mhurhangee/ep-ind-claims huggingface dataset:
A gas spring, comprising: a casing having an inner surface defining in part a gas chamber; a piston rod received at least partially in the casing for reciprocation along an axis between extended and retracted positions, the piston rod having an internal cavity defining a hollow space; wherein the piston rod includes a first portion extending out of the casing at least in the extended position and a tubular second portion that is formed separately from the first portion and is connected to the first portion for conjoint movement therewith along the axis; a rod guide carried by the second portion of the piston rod adjacent to the inner surface of the casing to guide the reciprocation of the piston rod at least in part; a bearing assembly disposed at least partially between the piston rod and the casing and arranged generally coaxially with the piston rod to guide movement of the piston rod and a seal between the piston rod and the casing to prevent gas leakage from the gas chamber, a first stop connected to the casing; and a second stop carried by at least one of the first portion and second portion of the piston rod spaced from the rod guide and engageable with the first stop to limit movement of the piston rod away from its retracted position; and one or more passages formed through the rod guide to prevent the rod guide from acting as a piston and/or unduly restricting gas flow in the gas chamber during a stroke of the piston rod. a casing having an inner surface defining in part a gas chamber; a piston rod received at least partially in the casing for reciprocation along an axis between extended and retracted positions, the piston rod having an internal cavity defining a hollow space; wherein the piston rod includes a first portion extending out of the casing at least in the extended position and a tubular second portion that is formed separately from the first portion and is connected to the first portion for conjoint movement therewith along the axis; a rod guide carried by the second portion of the piston rod adjacent to the inner surface of the casing to guide the reciprocation of the piston rod at least in part; a bearing assembly disposed at least partially between the piston rod and the casing and arranged generally coaxially with the piston rod to guide movement of the piston rod and a seal between the piston rod and the casing to prevent gas leakage from the gas chamber, a first stop connected to the casing; and a second stop carried by at least one of the first portion and second portion of the piston rod spaced from the rod guide and engageable with the first stop to limit movement of the piston rod away from its retracted position; and one or more passages formed through the rod guide to prevent the rod guide from acting as a piston and/or unduly restricting gas flow in the gas chamber during a stroke of the piston rod.
Mixing machine, configured to receive a reception device in order to form a manufacturing apparatus, the mixing machine comprising - a support defining a reception housing, suitable for receiving a first deformable capsule and a second deformable capsule that are intended to be fluidically connected together, the first and second capsules (3, 4) respectively containing a first formulation and a second formulation, - an actuating system, that can be rotated back-and-forth around a pivot axis, - a cam that can be rotated around a cam axis of rotation (41.1) that is not parallel to the actuating axis of rotation, the cam comprising a drive finger, wherein the actuating system comprises a drive groove configured to receive the drive finger, so that the cam rotation drives a back-and-forth movement of the actuating system, wherein the connection between the drive finger and the drive groove comprises a ball joint. - a support defining a reception housing, suitable for receiving a first deformable capsule and a second deformable capsule that are intended to be fluidically connected together, the first and second capsules (3, 4) respectively containing a first formulation and a second formulation, - an actuating system, that can be rotated back-and-forth around a pivot axis, - a cam that can be rotated around a cam axis of rotation (41.1) that is not parallel to the actuating axis of rotation, the cam comprising a drive finger, wherein the actuating system comprises a drive groove configured to receive the drive finger, so that the cam rotation drives a back-and-forth movement of the actuating system, wherein the connection between the drive finger and the drive groove comprises a ball joint.
An adhesive material composite having a planar extension, a composite surface that extends in a first direction (x) and in a second direction (y) that is substantially perpendicular to the first direction (x), and having a composite thickness, which extends in a third direction (z) that is substantially perpendicular to the composite surface, wherein the material composite is formed from a laminarly extrudable or extruded first composite area and at least one laminarly extrudable or extruded, preferably co-extruded second composite area at least partially adjacent to the first composite area, wherein the first and/or the second composite area (6, 7) comprises an adhesive, and wherein the second composite area has adhesive properties, so that the material composite having the composite surface can adhere to a surface of a body or to surfaces of a plurality of bodies, and wherein the material composite is formed without a carrier, wherein the adhesive is formed from in particular a reactivatable heat-melting adhesive, and wherein a composite area thickness of the first and/or second composite area (6, 7) varies partially along the first direction (x).
A system for detection of hydrocarbon leakage from an underwater pipeline in a body of water, the leakage detection system comprising at least one sensor configured to acquire signals related to the temperature of a liquid in a chamber (19; 28; 36; 38), which is configured to be, in use, full of water and extends along a portion of the underwater pipeline susceptible to leakage; and at least one control unit connected to the sensor and configured to emit a leakage signal when the temperature of the liquid in the chamber (19; 28; 36; 38) is outside an expected range, wherein the chamber (19; 28; 36) is in communication with the surrounding body of water to allow the inflow and outflow of water to/from the chamber (19; 28; 36).
An integrated high-frequency generator system containing: a magnetic resonance magnet, configured to generate a magnetic field, the magnet having an application zone for positioning a magnetic resonance sample, and high-frequency generator zone, each zone in the magnetic field (66, 68) of said magnetic resonance magnet; and a high-frequency generator disposed in said high-frequency generator zone and configured to generate high frequency microwave or terahertz radiation in said high-frequency generator zone utilizing an electron beam of the high-frequency generator and the magnetic field (66, 68) of said magnetic resonance magnet. a magnetic resonance magnet, configured to generate a magnetic field, the magnet having an application zone for positioning a magnetic resonance sample, and high-frequency generator zone, each zone in the magnetic field (66, 68) of said magnetic resonance magnet; and a high-frequency generator disposed in said high-frequency generator zone and configured to generate high frequency microwave or terahertz radiation in said high-frequency generator zone utilizing an electron beam of the high-frequency generator and the magnetic field (66, 68) of said magnetic resonance magnet.
A spinal implant comprising: first and second pedicle screws (12, 14), each of which comprises a threaded shank coupled to a head; and first and second cantilevered arms (20, 22) coupled to said first and second pedicle screws (12, 14), respectively, wherein said first cantilevered arm comprises a contact member arranged to contact and move over a contact portion of said second cantilevered arm, wherein said contact member comprises a round roller element which rolls about pivots in said first cantilevered arm. first and second pedicle screws (12, 14), each of which comprises a threaded shank coupled to a head; and first and second cantilevered arms (20, 22) coupled to said first and second pedicle screws (12, 14), respectively, wherein said first cantilevered arm comprises a contact member arranged to contact and move over a contact portion of said second cantilevered arm, wherein said contact member comprises a round roller element which rolls about pivots in said first cantilevered arm.
A complex comprising first and second peptides, the first peptide comprising the V3 loop of gp120, and wherein the V3 loop is bound to a binding region on the second peptide, the second peptide comprising said binding region which region comprises at least residues 21-40 and 46-58 of Tat (SEQ ID NO 1), or at least said residues with a further point mutation whereby Cys 22 of Tat is replaced by Glycine, said Tat Cys22 mutant being capable of binding a region on gp120 comprising residues 301-419 of gp120 (SEQ ID NO. 2).
An electric actuator comprising an electric actuator arrangement and a frame part (2; 2'), which the electric actuator arrangement comprises one or more LED components, and wherein the frame part (2; 2') is arranged against a heat exchange surface of the electric actuator arrangement, and contact surfaces and electronics of the one or more LED components are arranged in an integral manner inside the electrically non-conductive frame part (2; 2'), which is formed by injection molding or die-casting thermosetting plastic, thermoplastic, vulcanized rubber or thermoplastic elastomer in connection with the electric actuator arrangement so that a uniform light source is formed, the frame part (2; 2') is electrically non-conductive and is characterized in that it is configured to perform the thermal transmission of the electric actuator arrangement and comprises inside the frame part (2; 2') an electrically non-conductive material zone having deviated thermal conductivity compared to the frame part (2; 2').
Method for eliminating insects comprising a step of spraying an insecticidal composition so as to eliminate wasps and/or hornets, the spraying being carried out by means of a device for dispersing an aerosol, the insecticidal composition comprising: • an insecticidal product capable of killing wasps and/or hornets, and • a mixture of at least one liquefied gas and at least one compressed gas, the mixture being configured to allow the propelling of the insecticidal product during spraying thereof, the insecticidal composition being characterized in that the mixture comprises, in particular consists of, a mixture of 1,1,1,2-tetrafluoroethane and carbon dioxide, and in that the weight ratio between the weight of liquefied gas(es) and the weight of compressed gas(es) is between 5 and 30, in particular between 15 and 25. • an insecticidal product capable of killing wasps and/or hornets, and • a mixture of at least one liquefied gas and at least one compressed gas, the mixture being configured to allow the propelling of the insecticidal product during spraying thereof,
A repair process comprising: providing a core gaspath gas turbine engine article that has a substrate and a ceramic barrier coating disposed on the substrate, wherein the ceramic barrier coating has a damaged region; characterised in that the process comprises abrading the damaged region to provide a dimple in the ceramic barrier coating, wherein a remaining region of the ceramic barrier coating adjacent the dimple remains intact; and depositing a patch of networked ceramic nanofibers in the dimple, in which the ceramic nanofibers are elongated, randomly oriented filaments that have a maximum diameter of 1 nanometer to 500 nanometers and intertwined to form a tangled porous network and are comprised of or consist of zirconium oxide, the patch of networked ceramic nanofibers is deposited by a blow spinning process, the blow spinning process comprises spraying a precursor solution through an inner nozzle while flowing a process gas from an outer concentric nozzle such that the precursor when sprayed elongates into ultra-thin filaments, followed by a thermal treatment to remove the binders and sinter the ceramic to convert the precursor solution to ceramic; the damaged region is a region which has a physical deformity or imperfection; in which the precursor solution comprises binders and zirconium, oxides and any dopants. abrading the damaged region to provide a dimple in the ceramic barrier coating, wherein a remaining region of the ceramic barrier coating adjacent the dimple remains intact; and depositing a patch of networked ceramic nanofibers in the dimple, in which the ceramic nanofibers are elongated, randomly oriented filaments that have a maximum diameter of 1 nanometer to 500 nanometers and intertwined to form a tangled porous network and are comprised of or consist of zirconium oxide, the patch of networked ceramic nanofibers is deposited by a blow spinning process, the blow spinning process comprises spraying a precursor solution through an inner nozzle while flowing a process gas from an outer concentric nozzle such that the precursor when sprayed elongates into ultra-thin filaments, followed by a thermal treatment to remove the binders and sinter the ceramic to convert the precursor solution to ceramic; the damaged region is a region which has a physical deformity or imperfection; in which the precursor solution comprises binders and zirconium, oxides and any dopants.
A method for wireless communication at a first wireless communication device, the method comprising: establishing (1202, 1302) a first sidelink with a second wireless communication device on a first frequency band comprising a first carrier frequency; establishing (1204, 1304), at least in part utilizing the first sidelink, a second sidelink with the second wireless communication device on a second frequency band comprising a second carrier frequency; characterized by exchanging synchronization reference information with the second wireless communication device to synchronize timing on the first sidelink and the second sidelink, wherein the exchanged synchronization reference information indicates at least a timing offset between respective slot boundaries of the first and second sidelinks; transmitting (1208, 1308) sidelink control information, SCI, based on the timing offset on the first sidelink, the SCI comprising an indicator that the SCI is scheduling data to be transmitted from the first wireless communication device to the second wireless communication device on the second sidelink; and transmitting (1210, 1310) the data to the second wireless communication device on the second sidelink. establishing (1202, 1302) a first sidelink with a second wireless communication device on a first frequency band comprising a first carrier frequency; establishing (1204, 1304), at least in part utilizing the first sidelink, a second sidelink with the second wireless communication device on a second frequency band comprising a second carrier frequency; characterized by exchanging synchronization reference information with the second wireless communication device to synchronize timing on the first sidelink and the second sidelink, wherein the exchanged synchronization reference information indicates at least a timing offset between respective slot boundaries of the first and second sidelinks; transmitting (1208, 1308) sidelink control information, SCI, based on the timing offset on the first sidelink, the SCI comprising an indicator that the SCI is scheduling data to be transmitted from the first wireless communication device to the second wireless communication device on the second sidelink; and transmitting (1210, 1310) the data to the second wireless communication device on the second sidelink.
A method for obtaining at least one semi-polar layer of at least one material comprising nitride and at least one of gallium (Ga), indium (In) and aluminium (Al) on an upper surface of a crystalline substrate, said method comprising the steps of: - obtaining, on the upper surface of the crystalline substrate, a plurality of parallel grooves (320, 410, 420) which extend mainly in a first direction, each groove (320, 410, 420) being continuous, each groove (320, 410, 420) comprising at least two opposite inclined facets (330, 331), at least one of said two opposing facets (330, 331) having a crystal orientation {1 1 1}; - masking the upper surface of the crystalline substrate so that the facets opposite to said facets having a crystal orientation {1 1 1} are masked and that said facets having a crystal orientation {1 1 1} are not masked; - epitaxially growth of said semipolar layer; the method further comprising the following steps performed after the step of obtaining the plurality of parallel grooves (320, 410, 420) and before the epitaxial growth step of said semi-polar layer: - etching a plurality of parallel trenches extending in a second direction rotated with respect to said first direction of the grooves (320, 410, 420), thereby interrupting the continuous grooves (320, 410, 420) so as to form a matrix of individual facets each having a crystal orientation and such that said individual facets are formed from said trenches and are separated by said trenches; the trenches and grooves (320, 410, 420) each having a bottom, the bottom of the trenches being at the same depth or below the bottom (411, 421) of the grooves (320, 410, 420); such that during said epitaxial growth step, said material grows only from said individual facets which have a crystal orientation {1 1 1} and which form said matrix. - obtaining, on the upper surface of the crystalline substrate, a plurality of parallel grooves (320, 410, 420) which extend mainly in a first direction, each groove (320, 410, 420) being continuous, each groove (320, 410, 420) comprising at least two opposite inclined facets (330, 331), at least one of said two opposing facets (330, 331) having a crystal orientation {1 1 1}; - masking the upper surface of the crystalline substrate so that the facets opposite to said facets having a crystal orientation {1 1 1} are masked and that said facets having a crystal orientation {1 1 1} are not masked; - epitaxially growth of said semipolar layer; - etching a plurality of parallel trenches extending in a second direction rotated with respect to said first direction of the grooves (320, 410, 420), thereby interrupting the continuous grooves (320, 410, 420) so as to form a matrix of individual facets each having a crystal orientation and such that said individual facets are formed from said trenches and are separated by said trenches; the trenches and grooves (320, 410, 420) each having a bottom, the bottom of the trenches being at the same depth or below the bottom (411, 421) of the grooves (320, 410, 420);
A method in a computer system comprising one or more processors (125,140) and a cache, the method comprising: determining whether to replay a store instruction to re-acquire at least one cache line based upon a state of the store instruction indicated by a status of said at least one cache line and an execution phase (510;520;530;540;550) of the store instruction and a determination whether at least one previous replay of the store instruction modified the status of said at least one cache line by transitioning out of a replay state to be closer to a writable state that allows the store instruction to commit, and replaying the store instruction in response to determining to replay the store instruction. determining whether to replay a store instruction to re-acquire at least one cache line based upon a state of the store instruction indicated by a status of said at least one cache line and an execution phase (510;520;530;540;550) of the store instruction and a determination whether at least one previous replay of the store instruction modified the status of said at least one cache line by transitioning out of a replay state to be closer to a writable state that allows the store instruction to commit, and replaying the store instruction in response to determining to replay the store instruction.
An image display apparatus comprising: a first light source; a first scanner configured to receive the light output from the first light source and configured to scan the light output from the first light source to focus the light output from the first light source on an eye of a user based on a detected position of the eye of the user; a spherical lens configured to receive light output from the first light source; a diffuser configured to operate as a beam shaper and output diffused light to the spherical lens; a parabolic mirror configured to receive light output from the first scanner and configured to output the light output from the first scanner in a direction that is perpendicular to a light incidence surface of the diffuser; an aspherical lens configured to receive light output from the spherical lens; a first free curved mirror configured to receive light output from the aspherical lens is incident; a second free curved mirror configured to receive light output from the first free curved mirror; a third free curved mirror configured to receive light output from the second free curved mirror; and an image display panel configured to receive light output from the third free curved mirror and configured to display image information, wherein a first light path of the light output from the first free curved mirror to the second free curved mirror, a second light path of the light output from the second free curved mirror to the third free curved mirror, and a third light path of the light output from the third free curved mirror to the image display panel intersect each other. a first light source; a first scanner configured to receive the light output from the first light source and configured to scan the light output from the first light source to focus the light output from the first light source on an eye of a user based on a detected position of the eye of the user; a spherical lens configured to receive light output from the first light source; a diffuser configured to operate as a beam shaper and output diffused light to the spherical lens; a parabolic mirror configured to receive light output from the first scanner and configured to output the light output from the first scanner in a direction that is perpendicular to a light incidence surface of the diffuser; an aspherical lens configured to receive light output from the spherical lens; a first free curved mirror configured to receive light output from the aspherical lens is incident; a second free curved mirror configured to receive light output from the first free curved mirror; a third free curved mirror configured to receive light output from the second free curved mirror; and an image display panel configured to receive light output from the third free curved mirror and configured to display image information, wherein a first light path of the light output from the first free curved mirror to the second free curved mirror, a second light path of the light output from the second free curved mirror to the third free curved mirror, and a third light path of the light output from the third free curved mirror to the image display panel intersect each other.