mhurhangee/ep-ind-claims huggingface dataset:
An at least partially semi-open structure (20; 120; 220; 320; 420; 520; 620; 720) having adjoining, generally tubular open cells (21; 521, 521'; 621, 621'), and consisting of sheet material delimiting the tubular open cells, having a width, a length and a thickness, having multiple spaced corrugations (2, 3; 302; 303; 502, 503; 602, 603, 602', 603'; 702, 703) extending in generally parallel first directions (DL or DW) across at least parts of the sheet material, all of the tubular open cells of the structure being delimited by foldable sheet material of one integral sheet (1; 301; 501; 601; 701) folded onto or towards itself along folding lines (10, 11; 310, 311; 510, 511, 510', 511'; 610, 611; 710, 711) extending at predetermined positions in the sheet material and in second directions (DW or DL) being generally transversal to the corrugations and having=alternating sets (10, 11; 310, 311; 510, 511, 510', 511'; 610, 611; 710, 711) of mutually spaced slots (10A, 11A; 310A, 311A; 510A, 11A, 510A', 511A'; 610A, 611A; 710A, 711A) extending in the second, generally parallel directions (DW or DL) across the sheet (1; 301; 501; 601; 701); individual slots of every second set being displaced in the direction transversal to the corrugations in relation to the individual slots of the other set; and=folds in alternate opposite directions (FD1, FD2) along adjacent sets of slots defining the folding lines; characterized by folds of an angle other than 180', preferably between 0° and 135° so that the sheet (1; 301; 701) is folded towards itself along selected sets (10, 11; 310, 311; 710, 711) of slots (10A, 11A; 310A, 311A; 710A, 711A), and folds of approximately 180° so that the sheet (1; 301; 701) is folded onto itself at some or alternatively all of the other sets of slots, whereby the structure (120; 220; 320; 420; 720) is divided into panel areas (PA1-PA4; PA1, PA2, PA5; 731-733, 735-737) extended in multiple different planes (P1-P4; P1, P2, P5) and with cells directed generally normal to the respective plane of at least some of said areas.
A device for carrying out an eye treatment for preventing presbyopia and/or onset of glaucoma, characterized in that it comprises: means for generating a train of square-wave pulses or compensated biphasic square-wave pulses, with the width of each pulse comprised between 5-400 μs; means for stimulation of the ciliary body comprising a scleral contact lens containing at least two pairs of conductive electrodes configured to be positioned in direct contact with the area of the ciliary muscle for the entire time of stimulation and performing the stimulation by means of sequences of pulse trains of low voltage d.c. current on quadrants of the ciliary body, wherein said sequences are selected from the group of: parallel sequence providing opposed vertical and horizontal contractions, crossed sequence providing contractions according to opposed quadrants in alternate phases, and rotary sequence providing sequential stimulation of the four quadrants into which the ciliary muscle is divided, wherein each quadrant is stimulated, one after another according to a rotary scheme. means for generating a train of square-wave pulses or compensated biphasic square-wave pulses, with the width of each pulse comprised between 5-400 μs; means for stimulation of the ciliary body comprising a scleral contact lens containing at least two pairs of conductive electrodes configured to be positioned in direct contact with the area of the ciliary muscle for the entire time of stimulation and performing the stimulation by means of sequences of pulse trains of low voltage d.c. current on quadrants of the ciliary body, wherein said sequences are selected from the group of: parallel sequence providing opposed vertical and horizontal contractions, crossed sequence providing contractions according to opposed quadrants in alternate phases, and rotary sequence providing sequential stimulation of the four quadrants into which the ciliary muscle is divided, wherein each quadrant is stimulated, one after another according to a rotary scheme.
Improved glass-matrix composite material, in particular for forming linings of the internal walls of reactors used in the chemical and pharmaceutical industries, characterized by adding to the initial composition suitable for formation of the said glass matrix, said composition consisting of a flaky or granular glass frit and the usual additives for forming the conventional glass lining matrix, an effective amount of a secondary phase consisting of an oxide of tin (SnO 2), wherein said tin oxide is added in an amount of 7-12% by volume referred to the total amount of pure glass frit present in the initial composition.
System (100,200) for mounting at least one solar panel on a substantially flat mounting surface, comprising: - At least one base element (101, 201), preferably a substantially elongated base element, configured to be positioned upon a substantially flat mounting surface, - at least one support structure (102, 202) configured for supporting at least part of at least one solar panel, wherein the support structure (102, 202) is connected to the base element (101, 102), wherein the support structure comprises: ∘ at least two retaining elements (104, 204) positioned at a distance from another, wherein each retaining element (104, 204) is configured for retaining at least part of a first edge of a solar panel, and characterized by: - at least one clamping element (103, 203) configured for clampingly engaging at least part of a second edge the solar panel, wherein the base element (101, 201) and the clamping element (103, 203) are mutually displaceable and wherein the clamping element and the base element (101, 102) comprise complementary fastening members (105, 106, 217, 218) configured for fixating at least one mutual position of the base element (101, 201) and the clamping element (103, 203), wherein at least one support structure (102, 202) is pivotably connected to at least one base element (101, 102), such that the support structure (102, 202) and base element (101, 102) are mutually displaceable between at least a collapsed position and an upright position. - At least one base element (101, 201), preferably a substantially elongated base element, configured to be positioned upon a substantially flat mounting surface, - at least one support structure (102, 202) configured for supporting at least part of at least one solar panel, wherein the support structure (102, 202) is connected to the base element (101, 102), wherein the support structure comprises: ∘ at least two retaining elements (104, 204) positioned at a distance from another, wherein each retaining element (104, 204) is configured for retaining at least part of a first edge of a solar panel, and ∘ at least two retaining elements (104, 204) positioned at a distance from another, wherein each retaining element (104, 204) is configured for retaining at least part of a first edge of a solar panel, - at least one clamping element (103, 203) configured for clampingly engaging at least part of a second edge the solar panel,
Vacuum pump, particularly turbomolecular pump, comprising a rotor arranged in a pump housing and comprising a plurality of rotor disks, and a stator arranged in the pump housing, said stator comprising stator disks each arranged between adjacent rotor disks, and stator rings arranged between the stator disks, wherein, between two adjacent stator disks, a spring element is arranged which is operative to press apart the stator disks and the stator rings, characterized in that the spring element replaces a stator ring.
Rotating device for the reception of a plurality of machining and handling units, comprising at least one carrier body with a hollow shaft element mounted therein, which can be rotated about an axis of rotation or swivel, in which a rotary body for the reception of the machining and handling units is fixedly but detachably arranged at a free end, and an opposite, outwardly projecting section (4.2) of the hollow shaft element is received by a torque motor unit, which is designed to drive the hollow shaft element directly about the axis of rotation or swivel, and wherein the rotary body comprises a central opening (6.1) for the passage of at least one flexible energy and/or data line. a rotary body for the reception of the machining and handling units is fixedly but detachably arranged at a free end, and an opposite, outwardly projecting section (4.2) of the hollow shaft element is received by a torque motor unit, which is designed to drive the hollow shaft element directly about the axis of rotation or swivel, and wherein the rotary body comprises a central opening (6.1) for the passage of at least one flexible energy and/or data line.
A device for adjusting the length of a wristlet, characterized in that it comprises: - a cover; - an adjusting link element designed to be connected to a wristlet strand, the adjusting link element being mounted such that it can move in relation to the cover in the longitudinal direction in which extends a wristlet strand which is to be connected to the adjusting link element, such that this displacement of the adjusting link element in relation to the cover makes it possible to lengthen or shorten the length of a wristlet strand; the device is characterized in that it comprises: - an actuating device arranged on the cover such that it can move in relation to the cover in at least said longitudinal direction; - a first kinematic connection connecting the actuating device and the adjusting link element, such that the actuation of the actuating device in at least said longitudinal direction in relation to the cover is able to bring about the longitudinal displacement of the adjusting link element in relation to the cover. - a cover; - an adjusting link element designed to be connected to a wristlet strand, the adjusting link element being mounted such that it can move in relation to the cover in the longitudinal direction in which extends a wristlet strand which is to be connected to the adjusting link element, such that this displacement of the adjusting link element in relation to the cover makes it possible to lengthen or shorten the length of a wristlet strand; the device is characterized in that it comprises: - an actuating device arranged on the cover such that it can move in relation to the cover in at least said longitudinal direction; - a first kinematic connection connecting the actuating device and the adjusting link element, such that the actuation of the actuating device in at least said longitudinal direction in relation to the cover is able to bring about the longitudinal displacement of the adjusting link element in relation to the cover. - an actuating device arranged on the cover such that it can move in relation to the cover in at least said longitudinal direction; - a first kinematic connection connecting the actuating device and the adjusting link element, such that the actuation of the actuating device in at least said longitudinal direction in relation to the cover is able to bring about the longitudinal displacement of the adjusting link element in relation to the cover.
A method for generating an inspection image ( I insp) of an object from radiographic imaging, the method comprising: obtaining a plurality of digital images ( I 1, I 2) of the object positioned between a radiation source and a photon beam detector, the digital images ( I 1, I 2) taken at different object-detector distances or source-detector distances to create unique grain diffraction patterns (102, 104, 204) caused by preferential diffraction of photons travelling through a grain structure of the object in each one of the digital images ( I 1, I 2); and forming the inspection image ( I insp) from image features common to the digital images ( I 1, I 2) at a common scale and removing the unique grain diffraction patterns (102, 104). obtaining a plurality of digital images ( I 1, I 2) of the object positioned between a radiation source and a photon beam detector, the digital images ( I 1, I 2) taken at different object-detector distances or source-detector distances to create unique grain diffraction patterns (102, 104, 204) caused by preferential diffraction of photons travelling through a grain structure of the object in each one of the digital images ( I 1, I 2); and forming the inspection image ( I insp) from image features common to the digital images ( I 1, I 2) at a common scale and removing the unique grain diffraction patterns (102, 104).
An electromechanical brake actuator system, comprising: an electromechanical brake actuator comprising a ram; and a derived position sensor, coupled to the electromechanical brake actuator and comprising a controller, a rotation sensor, and an output drive circuit; and wherein the output drive circuit provides a signal to an electromechanical brake actuator controller; and wherein the controller and the electromechanical brake actuator controller are in bidirectional communication with each other; and characterized by in response to receiving the instructions, the controller being configured to perform the operations comprising: receiving a first motor shaft angular velocity at a first time; receiving a second motor shaft angular velocity at a second time; calculating a linear translation distance; and summing the linear translation distance and a previous ram position to obtain an actual ram position. an electromechanical brake actuator comprising a ram; and a derived position sensor, coupled to the electromechanical brake actuator and comprising a controller, a rotation sensor, and an output drive circuit; and wherein the output drive circuit provides a signal to an electromechanical brake actuator controller; and wherein the controller and the electromechanical brake actuator controller are in bidirectional communication with each other; and characterized by in response to receiving the instructions, the controller being configured to perform the operations comprising: receiving a first motor shaft angular velocity at a first time; receiving a second motor shaft angular velocity at a second time; calculating a linear translation distance; and summing the linear translation distance and a previous ram position to obtain an actual ram position.
A non-oriented electrical steel sheet, comprising: a base metal steel sheet, and a composite coating film composed of a Zn-containing phosphate and an organic resin, the composite coating film being formed on a surface of the base metal steel sheet, wherein: the metal components of the composite coating film optionally further include one or more elements selected from the group consisting of AI, Mg and Ca, a molar ratio of Zn to all metal components in the composite coating film is 10 mol% or more, and after boiling the non-oriented electrical steel sheet for 20 minutes in boiled distilled water, an amount of soluble Zn in the distilled water is 1.0 mg/m 2 or more; where, a method for determining the amount of soluble Zn is in accordance with JIS K 0102: 2016 "Testing Methods for Industrial Wastewater", 53.3 "ICP Emission Spectroscopy", and wherein: the organic resin includes one or more resins selected from the group consisting of an acrylic resin, a styrene resin, an acrylic-styrene resin, an epoxy resin, a polyester resin, a phenol resin and a urethane resin. a base metal steel sheet, and a composite coating film composed of a Zn-containing phosphate and an organic resin, the composite coating film being formed on a surface of the base metal steel sheet, wherein: the metal components of the composite coating film optionally further include one or more elements selected from the group consisting of AI, Mg and Ca, a molar ratio of Zn to all metal components in the composite coating film is 10 mol% or more, and after boiling the non-oriented electrical steel sheet for 20 minutes in boiled distilled water, an amount of soluble Zn in the distilled water is 1.0 mg/m 2 or more; where, a method for determining the amount of soluble Zn is in accordance with JIS K 0102: 2016 "Testing Methods for Industrial Wastewater", 53.3 "ICP Emission Spectroscopy", and wherein: the organic resin includes one or more resins selected from the group consisting of an acrylic resin, a styrene resin, an acrylic-styrene resin, an epoxy resin, a polyester resin, a phenol resin and a urethane resin. the metal components of the composite coating film optionally further include one or more elements selected from the group consisting of AI, Mg and Ca, a molar ratio of Zn to all metal components in the composite coating film is 10 mol% or more, and after boiling the non-oriented electrical steel sheet for 20 minutes in boiled distilled water, an amount of soluble Zn in the distilled water is 1.0 mg/m 2 or more; where, a method for determining the amount of soluble Zn is in accordance with JIS K 0102: 2016 "Testing Methods for Industrial Wastewater", 53.3 "ICP Emission Spectroscopy", and wherein: the organic resin includes one or more resins selected from the group consisting of an acrylic resin, a styrene resin, an acrylic-styrene resin, an epoxy resin, a polyester resin, a phenol resin and a urethane resin.
A positive electrode material for a secondary battery, comprising: a first positive electrode active material and a second positive electrode active material, wherein the first positive electrode active material and the second positive electrode active material are a lithium composite transition metal oxide including two or more transition metals selected from the group consisting of Ni, Co and Mn, the average particle size D 50 of the first positive electrode active material as measured by laser diffraction is at least two times larger than that of the second positive electrode active material, and the first positive electrode active material has a concentration gradient in which Ni contained in the lithium composite transition metal oxide has a concentration difference of 1.5 mol% or more between the center and the surface of the particle of the lithium composite transition metal oxide and wherein the concentration of Ni is gradually decreased at a rate of 0.1 to 5 mol% per 1 μm from the center to the surface of the particle based on the total mole number of Ni included in the positive electrode active material. a first positive electrode active material and a second positive electrode active material, wherein the first positive electrode active material and the second positive electrode active material are a lithium composite transition metal oxide including two or more transition metals selected from the group consisting of Ni, Co and Mn, the average particle size D 50 of the first positive electrode active material as measured by laser diffraction is at least two times larger than that of the second positive electrode active material, and the first positive electrode active material has a concentration gradient in which Ni contained in the lithium composite transition metal oxide has a concentration difference of 1.5 mol% or more between the center and the surface of the particle of the lithium composite transition metal oxide and wherein the concentration of Ni is gradually decreased at a rate of 0.1 to 5 mol% per 1 μm from the center to the surface of the particle based on the total mole number of Ni included in the positive electrode active material.
A method performed by a device comprising: generating an initial access burst for transmission on an enhanced random access channel, RACH, to a base station, the enhanced RACH being a contention-based uplink-only channel requiring use of timing advances for transmissions thereon; and transmitting the initial access burst using a timing advance, the timing advance to cause the initial access burst to be received at the network within a single time slot of the enhanced RACH, wherein the initial access burst includes data to a network destination separate from the base station. generating an initial access burst for transmission on an enhanced random access channel, RACH, to a base station, the enhanced RACH being a contention-based uplink-only channel requiring use of timing advances for transmissions thereon; and transmitting the initial access burst using a timing advance, the timing advance to cause the initial access burst to be received at the network within a single time slot of the enhanced RACH, wherein the initial access burst includes data to a network destination separate from the base station.
A hybrid preform component, comprising: a plurality of elongated metallic cores; a coating paste enveloping the plurality of elongated metallic cores, the coating paste consisting of a first material having a first melting point, a second material having a second melting point, and a binder, the first melting point being higher than the second melting point, and wherein the coating paste has the first material in an amount, by weight, from 35% to 95% and the second material in an amount, by weight, from 5% to 65%, wherein the plurality of elongated metallic cores consist of an alloy selected from the group consisting of GTD 111, GTD 444, HAYNES 188, INCONEL 738, MAR-M-247, René 108, René 142, René 195, René N2, René N4, René N5, René N500, and combinations thereof, wherein the first material consists of an alloy selected from the group consisting of GTD 111, GTD 444, HAYNES 188, INCONEL 738, MAR-M-247, René 108, René 142, René 195, and René N2, or a combination thereof, wherein the second material consists of an alloy selected from the group consisting of DF-4B, BNi-2, BNi-5 (AMS 4782), BNi-9, or a combination thereof, and wherein the hybrid preform component has a compressed structure and near net shape. a plurality of elongated metallic cores; a coating paste enveloping the plurality of elongated metallic cores, the coating paste consisting of a first material having a first melting point, a second material having a second melting point, and a binder, the first melting point being higher than the second melting point, and wherein the coating paste has the first material in an amount, by weight, from 35% to 95% and the second material in an amount, by weight, from 5% to 65%, wherein the plurality of elongated metallic cores consist of an alloy selected from the group consisting of GTD 111, GTD 444, HAYNES 188, INCONEL 738, MAR-M-247, René 108, René 142, René 195, René N2, René N4, René N5, René N500, and combinations thereof, wherein the first material consists of an alloy selected from the group consisting of GTD 111, GTD 444, HAYNES 188, INCONEL 738, MAR-M-247, René 108, René 142, René 195, and René N2, or a combination thereof, wherein the second material consists of an alloy selected from the group consisting of DF-4B, BNi-2, BNi-5 (AMS 4782), BNi-9, or a combination thereof, and wherein the hybrid preform component has a compressed structure and near net shape.