mhurhangee/ep-ind-claims huggingface dataset:
Material for treating a heart valve, in particular a mitral valve, comprising an annuloplasty member able to be introduced using a catheter through minimally invasive vascular access, then to be delivered by said catheter and fixed to the valve annulus, characterized in that it includes at least one catheter comprising: - two guide members (10, 11) able to be deployed from said catheter such that they extend along portions of the valve annulus of the valve, in the immediate proximity of said valve annulus, wherein the first guide member can be engaged on one side of the valve and the second guide member can be engaged on the other side of the valve, and - an implant having a helical shape engaged on said guide members (10, 11), connected, with separation possibility, to actuation means (13, 20; 22, 23) making it possible to cause this implant to move forward while driving it in rotation around its axis; the implant can thus be deployed from the catheter while being simultaneously moved forward and driven in rotation along its axis, said rotation enabling the implant to penetrate the tissue of the valve annulus while being guided along said annulus by said guide members (10, 11), wherein the implant is engaged around these two guide members. - two guide members (10, 11) able to be deployed from said catheter such that they extend along portions of the valve annulus of the valve, in the immediate proximity of said valve annulus, wherein the first guide member can be engaged on one side of the valve and the second guide member can be engaged on the other side of the valve, and - an implant having a helical shape engaged on said guide members (10, 11), connected, with separation possibility, to actuation means (13, 20; 22, 23) making it possible to cause this implant to move forward while driving it in rotation around its axis; the implant can thus be deployed from the catheter while being simultaneously moved forward and driven in rotation along its axis, said rotation enabling the implant to penetrate the tissue of the valve annulus while being guided along said annulus by said guide members (10, 11), wherein the implant is engaged around these two guide members.
A resin-sealed semiconductor device, which includes a power semiconductor element and a power lead connected to a main electrode of the power semiconductor element, the power semiconductor element being molded with resin, the resin-sealed semiconductor device comprising: a fuse portion formed by forming a narrowed portion in the power lead; a first resin sealing portion configured to cover the fuse portion; and a second resin sealing portion configured to block the first resin sealing portion from atmospheric air, wherein the power lead protrudes from the second resin sealing portion,wherein the second resin sealing portion is in direct contact with one face of a heat sink, and another face of the heat sink has a plurality of cooling fins formed thereon, an insulating case having a main body portion, an opening portion, and a hollow portion, wherein the second resin sealing portion is molded such that the insulating case containing the power semiconductor element and the first resin sealing portion inside is entirely covered, and wherein the second resin sealing portion is fixed above the heat sink made of metal, with the insulating sheet inserted between the power lead and the heat sink to fix the power lead and the heat sink. a fuse portion formed by forming a narrowed portion in the power lead; a first resin sealing portion configured to cover the fuse portion; and a second resin sealing portion configured to block the first resin sealing portion from atmospheric air, wherein the power lead protrudes from the second resin sealing portion,wherein the second resin sealing portion is in direct contact with one face of a heat sink, and another face of the heat sink has a plurality of cooling fins formed thereon, an insulating case having a main body portion, an opening portion, and a hollow portion, wherein the second resin sealing portion is molded such that the insulating case containing the power semiconductor element and the first resin sealing portion inside is entirely covered, and wherein the second resin sealing portion is fixed above the heat sink made of metal, with the insulating sheet inserted between the power lead and the heat sink to fix the power lead and the heat sink.
Method for transmitting data in a distributed system of programmable controllers, whereby data is transmitted between data sources and data sinks, each of which represents a node in the distributed system, whereby the data sources and data sinks communicating with each other are determined via parameters, characterized in that programmable controllers are designed as embedded systems that do not have an operating system and that the program routines, communication functions, hardware APIs are virtualized and that the program routines, communication functions and protocols are designed to be hardware-independent, whereby an abstraction is made between hardware-dependent and hardware-independent routines.
A wind energy system comprising: (a) a wind turbine comprising a cowling surrounded by a diffuser; (b) a plurality of first inner rotor blades located inside of the cowling, wherein the plurality of inner rotor blades rotates about a first inner rotor hub; (c) a plurality of outer rotor blades positioned between the diffuser and the cowling, wherein the plurality of outer rotor blades are counter-rotating relative to the plurality of inner rotor blades and wherein the outer rotor blades are attached to the outside of an outer rotor assembly which rotates around the cowling on roller bearings built into the assembly; (d) a drive mechanism located within the inner rotor hub; (e) a dynamic telescopic tower; and (f) a tower support that connects the wind turbine to the dynamic telescopic tower. (a) a wind turbine comprising a cowling surrounded by a diffuser; (b) a plurality of first inner rotor blades located inside of the cowling, wherein the plurality of inner rotor blades rotates about a first inner rotor hub; (c) a plurality of outer rotor blades positioned between the diffuser and the cowling, wherein the plurality of outer rotor blades are counter-rotating relative to the plurality of inner rotor blades and wherein the outer rotor blades are attached to the outside of an outer rotor assembly which rotates around the cowling on roller bearings built into the assembly; (d) a drive mechanism located within the inner rotor hub; (e) a dynamic telescopic tower; and (f) a tower support that connects the wind turbine to the dynamic telescopic tower.
Locking device for locking a storage compartment cover to a housing, with a first latching element arranged on the storage compartment cover and with a second latching element which is accommodated in a manner guided displaceably in a guide track of the housing and is arranged on a lever which is arranged pivotably on an actuating part, wherein the actuating part together with the lever can be brought relative to the housing from a starting position, in which the second latching element is arranged in a latching position in the guide track and is latched to the first latching element with prestressing by a spring force, counter to the spring force into an actuating position in which the second latching element is arranged in a release position in the guide track and releases the first latching element in order to open the storage compartment cover.
An ultrasonic horn that is used in order to ultrasonically weld an object to be welded, comprising: an input-side end section having an input surface that receives ultrasonic vibration; and an output-side end section having output surface which is disposed spaced apart from the input surface, by a distance corresponding to a half-wavelength of the ultrasonic vibration, and through which ultrasonic vibration is output to the object to be welded, wherein the output-side end section has a dimension, in a length direction, over which the object to be welded can be welded in a predetermined direction, and is branched in a width direction that is perpendicular to the length direction by a slit that extends in the length direction, a pair of end faces of the output-side end section, positioned on both sides of the slit, functions as the output surface, characterized in that the slit is formed over a range extending from a position corresponding to a node of ultrasonic vibration up to the end faces of the output-side end section. an input-side end section having an input surface that receives ultrasonic vibration; and an output-side end section having output surface which is disposed spaced apart from the input surface, by a distance corresponding to a half-wavelength of the ultrasonic vibration, and through which ultrasonic vibration is output to the object to be welded, wherein the output-side end section has a dimension, in a length direction, over which the object to be welded can be welded in a predetermined direction, and is branched in a width direction that is perpendicular to the length direction by a slit that extends in the length direction, a pair of end faces of the output-side end section, positioned on both sides of the slit, functions as the output surface, characterized in that the slit is formed over a range extending from a position corresponding to a node of ultrasonic vibration up to the end faces of the output-side end section.
A composition comprising an active pharmaceutical ingredient, at least three hydrocolloids and purified water, characterized in that the three hydrocolloids are gelatin, iota-carrageenan and xanthan gum, wherein the composition is a 3D printing ink.
A process of combating anthrax and C. botulinum bacterium and spores thereof in an enclosed space, characterized in that the process comprises exposing the bacterium and its spores in the space to a disinfecting atmosphere which includes ozone at an amount of 2 - 350 ppm by weight and hydrogen peroxide at an amount of 0.2 - 10 wt. %, wherein said amount of hydrogen peroxide is derived from a supply solution of 0.2 - 10% hydrogen peroxide, at a relative humidity of at least 60%, and for a period of at least 30 minutes sufficient for an effective kill of the anthrax and C. botulinum bacterium and spores thereof, and subsequently removing ozone from the atmosphere, down to 0.04 ppm or less.
Pallet container for storing and for transporting fluid or flowable filling materials having a thin-walled rigid inner container comprising thermoplastic plastics material, having a tubular grid frame which tightly encloses the plastics inner container as a support covering and which comprises horizontal and vertical tubular rods (18, 20) which are welded to each other in intersection regions, and having a rectangular base pallet on which the plastics inner container is positioned and to which the tubular grid frame is securely connected, wherein the vertical and/or horizontal tubular rods have, when considered in the longitudinal direction, a square-shaped or round hollow profile as the original basic profile and have, in certain regions, a tube profile that has been changed by mechanical shaping, characterized in that the original basic profile of at least one horizontal and/or vertical tubular rod (18, 20) is constructed so as to be increased by a predeterminable amount via an intersection region of the horizontal and vertical tubular rods (18, 20) which are welded to each other and is provided with an increased rear region, wherein the original basic profile is shaped in the region of the increased rear region and has a triangular hollow profile, wherein the increased rear region is constructed by mechanical shaping from the original basic profile by means of a lateral pressing pressure action and has a narrow rear which extends in the longitudinal direction of the tubular rods.
An acrylic adhesive composition comprising: an acrylic copolymer formed by polymerizing a monomer mixture including a monomer represented by [Formula 1] below, a (meth)acrylic monomer having a crosslinkable functional group, and an alkyl (meth)acrylate-based monomer, and having a branched polymer structure; a polyfunctional acrylate having two or more radically polymerizable functional groups; a first photoinitiator; and a second photoinitiator, wherein the first photoinitiator is an acetophenonebased photoinitiator, and the second photoinitiator is a phosphine oxide-based photoinitiator: [Formula 1] R 1 -CH=CR 2 -(C=O)-O-X-Y wherein, in Formula 1 above, R 1 is hydrogen, a C1-C6 alkyl group, or a C2-C6 alkenyl group, R 2 is hydrogen or a C1-C10 alkyl group, X is a single bond, a C1-C10 alkylene group, a C2-C10 alkenylene group, ether, ester, or a combination thereof, and Y is a vinyl group, an allyl group, or a C3-C10 cycloalkenyl group. an acrylic copolymer formed by polymerizing a monomer mixture including a monomer represented by [Formula 1] below, a (meth)acrylic monomer having a crosslinkable functional group, and an alkyl (meth)acrylate-based monomer, and having a branched polymer structure; a polyfunctional acrylate having two or more radically polymerizable functional groups; a first photoinitiator; and a second photoinitiator, wherein the first photoinitiator is an acetophenonebased photoinitiator, and the second photoinitiator is a phosphine oxide-based photoinitiator: [Formula 1] R 1 -CH=CR 2 -(C=O)-O-X-Y wherein, in Formula 1 above, R 1 is hydrogen, a C1-C6 alkyl group, or a C2-C6 alkenyl group, R 2 is hydrogen or a C1-C10 alkyl group, X is a single bond, a C1-C10 alkylene group, a C2-C10 alkenylene group, ether, ester, or a combination thereof, and Y is a vinyl group, an allyl group, or a C3-C10 cycloalkenyl group.
Process for setting up a secure contactless communication between a first electronic contactless communicating device known as the device, and a second electronic contactless communicating device known as the reader, each having at least one random number generator, one SYM symmetrical encryption algorithm, one ASYM asymmetrical encryption algorithm, one F mathematical function, said device being combined with a Cert cryptographic certificate, a public key n and a private key Kpriv, characterized in that it comprises at least the following steps when said device enters the field of action of the reader, and before a secure communications session begins: - engagement during which said device generates a first random number k, and informs said reader of the identity of said device - challenge, during which said reader obtains the public key n, then generates a second random number r, and encrypts it with said ASYM algorithm and key n, and transmits it to said device, - response, during which said device decrypts the random number r with said ASYM algorithm and the private key Kpriv, encrypts said random number k with said SYM algorithm and said random number r used as a key, sends the decrypted result to said reader, and generates a session key by applying said function F to said random numbers k and r. - Decryption, during which said reader decrypts said random number k received with the SYM algorithm and the random number r used as a key, then generates said session key by applying this function F to said random numbers k and r. - engagement during which said device generates a first random number k, and informs said reader of the identity of said device - challenge, during which said reader obtains the public key n, then generates a second random number r, and encrypts it with said ASYM algorithm and key n, and transmits it to said device, - response, during which said device decrypts the random number r with said ASYM algorithm and the private key Kpriv, encrypts said random number k with said SYM algorithm and said random number r used as a key, sends the decrypted result to said reader, and generates a session key by applying said function F to said random numbers k and r. - Decryption, during which said reader decrypts said random number k received with the SYM algorithm and the random number r used as a key, then generates said session key by applying this function F to said random numbers k and r.
Method for locating a suitable boarding zone from a plurality of boarding zones for a rail vehicle on a train platform, wherein, for a user, a seat is reserved in the train vehicle, and wherein at least one suitable boarding zone is associated with the reserved seat, wherein - on a mobile apparatus of the user, a local service for outputting navigation instructions is installed, - the mobile apparatus is repeatedly localized in the region of the train platform, and - by means of a central service, in each case from the position of the mobile apparatus and the actual stopping position of a rail car of the train vehicle with the reserved seat, a suitable boarding zone is determined so that a closest boarding zone of the train vehicle relative to the reserved seat will be located in the region of the appropriate boarding zone, and a navigation instruction to the suitable boarding zone is calculated for the user, transmitted to the mobile apparatus, and output by the latter. - on a mobile apparatus of the user, a local service for outputting navigation instructions is installed, - the mobile apparatus is repeatedly localized in the region of the train platform, and - by means of a central service, in each case from the position of the mobile apparatus and the actual stopping position of a rail car of the train vehicle with the reserved seat, a suitable boarding zone is determined so that a closest boarding zone of the train vehicle relative to the reserved seat will be located in the region of the appropriate boarding zone, and a navigation instruction to the suitable boarding zone is calculated for the user, transmitted to the mobile apparatus, and output by the latter.
A method for treating a hydrocarbon gas stream containing H2S and mercaptans, in which: a) the hydrocarbon gas stream is separated into a sweet hydrocarbon gas stream and an acid gas stream comprising H2S, b) the mercaptans are concentrated in at least one cut of said sweet hydrocarbon gas stream; c) the mercaptans are extracted from the said cut and converted into dialkyldisulfides; d) the acid gas stream comprising H2S is passed in a Claus unit, thereby producing a sulphur-containing stream and a Claus tail gas stream comprising S02, which stream is then passed in a hydrogenation reactor A1 to convert S02 into H2S and then passed in an absorber B for removing H2S, wherein: e) the dialkyldisulfides formed at step c) are reacted with a hydrogen containing stream in said hydrogenation reactor A1 or in a second hydrogenation reactor A2, thereby generating a gas stream comprising H2S, wherein: • said hydrogen-containing stream is produced by a hydrogen generator C, and/or • said hydrogen-containing stream is produced by the Claus unit, thereby being present in the Claus tail gas stream before or after the hydrogenation reactor A1, and f) the gas stream comprising H2S formed at step e) is passed in the absorber B for removing H2S. a) the hydrocarbon gas stream is separated into a sweet hydrocarbon gas stream and an acid gas stream comprising H2S, b) the mercaptans are concentrated in at least one cut of said sweet hydrocarbon gas stream; c) the mercaptans are extracted from the said cut and converted into dialkyldisulfides; d) the acid gas stream comprising H2S is passed in a Claus unit, thereby producing a sulphur-containing stream and a Claus tail gas stream comprising S02, which stream is then passed in a hydrogenation reactor A1 to convert S02 into H2S and then passed in an absorber B for removing H2S, wherein: e) the dialkyldisulfides formed at step c) are reacted with a hydrogen containing stream in said hydrogenation reactor A1 or in a second hydrogenation reactor A2, thereby generating a gas stream comprising H2S, wherein: • said hydrogen-containing stream is produced by a hydrogen generator C, and/or • said hydrogen-containing stream is produced by the Claus unit, thereby being present in the Claus tail gas stream before or after the hydrogenation reactor A1, and • said hydrogen-containing stream is produced by a hydrogen generator C, and/or • said hydrogen-containing stream is produced by the Claus unit, thereby being present in the Claus tail gas stream before or after the hydrogenation reactor A1, and f) the gas stream comprising H2S formed at step e) is passed in the absorber B for removing H2S.
A laminate comprising a resin film and a separator, wherein the resin film has a tensile strength of 30 N/10 mm or less, the resin film and the separator are joined to each other by an adhesive layer, and a peel surface formed when the separator is peeled from the resin film is positioned between the resin film and the adhesive layer, wherein the tensile strength is measured in compliance with a method prescribed in JIS K 6251: 2010. the resin film has a tensile strength of 30 N/10 mm or less, the resin film and the separator are joined to each other by an adhesive layer, and a peel surface formed when the separator is peeled from the resin film is positioned between the resin film and the adhesive layer, wherein the tensile strength is measured in compliance with a method prescribed in JIS K 6251: 2010.
A method for applying a carbon-based reflective overcoating (5, 7) on a grazing incidence optical unit (1; 10) for X rays, the optical unit (1; 10) comprising a substrate and a coating of a first high-density material chosen from the group comprising gold, platinum, iridium, palladium, rhodium, ruthenium, chrome and nickel, characterised in that the method comprises the step of treating the optical unit (1; 10) with a solution or gaseous phase containing at least one organic precursor material to cause an absorption of the precursor material on said coating.
An aqueous particulate multiphase suspension comprising: - 15 to 60% by weight of at least one water-soluble polymer in the form of solid particles with average size comprised between 5 and 500 μm; - 15 to 45% by weight of at least one alkali metal salt and/or of at least one alkaline earth metal salt; - at least one viscosifying agent other than the water-soluble polymer; - at least 10% by weight of water; and said suspension having a Brookfield viscosity comprised between 500 and 20,000 cps, and said suspension having a density comprised between 1.1 and 2 kg/1, at 25°C and at a pressure of 101,325 Pa, the Brookfield viscosity of the suspension being measured at 20°C, with a Brookfield device LVT model, mounted with an LV spindle, the average size of the water-soluble polymer particles being measured by laser diffraction, with a laser measuring device, in liquid medium or in solid form. - 15 to 60% by weight of at least one water-soluble polymer in the form of solid particles with average size comprised between 5 and 500 μm; - 15 to 45% by weight of at least one alkali metal salt and/or of at least one alkaline earth metal salt; - at least one viscosifying agent other than the water-soluble polymer; - at least 10% by weight of water; and said suspension having a Brookfield viscosity comprised between 500 and 20,000 cps, and said suspension having a density comprised between 1.1 and 2 kg/1, at 25°C and at a pressure of 101,325 Pa, the Brookfield viscosity of the suspension being measured at 20°C, with a Brookfield device LVT model, mounted with an LV spindle, the average size of the water-soluble polymer particles being measured by laser diffraction, with a laser measuring device, in liquid medium or in solid form. said suspension having a Brookfield viscosity comprised between 500 and 20,000 cps, and said suspension having a density comprised between 1.1 and 2 kg/1, at 25°C and at a pressure of 101,325 Pa, the Brookfield viscosity of the suspension being measured at 20°C, with a Brookfield device LVT model, mounted with an LV spindle, the average size of the water-soluble polymer particles being measured by laser diffraction, with a laser measuring device, in liquid medium or in solid form.