mhurhangee/patent-ind-claim-en huggingface dataset:
A yieldable rock anchor , comprising: - a non-unitary elongated tendon extending longitudinally along a tendon axis (A) from a proximal end to a distal end , the tendon including -- a substantially non-yielding rigid first anchor portion , and -- at least one plastically deformable axially yielding portion intermediate said non-yielding rigid first anchor portion and said proximal end , wherein both the first anchor portion and the at least one yielding portion are hollow bar members, characterized in that - the first anchor portion is disposed at said distal end and extends towards said proximal end , - the first anchor portion and the at least one yielding portion are integrally joined to one another in an end-to-end manner by welding or gluing to form at least part of said elongated tendon , - strength tolerance bands of any substantially non-yielding rigid anchor portion and the at least one plastically deformable axially yielding portion do not overlap, and - the at least one axially yielding portion has a deformation range of at least 100 mm/m, preferably of at least 120 mm/m, and most preferably of at least 150 mm/m. - a non-unitary elongated tendon extending longitudinally along a tendon axis (A) from a proximal end to a distal end , the tendon including -- a substantially non-yielding rigid first anchor portion , and -- at least one plastically deformable axially yielding portion intermediate said non-yielding rigid first anchor portion and said proximal end , wherein both the first anchor portion and the at least one yielding portion are hollow bar members, characterized in that - the first anchor portion is disposed at said distal end and extends towards said proximal end , - the first anchor portion and the at least one yielding portion are integrally joined to one another in an end-to-end manner by welding or gluing to form at least part of said elongated tendon , - strength tolerance bands of any substantially non-yielding rigid anchor portion and the at least one plastically deformable axially yielding portion do not overlap, and - the at least one axially yielding portion has a deformation range of at least 100 mm/m, preferably of at least 120 mm/m, and most preferably of at least 150 mm/m. -- a substantially non-yielding rigid first anchor portion , and -- at least one plastically deformable axially yielding portion intermediate said non-yielding rigid first anchor portion and said proximal end , - the first anchor portion is disposed at said distal end and extends towards said proximal end , - the first anchor portion and the at least one yielding portion are integrally joined to one another in an end-to-end manner by welding or gluing to form at least part of said elongated tendon , - strength tolerance bands of any substantially non-yielding rigid anchor portion and the at least one plastically deformable axially yielding portion do not overlap, and - the at least one axially yielding portion has a deformation range of at least 100 mm/m, preferably of at least 120 mm/m, and most preferably of at least 150 mm/m.
A radial diffuser for a heat exchanger system, the radial diffuser comprising: a diffuser inlet section which is upstream of the heat exchanger system and oriented along a central flow axis of the radial diffuser, the diffuser inlet section having a cylindrical shape which extends along the central flow axis and a circular cross section along an inlet section plane perpendicular to the central flow axis; a diffuser outlet section which is downstream of the diffuser inlet section with respect to the central flow axis; a diffuser wall comprising a diffuser wall inner surface defining a fluid flow path which is non-linear, the diffuser wall inner surface comprising: a convex curved section adjacent to the diffuser inlet section and having a convex curvature with respect to the central flow axis; and a concave curved section adjacent to the diffuser outlet section and having a concave curvature with respect to the central flow axis, wherein the concave curved section is adjacent to and downstream of the convex curved section with respect to the central flow axis; and a movable diffuser hub which is configured to move with respect to the central flow axis relative to the diffuser wall, thereby altering a fluid flow through the radial diffuser. a diffuser inlet section which is upstream of the heat exchanger system and oriented along a central flow axis of the radial diffuser, the diffuser inlet section having a cylindrical shape which extends along the central flow axis and a circular cross section along an inlet section plane perpendicular to the central flow axis; a diffuser outlet section which is downstream of the diffuser inlet section with respect to the central flow axis; a diffuser wall comprising a diffuser wall inner surface defining a fluid flow path which is non-linear, the diffuser wall inner surface comprising: a convex curved section adjacent to the diffuser inlet section and having a convex curvature with respect to the central flow axis; and a concave curved section adjacent to the diffuser outlet section and having a concave curvature with respect to the central flow axis, wherein the concave curved section is adjacent to and downstream of the convex curved section with respect to the central flow axis; and a convex curved section adjacent to the diffuser inlet section and having a convex curvature with respect to the central flow axis; and a concave curved section adjacent to the diffuser outlet section and having a concave curvature with respect to the central flow axis, wherein the concave curved section is adjacent to and downstream of the convex curved section with respect to the central flow axis; and a movable diffuser hub which is configured to move with respect to the central flow axis relative to the diffuser wall, thereby altering a fluid flow through the radial diffuser.
Commercial vehicle , in particular construction vehicle, with a drivers cab with at least one drivers cab door , and with a raised stand for a person approximately in the region and/or approximately at the height of an actuating handle of an associated door lock for opening the drivers cab door , wherein the door lock for opening the drivers cab door can also be actuated by means of an additional actuating means (11; 13; 15; 18) which is arranged in addition to the actuating handle in the region of the raised stand , wherein the additional actuating means (11; 13; 15; 18) is arranged spaced apart from the actuating handle in the region of the raised stand , characterized in that the actuating means, additionally to the lower actuating handle assigned to the door lock, includes at least one further, upper actuating handle , as seen in the direction of the vertical axis, in the upper, laterally rear region of the drivers cab door and/or in the upper, laterally rear region of the drivers cab , said upper actuating handle being coupled to the lower actuating handle and/or to an opening mechanism of the door lock for opening the door.
A depot composition comprising a xerogel with embedded hydrolytically degradable particles, wherein a matrix of the xerogel has a dry weight that is at least 30% of a sum of the dry weight of the xerogel matrix and a dry weight of the embedded hydrolytically degradable particles, with the xerogel being a biocompatible hydrogel after exposure to intraocular fluid, with the hydrogel being hydrolytically degradable, wherein the embedded hydrolytically degradable particles comprise a therapeutic agent and a hydrolytically degradable polymer material, wherein the embedded hydrolytically degradable particles hydrolytically degrade in a physiological fluid to provide a controlled release of the therapeutic agent wherein an index of depot residue retention (IRR) is less than 1.0, with IRR being a time to full dissolution of the depot divided by a time to release of 100% of the therapeutic agent for use in the treatment of an ocular disease by placing the depot composition into an anterior chamber of an eye.
A method for treating solid waste or contaminated water or contaminated soil or sand with the aim of cleaning them and recover metals or metal compounds therefrom, characterized in that the method comprises the method steps of: - pretreating the incoming material by liberating the incoming material from coarse mechanical impurities, when contaminated water is treated, or by crushing and liberating the incoming material from coarse mechanical foreign bodies, when solid waste or contaminated soil or sand is treated; - mixing the incoming material with a separating liquid, and separating the developed mixture into an oil-containing phase, an aqueous phase and a solid phase, when solid waste or contaminated soil or sand is treated; - concentrating the aqueous phase of the pretreated incoming material; - mixing the aqueous phase of the pretreated incoming material with an ionic liquid; - dissolving the metals or metal compounds in the ionic liquid; - separating the ionic liquid from the aqueous mixture; - eliminating or removing the metals or metal compounds from the ionic liquid by means of an electrolysis cell; - purifying the ionic liquid from possible mechanical and chemical impurities; - returning the ionic liquid into the circuit. - pretreating the incoming material by liberating the incoming material from coarse mechanical impurities, when contaminated water is treated, or by crushing and liberating the incoming material from coarse mechanical foreign bodies, when solid waste or contaminated soil or sand is treated; - mixing the incoming material with a separating liquid, and separating the developed mixture into an oil-containing phase, an aqueous phase and a solid phase, when solid waste or contaminated soil or sand is treated; - concentrating the aqueous phase of the pretreated incoming material; - mixing the aqueous phase of the pretreated incoming material with an ionic liquid; - dissolving the metals or metal compounds in the ionic liquid; - separating the ionic liquid from the aqueous mixture; - eliminating or removing the metals or metal compounds from the ionic liquid by means of an electrolysis cell; - purifying the ionic liquid from possible mechanical and chemical impurities; - returning the ionic liquid into the circuit.
A magnetic tape assembly comprising: a magnetic coating layer configured to magnetically store information for a card assembly; and a metal layer that provides at least one of a security feature, a decorative feature, or other functional feature of the card assembly, wherein the metal layer is optically continuous without magnification and has a thickness of less than 1500 angstrom, such that the metal layer prevents conduction of electrostatic discharge (ESD) through the card assembly wherein the metal layer of the magnetic stripe assembly has an optical density of at least 0.25 and no greater than 4.0. a magnetic coating layer configured to magnetically store information for a card assembly; and a metal layer that provides at least one of a security feature, a decorative feature, or other functional feature of the card assembly, wherein the metal layer is optically continuous without magnification and has a thickness of less than 1500 angstrom, such that the metal layer prevents conduction of electrostatic discharge (ESD) through the card assembly wherein the metal layer of the magnetic stripe assembly has an optical density of at least 0.25 and no greater than 4.0.
A method, comprising: patterning a substrate, including a conductive region, with photoresist exposed by lithography, where the substrate is mounted on a handle substrate ; forming a comb structure on the substrate by at least removing a portion of the conductive region of the substrate , wherein the comb structure comprises; a set of flexible conductive fingers comprising at least one conductor; a set of rigid conductive fingers comprising the at least one conductor; removing the photoresist ; the method characterized by : conformally forming, one atomic layer at a time, at least one atomic layer of at least one conductor over at least one sidewall of each conductive finger ; wherein the at least one atomic layer has a uniform thickness over the at least one sidewall ; attaching at least one insulator layer to the comb structure, and the substrate from which the comb structure is formed ; and removing the handle substrate . patterning a substrate, including a conductive region, with photoresist exposed by lithography, where the substrate is mounted on a handle substrate ; forming a comb structure on the substrate by at least removing a portion of the conductive region of the substrate , wherein the comb structure comprises; a set of flexible conductive fingers comprising at least one conductor; a set of rigid conductive fingers comprising the at least one conductor; removing the photoresist ; a set of flexible conductive fingers comprising at least one conductor; a set of rigid conductive fingers comprising the at least one conductor; removing the photoresist ; the method characterized by : conformally forming, one atomic layer at a time, at least one atomic layer of at least one conductor over at least one sidewall of each conductive finger ; wherein the at least one atomic layer has a uniform thickness over the at least one sidewall ; attaching at least one insulator layer to the comb structure, and the substrate from which the comb structure is formed ; and removing the handle substrate . conformally forming, one atomic layer at a time, at least one atomic layer of at least one conductor over at least one sidewall of each conductive finger ; wherein the at least one atomic layer has a uniform thickness over the at least one sidewall ; attaching at least one insulator layer to the comb structure, and the substrate from which the comb structure is formed ; and removing the handle substrate .
A cosmetic product comprising: an UV blocking cosmetic composition comprising: - an inorganic UV blocking agent comprising spherical titanium dioxide microparticles having a median volume particle diameter larger than 70 nm and equal to or less than 150 nm and an oil absorption larger than 0 and equal to or less than 0.5, - a further inorganic UV blocking agent comprising non-spherical titanium dioxide microparticles and zinc oxide, and a carrier including a sponge in which the UV blocking composition is impregnated, wherein the oil absorption is expressed by the amount of oil per gram of a UV-blocking agent determined by the test method defined in Korean Industrial Standard No. KS M ISO 787-5:2007, wherein the oil is caprylic/capric triglyceride, and wherein the non-spherical titanium dioxide microparticles and zinc oxide has an oil absorption of 0.5-1.0, wherein the shape of the non-spherical titanium dioxide microparticles comprises at least one shape selected from a polyhedral shape having at least two planes, rod-like shape, tubular shape and sheet-like shape. an UV blocking cosmetic composition comprising: - an inorganic UV blocking agent comprising spherical titanium dioxide microparticles having a median volume particle diameter larger than 70 nm and equal to or less than 150 nm and an oil absorption larger than 0 and equal to or less than 0.5, - a further inorganic UV blocking agent comprising non-spherical titanium dioxide microparticles and zinc oxide, and - an inorganic UV blocking agent comprising spherical titanium dioxide microparticles having a median volume particle diameter larger than 70 nm and equal to or less than 150 nm and an oil absorption larger than 0 and equal to or less than 0.5, - a further inorganic UV blocking agent comprising non-spherical titanium dioxide microparticles and zinc oxide, and a carrier including a sponge in which the UV blocking composition is impregnated, wherein the oil absorption is expressed by the amount of oil per gram of a UV-blocking agent determined by the test method defined in Korean Industrial Standard No. KS M ISO 787-5:2007, wherein the oil is caprylic/capric triglyceride, and wherein the non-spherical titanium dioxide microparticles and zinc oxide has an oil absorption of 0.5-1.0, wherein the shape of the non-spherical titanium dioxide microparticles comprises at least one shape selected from a polyhedral shape having at least two planes, rod-like shape, tubular shape and sheet-like shape.
A vertical-cavity surface-emitting laser ("VCSEL") comprising at least a substrate, electrical contacts, a first mirror region, a second mirror region and an active region between the mirror regions; where the mirror regions comprise distributed Bragg reflectors formed of a plurality of layers; laser emission is from at least one gallium arsenide antimonide nanostructure in the active region; and each said nanostructure contains more antimony atoms than arsenic atoms; wherein each nanostructure comprises a GaSb quantum ring, and each quantum ring is located within a GaAs quantum well. the mirror regions comprise distributed Bragg reflectors formed of a plurality of layers; laser emission is from at least one gallium arsenide antimonide nanostructure in the active region; and each said nanostructure contains more antimony atoms than arsenic atoms; wherein each nanostructure comprises a GaSb quantum ring, and each quantum ring is located within a GaAs quantum well.
Three-point power-lift linkage of an agricultural tractor, having a lower link, comprising a first coupling device , disposed on a first lower link end , for attaching an attachment apparatus interface, and a second coupling device , disposed on a second lower link end , for attaching an articulation point of the three-point power-lift linkage on the tractor, wherein the second coupling device has a coupling body with a catch hook and a closure mechanism , characterized in that a coupling ball assigned to the articulation point of the three-point power-lift linkage on the tractor is releasably locked within the catch hook by means of the closure mechanism .
A clutch assembly having a multi-disc clutch for a drive train of a motor vehicle, having an inner disc holder used to hold inner discs , an outer disc holder used to hold outer discs , wherein the inner discs and the outer discs overlap in the radial direction and alternate in the axial direction, and a pressure plate which, when activated via a pressure piece , brings the discs into frictional contact with one another, wherein an actuation system is also provided, which is used to actuate the multi-disc clutch , wherein the inner disc holder is designed to act as a stop for an element (42; 45) actuating the multi-disc clutch , characterised in that the inner disc holder provides radial centring of the pressure piece .
An electronic device , comprising: a wireless communication circuitry; a processor operatively connected with the wireless communication circuitry; and a memory, operatively connected with the processor , storing configured network slice selection assistance information, NSSAI, and an application , wherein the memory stores instructions, when executed, causing the processor to: when the electronic device is booted , identify a single-NSSAI, s-NSSAI, candidate group including at least one s-NSSAI, based on configuration information of the application ; determine a specified number of s-NSSAIs among the at least one s-NSSAI included in the configured NSSAI as a first requested NSSAI based on a number of s-NSSAIs included in the configured NSSAI and the s-NSSAI candidate group; and transmit a first registration request message including the first requested NSSAI, via the wireless communication circuitry. a wireless communication circuitry; a processor operatively connected with the wireless communication circuitry; and a memory, operatively connected with the processor , storing configured network slice selection assistance information, NSSAI, and an application , wherein the memory stores instructions, when executed, causing the processor to: when the electronic device is booted , identify a single-NSSAI, s-NSSAI, candidate group including at least one s-NSSAI, based on configuration information of the application ; determine a specified number of s-NSSAIs among the at least one s-NSSAI included in the configured NSSAI as a first requested NSSAI based on a number of s-NSSAIs included in the configured NSSAI and the s-NSSAI candidate group; and transmit a first registration request message including the first requested NSSAI, via the wireless communication circuitry. when the electronic device is booted , identify a single-NSSAI, s-NSSAI, candidate group including at least one s-NSSAI, based on configuration information of the application ; determine a specified number of s-NSSAIs among the at least one s-NSSAI included in the configured NSSAI as a first requested NSSAI based on a number of s-NSSAIs included in the configured NSSAI and the s-NSSAI candidate group; and transmit a first registration request message including the first requested NSSAI, via the wireless communication circuitry.
A work vehicle comprising: an engine including an exhaust gas purifier configured to purify exhaust gas; and a fan shroud disposed ahead of the engine , wherein the exhaust gas purifier includes a filter configured to collect particulate matter in the exhaust gas, the engine includes a differential pressure sensor configured to detect a pressure difference between an upstream side and a downstream side of the filter of the exhaust gas purifier in a direction in which the exhaust gas flows, and the pressure difference sensor is supported by the fan shroud , characterized in that , the engine includes an intake pipe configured to guide air sucked from outside, a temperature sensor configured to detect a temperature of the exhaust gas in the exhaust gas purifier , and a control section configured to receive a detection result of the temperature sensor , a wire connector is disposed in an intermediate portion of a wire from the temperature sensor to the control section, and the wire connector is supported by the intake pipe . an engine including an exhaust gas purifier configured to purify exhaust gas; and a fan shroud disposed ahead of the engine , wherein the exhaust gas purifier includes a filter configured to collect particulate matter in the exhaust gas, the engine includes a differential pressure sensor configured to detect a pressure difference between an upstream side and a downstream side of the filter of the exhaust gas purifier in a direction in which the exhaust gas flows, and the pressure difference sensor is supported by the fan shroud , characterized in that , the engine includes an intake pipe configured to guide air sucked from outside, a temperature sensor configured to detect a temperature of the exhaust gas in the exhaust gas purifier , and a control section configured to receive a detection result of the temperature sensor , the engine includes an intake pipe configured to guide air sucked from outside, a temperature sensor configured to detect a temperature of the exhaust gas in the exhaust gas purifier , and a control section configured to receive a detection result of the temperature sensor , a wire connector is disposed in an intermediate portion of a wire from the temperature sensor to the control section, and the wire connector is supported by the intake pipe .