mhurhangee/ep-ind-claims huggingface dataset:
A branching circuit body (100, 100A, 100B, 100C) comprising: a first electric wire; a first shield tube that covers the first electric wire; a second electric wire electrically connected to the first electric wire and inserted through an opening formed in the first shield tube; a second shield tube that covers the second electric wire and has an end portion inserted into the opening; and a joining unit for joining the second shield tube to the first shield tube, wherein the second electric wire is a branching line branched from the first electric wire. a first electric wire; a first shield tube that covers the first electric wire; a second electric wire electrically connected to the first electric wire and inserted through an opening formed in the first shield tube; a second shield tube that covers the second electric wire and has an end portion inserted into the opening; and a joining unit for joining the second shield tube to the first shield tube,
A method of manufacturing an ophthalmic lens, the method including the steps: (a) selecting a target value for an optical power for the ophthalmic lens; (b) forming a first mold member for cast-molding the ophthalmic lens in combination with a second mold member; (c) measuring a property of the first mold member, the measured property correlating with the optical power of the ophthalmic lens; wherein the property of the first mold member is measured by transmitting light through the first mold member; wherein the method further comprises: a calibration step, in which the optical power of the ophthalmic lens is measured for a selection of values of the measured property of the first mold member to provide a correspondence record and the correspondence record is used subsequently to determine whether the measured property of the first mold member is consistent with the target value of the optical power of the ophthalmic lens; and if the measured property of the first mold member is consistent with said target value of the optical power, continuing with the manufacture of the ophthalmic lens, and otherwise discarding the first mold member. (a) selecting a target value for an optical power for the ophthalmic lens; (b) forming a first mold member for cast-molding the ophthalmic lens in combination with a second mold member; (c) measuring a property of the first mold member, the measured property correlating with the optical power of the ophthalmic lens; wherein the property of the first mold member is measured by transmitting light through the first mold member; wherein the method further comprises: a calibration step, in which the optical power of the ophthalmic lens is measured for a selection of values of the measured property of the first mold member to provide a correspondence record and the correspondence record is used subsequently to determine whether the measured property of the first mold member is consistent with the target value of the optical power of the ophthalmic lens; and if the measured property of the first mold member is consistent with said target value of the optical power, continuing with the manufacture of the ophthalmic lens, and otherwise discarding the first mold member. a calibration step, in which the optical power of the ophthalmic lens is measured for a selection of values of the measured property of the first mold member to provide a correspondence record and the correspondence record is used subsequently to determine whether the measured property of the first mold member is consistent with the target value of the optical power of the ophthalmic lens; and if the measured property of the first mold member is consistent with said target value of the optical power, continuing with the manufacture of the ophthalmic lens, and otherwise discarding the first mold member.
A method for the production of an electroluminescent textile comprising the following steps: a) providing a textile substrate; b) optionally applying a protective layer on a first surface of the textile substrate; c) applying a first transparent conductive layer on the first surface of the textile substrate or the protective layer; d) applying at least one light emitting layer on the transparent conductive layer; e) applying at least one dielectric layer on the light emitting layer; f) applying at least a second conductive layer on the dielectric layer; g) optionally attaching connection elements to the conductive layers; h) applying a top layer on the electroluminescent layer arrangement; and i) electrically connecting the first transparent conductive layer and the second conductive layer to an electric power supply, wherein the electroluminescent layer arrangement is applied to the reverse side of the textile and the luminous path passes through the textile, and characterized in that a conductive bar is applied on the first transparent conductive layer, the conductive bar extending around the dielectric layer, wherein the conductive bar is made of the material of the second conductive layer. a) providing a textile substrate; b) optionally applying a protective layer on a first surface of the textile substrate; c) applying a first transparent conductive layer on the first surface of the textile substrate or the protective layer; d) applying at least one light emitting layer on the transparent conductive layer; e) applying at least one dielectric layer on the light emitting layer; f) applying at least a second conductive layer on the dielectric layer; g) optionally attaching connection elements to the conductive layers; h) applying a top layer on the electroluminescent layer arrangement; and i) electrically connecting the first transparent conductive layer and the second conductive layer to an electric power supply,
A method for making a multilayer fabric wherein the method comprises: - using metallized yarns comprising, - at least one ribbon which is less than 0.7 mm thick, - said ribbon being preferably spiral-wound with at least one supporting thread, - using non-metallized main yarns, - making at least one warp beam comprising said metallized yarns and said main yarns, said warp beam having a linear thread density preferably greater than 40 threads/cm, - a step of weaving, wherein a multilayer fabric is made by means of said warp beam with said metallized yarns arranged exclusively on the warp. - using metallized yarns comprising, - at least one ribbon which is less than 0.7 mm thick, - said ribbon being preferably spiral-wound with at least one supporting thread, - at least one ribbon which is less than 0.7 mm thick, - said ribbon being preferably spiral-wound with at least one supporting thread, - using non-metallized main yarns, - making at least one warp beam comprising said metallized yarns and said main yarns, said warp beam having a linear thread density preferably greater than 40 threads/cm, - a step of weaving, wherein a multilayer fabric is made by means of said warp beam with said metallized yarns arranged exclusively on the warp.
RF transmission device including at least: - a substrate comprising first and second faces (104, 106) opposite to each other; - a first RF transmission electronic circuit (108, 108a) arranged on and/or in the substrate; - a first antenna arranged on the side of the first face of the substrate, spaced apart from the first face of the substrate and electrically connected to the first RF transmission electronic circuit (108, 108a); - a first electromagnetic wave reflector coupled to the first antenna and including at least: - a first high impedance surface comprising at least several first electrically conducting elements (118, 118a) forming a first periodic structure and arranged on the first face of the substrate opposite the first antenna; - a first electrically conducting ground plane (116, 116a) arranged at least partially opposite the first antenna. - a substrate comprising first and second faces (104, 106) opposite to each other; - a first RF transmission electronic circuit (108, 108a) arranged on and/or in the substrate; - a first antenna arranged on the side of the first face of the substrate, spaced apart from the first face of the substrate and electrically connected to the first RF transmission electronic circuit (108, 108a); - a first electromagnetic wave reflector coupled to the first antenna and including at least: - a first high impedance surface comprising at least several first electrically conducting elements (118, 118a) forming a first periodic structure and arranged on the first face of the substrate opposite the first antenna; - a first electrically conducting ground plane (116, 116a) arranged at least partially opposite the first antenna. - a first high impedance surface comprising at least several first electrically conducting elements (118, 118a) forming a first periodic structure and arranged on the first face of the substrate opposite the first antenna; - a first electrically conducting ground plane (116, 116a) arranged at least partially opposite the first antenna.
A particulate composition for rapid disintegrating tablets in oral cavity comprising mannitol, xylitol, an inorganic excipient and a disintegrating agent, wherein mannitol and xylitol form complex particles and the inorganic excipient and the disintegrating agent are dispersed in the complex particles, wherein components (a) and (c) are contained in such manner that (a) saccharides consisting of a combination of mannitol and xylitol are 40 to 90 parts by weight, and the ratio by weight of mannitol to xylitol is (98 to 67):(2 to 33); (b) the inorganic excipient is 1 to 30 parts by weight; and (c) the disintegrating agent is 5 to 40 parts by weight, provided that the total amount of (a), (b) and (c) is 100 parts by weight. (a) saccharides consisting of a combination of mannitol and xylitol are 40 to 90 parts by weight, and the ratio by weight of mannitol to xylitol is (98 to 67):(2 to 33); (b) the inorganic excipient is 1 to 30 parts by weight; and (c) the disintegrating agent is 5 to 40 parts by weight,
A forklift truck comprising a truck body, a drive wheel, first forks, second forks, or support arms, and a hydraulic system (100, 101) which comprises - a first hydraulic line for delivering hydraulic fluid to an hydraulic actuator of the first forks, - a second hydraulic line for delivering hydraulic fluid to an hydraulic actuator of the second forks or to the support arms, - a third hydraulic line for delivering hydraulic fluid to an hydraulic actuator of the drive wheel, and - a valve device to which the first, second and third hydraulic lines (D2, D3, D6,) are connected, the valve device (110,) being adapted to supply the highest one of the hydraulic fluid pressures (PU, PL) of the first and the second hydraulic lines (D2, D3) to the third hydraulic line, thereby assuring a load-dependent drive wheel pressure during operation of the forklift truck, characterized in that the forklift truck hydraulic system comprises - at least one flow restriction (130, 120) arranged to restrict hydraulic fluid flow between the hydraulic actuator of the first forks or between the hydraulic actuator of the second forks, or of the support arms, and the valve device. - a first hydraulic line for delivering hydraulic fluid to an hydraulic actuator of the first forks, - a second hydraulic line for delivering hydraulic fluid to an hydraulic actuator of the second forks or to the support arms, - a third hydraulic line for delivering hydraulic fluid to an hydraulic actuator of the drive wheel, and - a valve device to which the first, second and third hydraulic lines (D2, D3, D6,) are connected, the valve device (110,) being adapted to supply the highest one of the hydraulic fluid pressures (PU, PL) of the first and the second hydraulic lines (D2, D3) to the third hydraulic line, thereby assuring a load-dependent drive wheel pressure during operation of the forklift truck, characterized in that the forklift truck hydraulic system comprises - at least one flow restriction (130, 120) arranged to restrict hydraulic fluid flow between the hydraulic actuator of the first forks or between the hydraulic actuator of the second forks, or of the support arms, and the valve device.
A clock with a time marker that can be displaced along a selectable period of time, comprising one or several rollers (2, 4) which can be fastened on a wall, a towing means, closed to a loop and guided over the one or several rollers (2, 4) along the period of time, like for instance cord, tape, chain, toothed belt or the like, on which the time marker is arranged in a certain position, a drive motor, which drives at least one roller, a sensor, which detects the time marker when it is in its detection zone and which can be fastened on the wall, so that the time marker passes through the detection zone of the sensor once at every tour of the towing means over the period of time, a control device, which is connected to the drive motor and the sensor, wherein the control device is designed such that in the operating mode, it controls the drive motor such that the time marker passes exactly once in a defined time span, wherein the one or several rollers (2, 4) can be fastened on the wall in an arbitrarily selectable arrangement, characterised in that in one measurement run, the control device controls the drive motor such that the time marker reaches the detection zone of the sensor at first, and then the towing means circulates completely once, until the time marker arrives anew in the detection zone of the sensor, the control device being adapted to calculate the length of the towing means from the revolution period of the time marker and the velocity or the number of the steps of the drive motor, and resultant from this to calculate the velocity of the drive motor which is necessary for the tour of the time marker in the defined span of time.
An implant for maintaining a space between a proximal end of a humerus and an inferior surface of a corresponding acromion, the implant comprising: an inflatable humeral balloon; and one or more fixation features (104, 106, 108) disposed on the inflatable humeral balloon, wherein: a first surface of the implant is configured to abut an inferior surface of an acromion in a patient; a second surface of the implant is configured to abut a humeral head of a humerus in a patient; and the implant is configured to maintain a desired subacromial separation of an acromion and a humerus, characterised in that the one or more fixation features comprise at least one acromion anchor (106, 108) disposed on the first surface and comprising an anchor hole insertion tip configured to facilitate insertion of the at least one acromion anchor into an anchor hole in a patient's acromion. an inflatable humeral balloon; and one or more fixation features (104, 106, 108) disposed on the inflatable humeral balloon, wherein: a first surface of the implant is configured to abut an inferior surface of an acromion in a patient; a second surface of the implant is configured to abut a humeral head of a humerus in a patient; and the implant is configured to maintain a desired subacromial separation of an acromion and a humerus, a first surface of the implant is configured to abut an inferior surface of an acromion in a patient; a second surface of the implant is configured to abut a humeral head of a humerus in a patient; and the implant is configured to maintain a desired subacromial separation of an acromion and a humerus, characterised in that the one or more fixation features comprise at least one acromion anchor (106, 108) disposed on the first surface and comprising an anchor hole insertion tip configured to facilitate insertion of the at least one acromion anchor into an anchor hole in a patient's acromion.
A tower section for a wind turbine having a longitudinal central axis extending along a longitudinal direction, the tower section comprising at least two tubular tower elements stacked along the longitudinal direction and arranged edge-to-edge at a joining plane, each tower element comprising at least two wall segments, connected to one another by first connectors extending along longitudinal edges of the wall segments, the tower section further comprising second connectors each extending astride the two adjacent tower elements along the longitudinal direction, characterized in that each second connector extends in the longitudinal extension of a first connector, the second connector having a width increasing, from said first connector, from a first width substantially equal to the width of the first connector to a second width strictly larger than the first width, the second width being reached before the joining plane starting from the first connector.
A macromolecular reaction product comprising (a) one or more i) heterocyclic compounds substituted with one 3,5-dihydrocarbyl-4-hydroxylbenzyl group; ii) heterocyclic compounds substituted with two 3,5-dihydrocarbyl-4-hydroxylbenzyl groups; iii) heterocyclic compounds substituted with three 3,5-dihydrocarbyl-4-hydroxylbenzyl groups; iv) heterocyclic compounds substituted with four 3,5-dihydrocarbyl-4-hydroxylbenzyl groups; or v) heterocyclic compounds substituted with five 3,5-dihydrocarbyl-4-hydroxylbenzyl groups; and (b) one or more methylene-bridged heterocyclic compounds substituted with one or more 3,5-di-hydrocarbyl-4-hydroxylbenzyl groups; wherein said heterocyclic compounds are selected from pyrrole, imidazole, pyrazole, pyridine, pyrimidine, pyrazine, thiophene, 2-benzothiophene, dithiine, benzodithiine, indole, quinoline, oxazole, isoxazole, thiazole, and isothiazole, furan, 2-benzofuran, 1,4-dioxin, or benzodioxin, optionally substituted by one or more hydroxyl, mercapto, alkoxy, amino, monoalkylamino, dialkylamino, and/or C 1-12 hydrocarbyl groups. (a) one or more i) heterocyclic compounds substituted with one 3,5-dihydrocarbyl-4-hydroxylbenzyl group; ii) heterocyclic compounds substituted with two 3,5-dihydrocarbyl-4-hydroxylbenzyl groups; iii) heterocyclic compounds substituted with three 3,5-dihydrocarbyl-4-hydroxylbenzyl groups; iv) heterocyclic compounds substituted with four 3,5-dihydrocarbyl-4-hydroxylbenzyl groups; or v) heterocyclic compounds substituted with five 3,5-dihydrocarbyl-4-hydroxylbenzyl groups; and i) heterocyclic compounds substituted with one 3,5-dihydrocarbyl-4-hydroxylbenzyl group; ii) heterocyclic compounds substituted with two 3,5-dihydrocarbyl-4-hydroxylbenzyl groups; iii) heterocyclic compounds substituted with three 3,5-dihydrocarbyl-4-hydroxylbenzyl groups; iv) heterocyclic compounds substituted with four 3,5-dihydrocarbyl-4-hydroxylbenzyl groups; or v) heterocyclic compounds substituted with five 3,5-dihydrocarbyl-4-hydroxylbenzyl groups; and (b) one or more methylene-bridged heterocyclic compounds substituted with one or more 3,5-di-hydrocarbyl-4-hydroxylbenzyl groups;
A steel consisting of: from 20.0 to 40.0 atomic % nickel, from 20.0 to 40.0 atomic % chromium, from 1.0 to 3.0 atomic % silicon, from 0.2 to 1.0 atomic % carbon, from 0.01 to 1.0 atomic % nitrogen from 0.30 to 0.90 atomic % niobium, from 0.5 to 3.0 atomic % manganese, and from 0.01 to 0.90 atomic % of one or more of: titanium, hafnium, zirconium, vanadium, tungsten, and molybdenum, wherein: (a) the total amount of niobium and one or more of a second carbide forming element selected from: titanium, hafnium, zirconium, vanadium, tungsten and molybdenum is from 0.50 to 0.91 atomic %, preferably 0.60 to 0.75; (b) the total amount of carbon plus nitrogen is in the range of 0.2 to 1.2 atomic %, preferably in the range 0.4 to 1.0 atomic %; (c) the amount (nitrogen / carbon) is in the range 0.60 to 0.90, and (d) the amount [nitrogen / (the second carbide forming element(s) plus niobium)] is in the range 0.2 to 1.1, preferably 0.4 to 1.0; with the balance of the composition being iron and incidental impurities. from 20.0 to 40.0 atomic % nickel, from 20.0 to 40.0 atomic % chromium, from 1.0 to 3.0 atomic % silicon, from 0.2 to 1.0 atomic % carbon, from 0.01 to 1.0 atomic % nitrogen from 0.30 to 0.90 atomic % niobium, from 0.5 to 3.0 atomic % manganese, and from 0.01 to 0.90 atomic % of one or more of: titanium, hafnium, zirconium, vanadium, tungsten, and molybdenum, (a) the total amount of niobium and one or more of a second carbide forming element selected from: titanium, hafnium, zirconium, vanadium, tungsten and molybdenum is from 0.50 to 0.91 atomic %, preferably 0.60 to 0.75; (b) the total amount of carbon plus nitrogen is in the range of 0.2 to 1.2 atomic %, preferably in the range 0.4 to 1.0 atomic %; (c) the amount (nitrogen / carbon) is in the range 0.60 to 0.90, and (d) the amount [nitrogen / (the second carbide forming element(s) plus niobium)] is in the range 0.2 to 1.1, preferably 0.4 to 1.0;
An isostatic breaking strength tester (1, 60) comprising: a tubular pressure container (10, 70) in which a part of a pillar-shaped ceramic honeycomb structure including lattice-shaped partition walls to define a plurality of cells extending from one end face to another end face and a circumferential wall is housed, the tubular pressure container (10, 70) having at least a part of both ends being opened (11a, 71a, 12a, 72c); a tubular pressurization elastic body disposed inside the pressure container (10, 70) so as to surround an entire circumference of a pressurized portion; a partial pressurization unit for elastically deforming the pressurization elastic body toward the circumferential wall and applying uniform pressure to the entire circumference of the circumferential wall of the pressurized portion of the ceramic honeycomb structure housed in the pressure container up to a pressure test strength; and a pressure measurement unit for measuring a value of the uniform pressure applied to the circumferential wall by the pressurization elastic body characterized by the tubular pressurization elastic body having a length equal to or less than 1/2 of a length in an axial direction of the circumferential wall of the ceramic honeycomb structure. a tubular pressure container (10, 70) in which a part of a pillar-shaped ceramic honeycomb structure including lattice-shaped partition walls to define a plurality of cells extending from one end face to another end face and a circumferential wall is housed, the tubular pressure container (10, 70) having at least a part of both ends being opened (11a, 71a, 12a, 72c); a tubular pressurization elastic body disposed inside the pressure container (10, 70) so as to surround an entire circumference of a pressurized portion; a partial pressurization unit for elastically deforming the pressurization elastic body toward the circumferential wall and applying uniform pressure to the entire circumference of the circumferential wall of the pressurized portion of the ceramic honeycomb structure housed in the pressure container up to a pressure test strength; and a pressure measurement unit for measuring a value of the uniform pressure applied to the circumferential wall by the pressurization elastic body characterized by the tubular pressurization elastic body having a length equal to or less than 1/2 of a length in an axial direction of the circumferential wall of the ceramic honeycomb structure.