets its sound processor to reduce its rate of digitally sampling the audio input, and/or the hearing prosthesis sets its sound processor to eliminate or bypass one or more frequency filters, which typically require data buffering.
A fuel injector, comprising: a member including a sidewall that defines a flowpath through which a first fluid flows, the flowpath having a cross-section with transverse elongate and short axes; a head connected to the member proximate to an inlet of the flowpath, the head defining a plenum storing a supply of a second fluid; and an injection system disposed at or proximate the inlet of the flowpath and fluidly coupled to the flowpath and the plenum, the injection system configured to inject jets of the second fluid from the plenum into the flowpath through at least first and second through-holes (830, 831) positioned along the elongate axis of the member, wherein the shape and size of the injection holes (841, 842) are selected so as to produce jets of the second fluid having a predetermined size, pressure, reach and overall shape; wherein the width of the short axis of the member is selected such that in use the jets remain spaced from a sidewall of the member, characterised in that the member has an evolving shape along a longitudinal axis thereof. a member including a sidewall that defines a flowpath through which a first fluid flows, the flowpath having a cross-section with transverse elongate and short axes; a head connected to the member proximate to an inlet of the flowpath, the head defining a plenum storing a supply of a second fluid; and an injection system disposed at or proximate the inlet of the flowpath and fluidly coupled to the flowpath and the plenum, the injection system configured to inject jets of the second fluid from the plenum into the flowpath through at least first and second through-holes (830, 831) positioned along the elongate axis of the member, wherein the shape and size of the injection holes (841, 842) are selected so as to produce jets of the second fluid having a predetermined size, pressure, reach and overall shape; wherein the width of the short axis of the member is selected such that in use the jets remain spaced from a sidewall of the member, characterised in that the member has an evolving shape along a longitudinal axis thereof.
A composition comprising a compound of Formula: wherein either D 1 or D 2 or both D 1 and D 2 are deuterium ( 2 H); wherein R 1 is H or a blocking group; wherein R 2 is an amino acid or a peptide or a protein or part of a protein, or a aliphatic or aromatic or substituted aliphatic or substituted aromatic acyl group; or a compound of Formula or: wherein D is deuterium; and wherein a carbon in Formula,, or is optionally carbon-13; wherein the carbon-13, deuterium or both are enriched at least 20% more individually or collectively in comparison to naturally occurring carbon-13, deuterium or both at the same positions in the compound, for use in inhibiting angiogenesis or fibrotic disease. wherein either D 1 or D 2 or both D 1 and D 2 are deuterium ( 2 H); wherein R 1 is H or a blocking group; wherein R 2 is an amino acid or a peptide or a protein or part of a protein, or a aliphatic or aromatic or substituted aliphatic or substituted aromatic acyl group; or a compound of Formula or: wherein D is deuterium; and wherein a carbon in Formula,, or is optionally carbon-13; wherein the carbon-13, deuterium or both are enriched at least 20% more individually or collectively in comparison to naturally occurring carbon-13, deuterium or both at the same positions in the compound, for use in inhibiting angiogenesis or fibrotic disease. wherein D is deuterium; and wherein a carbon in Formula,, or is optionally carbon-13; wherein the carbon-13, deuterium or both are enriched at least 20% more individually or collectively in comparison to naturally occurring carbon-13, deuterium or both at the same positions in the compound, for use in inhibiting angiogenesis or fibrotic disease.
A light emitting device, comprising: a first metal member (13; 23), a light emitting element mounted at one end of the first metal member (13; 23), and a translucent covering material that covers at least the light emitting element, wherein the first metal member (13; 23) has a concave portion (13a; 23a) at the one end, a plane face (13b; 23b) surrounding the outer periphery of the concave portion (13a; 23a), and at least one depression (16; 26; 36; 46; 56; 66; 76; 86; 96) formed in the plane face (13b; 23b), the inner wall defining the depression (16; 26; 36; 46; 56; 66; 76; 86; 96) being continuous; wherein the light emitting element is mounted in the concave portion (13a; 23a), and wherein the translucent covering material is disposed in the entire concave portion (13a; 23a) and over a region of the plane face (13b; 23b), the depression (16; 26; 36; 46; 56; 66; 76; 86; 96) determining the region where the translucent covering material is formed on the plane face, characterised in that the depression (16; 26; 36; 46; 56; 66; 76; 86; 96) is disposed so as to surround only part of the outer periphery of the concave portion (13a; 23a). a first metal member (13; 23), a light emitting element mounted at one end of the first metal member (13; 23), and a translucent covering material that covers at least the light emitting element, wherein the first metal member (13; 23) has a concave portion (13a; 23a) at the one end, a plane face (13b; 23b) surrounding the outer periphery of the concave portion (13a; 23a), and at least one depression (16; 26; 36; 46; 56; 66; 76; 86; 96) formed in the plane face (13b; 23b), the inner wall defining the depression (16; 26; 36; 46; 56; 66; 76; 86; 96) being continuous; wherein the light emitting element is mounted in the concave portion (13a; 23a), and wherein the translucent covering material is disposed in the entire concave portion (13a; 23a) and over a region of the plane face (13b; 23b), the depression (16; 26; 36; 46; 56; 66; 76; 86; 96) determining the region where the translucent covering material is formed on the plane face, characterised in that the depression (16; 26; 36; 46; 56; 66; 76; 86; 96) is disposed so as to surround only part of the outer periphery of the concave portion (13a; 23a).
A superconducting accelerator cavity comprising: a beam pipe that is formed of a superconducting material in a tube shape with openings at both ends; an end cell that is formed of a superconducting material in a shape of a ring so as to form a superconducting accelerator cavity portion, and that is joined, at an iris portion thereof, to an inner circumferential portion at one end of said beam pipe by welding; characterised in that said superconducting accelerator cavity further comprises and end plate and a container wherein the end plate is formed in a shape of a ring so as to form an end of said container, which is configured to accommodate a coolant and formed so as to surround said superconducting accelerator cavity portion; wherein said end plate is joined, at an inner circumferential surface thereof, to an outer circumferential portion at one end of said beam pipe by welding. a beam pipe that is formed of a superconducting material in a tube shape with openings at both ends; an end cell that is formed of a superconducting material in a shape of a ring so as to form a superconducting accelerator cavity portion, and that is joined, at an iris portion thereof, to an inner circumferential portion at one end of said beam pipe by welding; characterised in that said superconducting accelerator cavity further comprises and end plate and a container wherein the end plate is formed in a shape of a ring so as to form an end of said container, which is configured to accommodate a coolant and formed so as to surround said superconducting accelerator cavity portion; wherein said end plate is joined, at an inner circumferential surface thereof, to an outer circumferential portion at one end of said beam pipe by welding.
A hair transplant device (10; 304; 610; 709, 712; 802; 902; 1002; 1300) comprising: a coring needle (30; 406; 1430; 1530) forming a coring lumen configured to extract a hair follicle from a donor site, the coring needle including a flange; a splitting needle configured to create an opening (204, 206) in a recipient site; a housing (12; 1302) at least partially surrounding one of the coring needle and the splitting needle; and a user interface (18; 404; 1308) extending from the housing and movable relative to the coring needle to push the hair follicle from the coring lumen into the opening in the recipient site formed by the splitting needle; wherein the coring needle (30; 406; 1430; 1530) and the splitting needle are coaxially disposed within the housing (12; 1302), and are movable relative to the housing, such that the coring needle (30; 406; 1430; 1530) and the splitting needle can be selectively and individually deployed, and wherein the user interface is movable between a retracted position and an inserted position, and a distal tip of the user interface is prevented from extending distally past the coring needle via a head of the user interface contacting the flange, the head opposite the distal tip of the user interface. a coring needle (30; 406; 1430; 1530) forming a coring lumen configured to extract a hair follicle from a donor site, the coring needle including a flange; a splitting needle configured to create an opening (204, 206) in a recipient site; a housing (12; 1302) at least partially surrounding one of the coring needle and the splitting needle; and a user interface (18; 404; 1308) extending from the housing and movable relative to the coring needle to push the hair follicle from the coring lumen into the opening in the recipient site formed by the splitting needle; wherein the coring needle (30; 406; 1430; 1530) and the splitting needle are coaxially disposed within the housing (12; 1302), and are movable relative to the housing, such that the coring needle (30; 406; 1430; 1530) and the splitting needle can be selectively and individually deployed, and wherein the user interface is movable between a retracted position and an inserted position, and a distal tip of the user interface is prevented from extending distally past the coring needle via a head of the user interface contacting the flange, the head opposite the distal tip of the user interface.
A curable composition comprising: a silicon compound comprising a hydrogen atom binding to a silicon atom; and a polymerization product comprising (i) a linear structure polyorganosiloxane comprising an aliphatic unsaturated bond, a unit of formula R 1 R 2 SiO 2/2 (Formula 2) and a unit of formula R 3 2 SiO 2/2 (Formula 3) wherein R 1 and R 2 are each independently an epoxy group or a monovalent hydrocarbon group, and R 3 is an aryl group; and (ii) a cyclic compound which comprises a compound represented by Formula 6 whose weight average molecular weight is 800 or less measured by gel permeation chromatography with respect to standard polystyrene, the cyclic compound being comprised in the polymerization product in an amount of 7 weight% or less; wherein R a and R b are each independently an epoxy group or a monovalent hydrocarbon group, R c is an aryl group, m is 0 to 10, n is 0 to 10, and the sum (m+n) of m and n is 2 to 20. a silicon compound comprising a hydrogen atom binding to a silicon atom; and a polymerization product comprising (i) a linear structure polyorganosiloxane comprising an aliphatic unsaturated bond, a unit of formula R 1 R 2 SiO 2/2 (Formula 2) and a unit of formula R 3 2 SiO 2/2 (Formula 3) wherein R 1 and R 2 are each independently an epoxy group or a monovalent hydrocarbon group, and R 3 is an aryl group; and (ii) a cyclic compound which comprises a compound represented by Formula 6 whose weight average molecular weight is 800 or less measured by gel permeation chromatography with respect to standard polystyrene, the cyclic compound being comprised in the polymerization product in an amount of 7 weight% or less; wherein R a and R b are each independently an epoxy group or a monovalent hydrocarbon group, R c is an aryl group, m is 0 to 10, n is 0 to 10, and the sum (m+n) of m and n is 2 to 20.
A cleaning robot comprising: a light emitter configured to radiate light, characterised in that the cleaning robot comprises further a plurality of light receivers configured to receive a radiation of the light in a predetermined direction among radiations of the light reflected from an obstacle when the radiated light is reflected from the obstacle; a support plate to which the light emitter and the light receivers are fixed and which is rotatably provided; and a controller configured to detect the obstacle on the basis of output signals transmitted from the light emitter and the plurality of light receivers and rotation information of the support plate. a light emitter configured to radiate light, characterised in that the cleaning robot comprises further a plurality of light receivers configured to receive a radiation of the light in a predetermined direction among radiations of the light reflected from an obstacle when the radiated light is reflected from the obstacle; a support plate to which the light emitter and the light receivers are fixed and which is rotatably provided; and a controller configured to detect the obstacle on the basis of output signals transmitted from the light emitter and the plurality of light receivers and rotation information of the support plate.
A printing system comprising an ink and a printing apparatus configured to print on a medium by inkjet, comprising: an inkjet head, configured to eject the ink to the medium; and an energy ray emitting unit, configured to emit energy rays to the ink adhered to the medium to cause the ink to generate heat to evaporate at least part of the solvent in the ink, wherein the ink ejected by the inkjet head includes a polymerizing substance that polymerizes when irradiated with the energy rays, and a solvent, the ink on the medium is in a state in which planarization of the ink progresses with lapse of time at a time point after 100 ms has elapsed since the energy ray emitting unit emitted the energy rays, characterized in that: the polymerizing substance polymerizes over a certain period of time after an emission of energy rays and the ink on the medium maintains a soft state with low viscosity within a delay time until curing of the ink progresses, and when a time taken for the viscosity of the ink to become 200 mPa·s or more from when the emission of energy rays to the ink is started is defined as a viscosity-increasing required time, the viscosity-increasing required time is 100 ms or more. an inkjet head, configured to eject the ink to the medium; and an energy ray emitting unit, configured to emit energy rays to the ink adhered to the medium to cause the ink to generate heat to evaporate at least part of the solvent in the ink, wherein the ink ejected by the inkjet head includes a polymerizing substance that polymerizes when irradiated with the energy rays, and a solvent, the ink on the medium is in a state in which planarization of the ink progresses with lapse of time at a time point after 100 ms has elapsed since the energy ray emitting unit emitted the energy rays, characterized in that: the polymerizing substance polymerizes over a certain period of time after an emission of energy rays and the ink on the medium maintains a soft state with low viscosity within a delay time until curing of the ink progresses, and when a time taken for the viscosity of the ink to become 200 mPa·s or more from when the emission of energy rays to the ink is started is defined as a viscosity-increasing required time, the viscosity-increasing required time is 100 ms or more.