mhurhangee/ep-ind-claims huggingface dataset:
A method of making an airdam comprising a laminate, the method comprising: forming a strip of peel ply from a supply of peel ply; forming a strip of tacky putty from a supply of tacky putty; and automatically affixing the strip of tacky putty to the strip of peel ply without human assistance to form the laminate comprising at least one layer of the strip of peel ply and at least one layer of a strip of tacky putty, wherein the strip of peel ply is wrapped around the strip of tacky putty forming overlapping ends; wherein the laminate may be placed against an edge of a composite work piece during a curing process. forming a strip of peel ply from a supply of peel ply; forming a strip of tacky putty from a supply of tacky putty; and automatically affixing the strip of tacky putty to the strip of peel ply without human assistance to form the laminate comprising at least one layer of the strip of peel ply and at least one layer of a strip of tacky putty, wherein the strip of peel ply is wrapped around the strip of tacky putty forming overlapping ends; wherein the laminate may be placed against an edge of a composite work piece during a curing process.
Homoeriodictyol or salt thereof or mixture of HED and one or more salts thereof or mixture of several salts thereof for use in a therapeutic method for reducing the gastric acid secretion stimulating effect of N-acetyl-4-aminophenol (Paracetamol).
A drilling machine (10, 110, 210) for making an excavation in ground in a vertical drilling direction, said excavation having walls and said drilling machine being a milling machine comprising: an anchor module (12, 112, 212) having at least one anchor device (14, 114, 214) for preventing the anchor module (12, 112, 212) from moving in the drilling direction relative to the ground by bearing against one of the walls (P1, P2) of the excavation; a drilling module (20, 120, 220) provided with cutter members (22, 122, 222), the cutter members being connected to the anchor module (12, 112, 212) while being movable in translation relative to the anchor module, the cutter members (22, 122, 222) comprising two pairs of drums that are rotatable about axes of rotation (A1, A2) that are parallel, distinct, and perpendicular to the drilling direction; movement means (35, 135, 235) for moving the cutter members (22, 122, 222) in translation relative to the anchor module (12, 112, 212); the drilling machine being characterized in that the drilling module (20, 120, 220) is hinged relative to the anchor module (12, 112, 212), and in that the drilling module further comprises at least first path correction means (40, 140, 240) configured to cause the drilling module (20, 120, 220) to pivot relative to the anchor module (12, 112, 212) about a pivot axis perpendicular to the drilling direction. an anchor module (12, 112, 212) having at least one anchor device (14, 114, 214) for preventing the anchor module (12, 112, 212) from moving in the drilling direction relative to the ground by bearing against one of the walls (P1, P2) of the excavation; a drilling module (20, 120, 220) provided with cutter members (22, 122, 222), the cutter members being connected to the anchor module (12, 112, 212) while being movable in translation relative to the anchor module, the cutter members (22, 122, 222) comprising two pairs of drums that are rotatable about axes of rotation (A1, A2) that are parallel, distinct, and perpendicular to the drilling direction; movement means (35, 135, 235) for moving the cutter members (22, 122, 222) in translation relative to the anchor module (12, 112, 212); the drilling machine being characterized in that the drilling module (20, 120, 220) is hinged relative to the anchor module (12, 112, 212), and in that the drilling module further comprises at least first path correction means (40, 140, 240) configured to cause the drilling module (20, 120, 220) to pivot relative to the anchor module (12, 112, 212) about a pivot axis perpendicular to the drilling direction.
A method for producing a wind energy facility component from a fibre composite material, the method comprising the following steps: • providing a production mould, • providing a positioning pin, • arranging a prefabricated element in the production mould, the prefabricated element having a predefined geometry and being arranged in a predefined position relative to the production mould, • inserting a first portion of the positioning pin into a receiving portion of the production mould, • inserting a second portion of the positioning pin into a receiving portion of the prefabricated element, • arranging reinforcing fibres (32, 38) in the production mould, • arranging a liquid plastics material in the production mould, • curing the liquid plastics material, the prefabricated element and the reinforcing fibres (32, 38) becoming interconnected, • removing the wind energy facility component from the mould, characterized in that, when the wind energy facility component is removed from the mould, the first portion of the positioning pin is separated from the second portion of the positioning pin. • providing a production mould, • providing a positioning pin, • arranging a prefabricated element in the production mould, the prefabricated element having a predefined geometry and being arranged in a predefined position relative to the production mould, • inserting a first portion of the positioning pin into a receiving portion of the production mould, • inserting a second portion of the positioning pin into a receiving portion of the prefabricated element, • arranging reinforcing fibres (32, 38) in the production mould, • arranging a liquid plastics material in the production mould, • curing the liquid plastics material, the prefabricated element and the reinforcing fibres (32, 38) becoming interconnected, • removing the wind energy facility component from the mould, characterized in that, when the wind energy facility component is removed from the mould, the first portion of the positioning pin is separated from the second portion of the positioning pin.
Shock-absorber bearing-block for a pivot of a axis of a timepiece mobile comprising: ∘ a flexible guide component comprising a central rigid portion in which at least one pivot bearing (3, 4) is formed or fixed, on or in which a pivot of the axis of a timepiece mobile is pivoted, an outer rigid portion intended to be fixed or driven into or onto a fixed part of a timepiece movement comprising the mobile and an elastic portion connecting the central rigid portion to the outer rigid portion and arranged to allow a radial and axial displacement of the central rigid portion with respect to the outer rigid portion when it is deformed; ∘ a stop and centring member mounted in a fixed manner on the outer rigid portion of the flexible guide component and comprising an opening intended to receive the pivot of the axis of the timepiece mobile and arranged to act as a stop for said pivot and a first portion; ∘ the central rigid portion can move, against the action of the elastic portion, radially and/or axially with respect to the stop and centring member during a shock transmitted by the pivot to the pivot bearing (3, 4), this displacement being limited by the pivot coming to a stop in the opening of the stop and centring member; characterised in that the central rigid portion of the flexible guide component comprises a second conical portion arranged to cooperate with the first portion, which is also conical, of the stop and centring member so that when the shock-absorber bearing-block is inoperative, the first and second conical portions (52, 201) are in contact and ensure the correct positioning of the central rigid portion, the elastic portion and the cooperation of the first and second conical portions (52, 201) ensuring the correct repositioning of the central rigid portion after the shock; and in that the stop and centring member does not protrude beyond the flexible guide component, the thickness of this component determining the thickness of the shock-absorber bearing-block. ∘ a flexible guide component comprising a central rigid portion in which at least one pivot bearing (3, 4) is formed or fixed, on or in which a pivot of the axis of a timepiece mobile is pivoted, an outer rigid portion intended to be fixed or driven into or onto a fixed part of a timepiece movement comprising the mobile and an elastic portion connecting the central rigid portion to the outer rigid portion and arranged to allow a radial and axial displacement of the central rigid portion with respect to the outer rigid portion when it is deformed; ∘ a stop and centring member mounted in a fixed manner on the outer rigid portion of the flexible guide component and comprising an opening intended to receive the pivot of the axis of the timepiece mobile and arranged to act as a stop for said pivot and a first portion; ∘ the central rigid portion can move, against the action of the elastic portion, radially and/or axially with respect to the stop and centring member during a shock transmitted by the pivot to the pivot bearing (3, 4), this displacement being limited by the pivot coming to a stop in the opening of the stop and centring member;
An edge protection system for use with concrete flooring, including a first part for coupling to an edge portion of a first concrete flooring panel and a second part for coupling to an opposed edge portion of a second, neighbouring, concrete flooring panel, wherein the system includes a retaining clip for retaining the second part to the first part, characterised in that the first part is slideable relative to the second part to engage the retaining clip against removal from the first and second parts; and in that the retaining clip is frangible to allow separation of the first and second parts after setting of the first and second concrete flooring panels. characterised in that the first part is slideable relative to the second part to engage the retaining clip against removal from the first and second parts; and in that the retaining clip is frangible to allow separation of the first and second parts after setting of the first and second concrete flooring panels.
An organic light-emitting element (100, 200) comprising: a first electrode; a second electrode; an organic layer interposed between the first electrode and the second electrode; and a connection electrode for electrically connecting two or more organic light-emitting elements (100, 200) in series, characterized in that the connection electrode is formed on an opposite surface to a light-emitting surface of the organic light-emitting element (100, 200) and is overlapped with a light-emitting area of the organic light-emitting element (100, 200). a first electrode; a second electrode; an organic layer interposed between the first electrode and the second electrode; and a connection electrode for electrically connecting two or more organic light-emitting elements (100, 200) in series, characterized in that the connection electrode is formed on an opposite surface to a light-emitting surface of the organic light-emitting element (100, 200) and is overlapped with a light-emitting area of the organic light-emitting element (100, 200).
Reinforcing assembly for a building construction, erected in front of a foundation, the building construction comprising a facing erected in front of the foundation, the facing being intended to be connected to the foundation by the reinforcing assembly, the reinforcing assembly comprising: - at least one element forming an anchoring, anchored in the foundation with an end portion projecting outside the foundation, centred on an axis A, - at least one attachment element assembled on the end portion of the element forming an anchor, - at least one first clevis mounted on the end of the element forming an anchor behind the attachment element, the reinforcing assembly being characterized in that the first clevis comprising first and second eyes (51, 52) each having an orifice centred on the axis A through which the element forming an anchor passes, the two eyes being connected together by a body with a generally curved shape, and in that it comprises: - a reinforcement passing through the recess delimited by the curved body of the clevis and the element forming an anchor, configured so as to be connected directly or indirectly to the facing of the structure. - at least one element forming an anchoring, anchored in the foundation with an end portion projecting outside the foundation, centred on an axis A, - at least one attachment element assembled on the end portion of the element forming an anchor, - at least one first clevis mounted on the end of the element forming an anchor behind the attachment element, - a reinforcement passing through the recess delimited by the curved body of the clevis and the element forming an anchor, configured so as to be connected directly or indirectly to the facing of the structure.
A composition comprising: a) a polyester base polymer; b) at least one oligomeric, oxidizable poly(alkylene ether) glycol-α,ω-diester having the formula wherein, R is a substituted or unsubstituted alkylene chain having from 2 to 10 carbon atoms; R' and R" are each independently an alkyl sulfonic acid group or a metal salt thereof, an aryl sulfonic acid group or a metal salt thereof, an alkyl group having from 1 to 18 carbon atoms, or an aromatic group having from 6 to 18 carbon atoms; and n is from 4 to 100; and c) at least one transition metal in a positive oxidation state, said metal being present in the composition in an amount of from 10 to 400 ppm, wherein the at least one oligomeric, oxidizable poly(alkylene ether) glycol-a,w-diester is present in an amount of from 0.10 to 10 weight percent of the composition, wherein at least one of R' and R" is either an alkyl sulfonic acid group or a metal salt thereof or an aryl sulfonic acid group or a metal salt thereof. a) a polyester base polymer; b) at least one oligomeric, oxidizable poly(alkylene ether) glycol-α,ω-diester having the formula wherein, R is a substituted or unsubstituted alkylene chain having from 2 to 10 carbon atoms; R' and R" are each independently an alkyl sulfonic acid group or a metal salt thereof, an aryl sulfonic acid group or a metal salt thereof, an alkyl group having from 1 to 18 carbon atoms, or an aromatic group having from 6 to 18 carbon atoms; and n is from 4 to 100; and R is a substituted or unsubstituted alkylene chain having from 2 to 10 carbon atoms; R' and R" are each independently an alkyl sulfonic acid group or a metal salt thereof, an aryl sulfonic acid group or a metal salt thereof, an alkyl group having from 1 to 18 carbon atoms, or an aromatic group having from 6 to 18 carbon atoms; and n is from 4 to 100; and c) at least one transition metal in a positive oxidation state, said metal being present in the composition in an amount of from 10 to 400 ppm,
Control device for a vehicle comprising i) a brake pedal coupled to a braking circuit in which a current pressure prevails, ii) an accelerator pedal, iii) at least one energy storage means having a current state of charge, and iv) a heat engine and a non-thermal drive machine respectively providing torques for at least a train by consuming respectively fuel and energy stored in said energy storage means, characterized in that it comprises control means triggering, when said vehicle rolls with said brake pedal and accelerator pedal not depressed, an anticipated operation of said heat engine to provide at a predefined moment a predefined torque to ensure a so-called crawling function when said pressure in progress becomes below a predefined pressure threshold, a function of said non-thermal prime mover by a predefined time interval after said current pressure has become equal to a predefined value, strictly less than said predefined pressure threshold, to provide said predefined moment at said predefined torque for performing said crawling function, depending on whether said current state of charge is lower or higher than a predefined state threshold.
A method of delivering a target material into an extracellular vesicle, the method comprising: exposing the target material and the extracellular vesicle to an extracorporeal shockwave wherein the extracorporeal shockwave has an energy range from 0.05 mJ/mm 2 to 0.9 mJ/mm 2. exposing the target material and the extracellular vesicle to an extracorporeal shockwave wherein the extracorporeal shockwave has an energy range from 0.05 mJ/mm 2 to 0.9 mJ/mm 2.
An autonomous moving system comprising: an autonomous moving device including: an environment information obtaining sensor that obtains peripheral environment information; and a controller that causes movement to a spot having a predetermined distance from a current spot, based on the environment information; and an automatic power supply device including: a housing that includes a cavity unit or a groove unit in a portion of the housing, characterized in that L1 indicates a depth of the cavity unit, L2 indicates a distance between the autonomous moving device and the automatic power supply device when the autonomous moving device arrives ahead of the automatic power supply device, and L3 indicates the range of a safety stop area, in which the autonomous moving device is stopped if an obstacle is detected within area, which is from a tip of the autonomous moving device to a tip of the safety stop area wherein the following equation is satisfied: L 3 < L 1 + L 2 in order to stop the autonomous moving device so as not to be in contact with the automatic power supply device. an autonomous moving device including: an environment information obtaining sensor that obtains peripheral environment information; and a controller that causes movement to a spot having a predetermined distance from a current spot, based on the environment information; and an environment information obtaining sensor that obtains peripheral environment information; and a controller that causes movement to a spot having a predetermined distance from a current spot, based on the environment information; and an automatic power supply device including: a housing that includes a cavity unit or a groove unit in a portion of the housing, characterized in that L1 indicates a depth of the cavity unit, L2 indicates a distance between the autonomous moving device and the automatic power supply device when the autonomous moving device arrives ahead of the automatic power supply device, and L3 indicates the range of a safety stop area, in which the autonomous moving device is stopped if an obstacle is detected within area, which is from a tip of the autonomous moving device to a tip of the safety stop area wherein the following equation is satisfied: L 3 < L 1 + L 2
A method of coverage enhancement, performed by an apparatus (105-a, 600-a), in a wireless communication system, comprising: selecting a first coverage enhancement technique for a first channel (225-a) from a set of coverage enhancement techniques, wherein the first channel comprises a physical downlink shared channel, PDSCH, and wherein the first coverage enhancement technique comprises precoding for spatial multiplexing; selecting a second coverage enhancement technique, different from the first coverage enhancement technique, for a second channel (225-b) from the set of coverage enhancement techniques, wherein the second channel comprises a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH, and wherein the second coverage enhancement technique comprises repetition within a subframe, wherein the first channel (225-a) is used to transmit a different type of information than the second channel (225-b); transmitting a first portion of information to a particular user equipment, UE, on the first channel (225-a) using the first coverage enhancement technique; and transmitting a second portion of the information to the UE on the second channel (225-b) using the second coverage enhancement technique. selecting a first coverage enhancement technique for a first channel (225-a) from a set of coverage enhancement techniques, wherein the first channel comprises a physical downlink shared channel, PDSCH, and wherein the first coverage enhancement technique comprises precoding for spatial multiplexing; selecting a second coverage enhancement technique, different from the first coverage enhancement technique, for a second channel (225-b) from the set of coverage enhancement techniques, wherein the second channel comprises a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH, and wherein the second coverage enhancement technique comprises repetition within a subframe, wherein the first channel (225-a) is used to transmit a different type of information than the second channel (225-b); transmitting a first portion of information to a particular user equipment, UE, on the first channel (225-a) using the first coverage enhancement technique; and transmitting a second portion of the information to the UE on the second channel (225-b) using the second coverage enhancement technique.
An apparatus for performing thermotherapy on at least a portion of a tissue site (130, 513), said apparatus comprises: a heating probe (170, 220, 320, 515, 610) comprising an energy emitting area (180, 270, 370, 514); said heating probe (170, 220, 320, 515, 610) is connectable to an energy source for heating said portion of tissue (130, 513) by said energy emitting area (180, 270, 370, 514); a sleeve (160, 200, 300, 430, 510) configured to be interstitially inserted in said portion of a tissue (130, 513); wherein said heating probe (170, 220, 320, 515, 610) is arrangable in said sleeve (160. 200, 300, 430, 510), and said sleeve (160. 200, 300, 430, 510) is configured to be slid along said heating probe (170, 220, 320, 515, 610) in a distal and/or proximal direction for positioning of said energy emitting area (180, 270, 370, 514) in said portion of tissue (130, 513) for controlling said thermotherapy; and said energy emitting area (180, 270, 370, 514) is a light emitting area (180, 270, 370, 514) being an optical fibre which is at least partially a diffuser; said diffuser is a structured writing being micro-modifications; characterized in that said micro-modifications are burnt into a core and/or cladding and/or buffer of the optical fibre and said micro-modifications are arranged on one or more sectional planes, wherein said sectional planes lie substantially perpendicular to the optical waveguide axis of the optical fibre. a heating probe (170, 220, 320, 515, 610) comprising an energy emitting area (180, 270, 370, 514); said heating probe (170, 220, 320, 515, 610) is connectable to an energy source for heating said portion of tissue (130, 513) by said energy emitting area (180, 270, 370, 514); a sleeve (160, 200, 300, 430, 510) configured to be interstitially inserted in said portion of a tissue (130, 513); wherein said heating probe (170, 220, 320, 515, 610) is arrangable in said sleeve (160. 200, 300, 430, 510), and said sleeve (160. 200, 300, 430, 510) is configured to be slid along said heating probe (170, 220, 320, 515, 610) in a distal and/or proximal direction for positioning of said energy emitting area (180, 270, 370, 514) in said portion of tissue (130, 513) for controlling said thermotherapy; and said energy emitting area (180, 270, 370, 514) is a light emitting area (180, 270, 370, 514) being an optical fibre which is at least partially a diffuser; said diffuser is a structured writing being micro-modifications; characterized in that said micro-modifications are burnt into a core and/or cladding and/or buffer of the optical fibre and said micro-modifications are arranged on one or more sectional planes, wherein said sectional planes lie substantially perpendicular to the optical waveguide axis of the optical fibre.