mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a machining segment (11A, 11B; 21A, 21B; 31; 37; 41) from a first matrix material and first hard material particles for a machining tool (10A, 10B; 20A, 20B; 30; 36), wherein the machining segment is connected by an underside to a basic body (12A, 12B; 22A, 22B; 32; 38) of the machining tool (10A, 10B; 20A, 20B; 30; 36) and the projection (T1) at least of a first hard material particle with respect to the first matrix material is greater than 400 μm, with the following steps: • a green body is built up from the first matrix material and the first hard material particles , wherein the first hard material particles are placed in the first matrix material according to a defined particle pattern, • the green body is compacted under the action of pressure between a first press punch , which forms the underside of the machining segment, and a second press punch , which forms an upper side of the machining segment opposite from the underside , in a pressing direction perpendicular to the cross-sectional area of the green body, to form a compact body and • the compact body is further processed under the action of temperature or by infiltration to form the machining segment , characterized in that a second press punch , which has depressions in a pressing surface, is used when compacting the green body , the arrangement of the depressions corresponding to the defined particle pattern of the first hard material particles . • a green body is built up from the first matrix material and the first hard material particles , wherein the first hard material particles are placed in the first matrix material according to a defined particle pattern, • the green body is compacted under the action of pressure between a first press punch , which forms the underside of the machining segment, and a second press punch , which forms an upper side of the machining segment opposite from the underside , in a pressing direction perpendicular to the cross-sectional area of the green body, to form a compact body and • the compact body is further processed under the action of temperature or by infiltration to form the machining segment ,
A hot-dip galvanized steel sheet comprising: a base steel; and a hot-dip galvanizing layer disposed on a surface of the base steel, wherein the hot-dip galvanizing layer contains 0.1 to 0.8 weight percentage (wt %) of aluminum (Al), 0.05 to 1 wt % of manganese (Mn), with a remainder of zinc (Zn) and inevitable impurities, and optionally contains one or more elements selected from titanium (Ti), calcium (Ca), manganese (Mg), nickel (Ni), and antimony (Sb) in a manner that a total content of the one or more elements is 1 % or less (excluding zero), and a surface of the hot-dip galvanizing layer is provided with crystallites having a major axis length of 1 to 20 μm and comprising 2 to 11 atomic percentage (at %) of Al, 0.6 to 6 at % of Mn, 0 to 2 at % of iron (Fe), and a remainder of Zn, wherein an atomic percentage ratio of Mn and Al (Mn/Al) contained in the crystallites ranges from 0.2 to 0.6. a base steel; and a hot-dip galvanizing layer disposed on a surface of the base steel, wherein the hot-dip galvanizing layer contains 0.1 to 0.8 weight percentage (wt %) of aluminum (Al), 0.05 to 1 wt % of manganese (Mn), with a remainder of zinc (Zn) and inevitable impurities, and optionally contains one or more elements selected from titanium (Ti), calcium (Ca), manganese (Mg), nickel (Ni), and antimony (Sb) in a manner that a total content of the one or more elements is 1 % or less (excluding zero), and a surface of the hot-dip galvanizing layer is provided with crystallites having a major axis length of 1 to 20 μm and comprising 2 to 11 atomic percentage (at %) of Al, 0.6 to 6 at % of Mn, 0 to 2 at % of iron (Fe), and a remainder of Zn, wherein an atomic percentage ratio of Mn and Al (Mn/Al) contained in the crystallites ranges from 0.2 to 0.6.
Box of a battery, comprising: a first component , comprising a first interface ; a second component , configured to connect with the first component to form a chamber , the second component comprising a second interface , the second interface being configured to be arranged opposite to the first interface ; a first locking mechanism , configured to lock the first component and the second component , so that the first interface and the second interface are sealed and connected; wherein, the first locking mechanism is configured to be actuated when an internal pressure of the chamber exceeds a preset value, so that the first interface and the second interface break away from a sealed state to relieve the internal pressure of the chamber ; wherein the first locking mechanism is further configured to recover the first interface and the second interface to the sealed state, when the internal pressure of the chamber is relieved to smaller than or equal to the preset value; wherein the first locking mechanism comprises an elastic element , and the elastic element is configured to generate elastic deformation when the internal pressure of the chamber exceeds the preset value, so that the first interface and the second interface break away from the sealed state; and wherein at least one abutment surface for abutting against the elastic element is provided with a restraint part , and the restraint part is configured to restrain movement of the elastic element perpendicular to an elasticity direction of the elastic element . a first component , comprising a first interface ; a second component , configured to connect with the first component to form a chamber , the second component comprising a second interface , the second interface being configured to be arranged opposite to the first interface ; a first locking mechanism , configured to lock the first component and the second component , so that the first interface and the second interface are sealed and connected; wherein, the first locking mechanism is configured to be actuated when an internal pressure of the chamber exceeds a preset value, so that the first interface and the second interface break away from a sealed state to relieve the internal pressure of the chamber ; wherein the first locking mechanism is further configured to recover the first interface and the second interface to the sealed state, when the internal pressure of the chamber is relieved to smaller than or equal to the preset value; wherein the first locking mechanism comprises an elastic element , and the elastic element is configured to generate elastic deformation when the internal pressure of the chamber exceeds the preset value, so that the first interface and the second interface break away from the sealed state; and wherein at least one abutment surface for abutting against the elastic element is provided with a restraint part , and the restraint part is configured to restrain movement of the elastic element perpendicular to an elasticity direction of the elastic element .
Suitcase comprising a suitcase body that is delimited by a back wall and by side walls that adjoin said back wall and are arranged on two opposing narrow and long sides of the suitcase body in each case, and said suitcase comprising a folding lid that is formed on at least one side of the suitcase body and can be connected to the suitcase body by means of a zip fastener , wherein one side wall comprises a recess on a narrow side in which an overlapping segment of the lid engages such that the overlapping segment forms the side wall of the suitcase body at least in part, wherein the zip fastener comprises two band halves , wherein one band half of the zip fastener extending along an upper edge of the suitcase body that is formed by the side walls and the recess , and a further band half of the zip fastener extending along a lower edge of the lid that is formed by a lid base surface and the overlapping segment , characterised in that at least partially along the band half of the zip fastener in the lid an edge reinforcement made of plastic or metal extends at least partially for dimensionally stabilizing the lid .
An arrangement for a brake control lever or control lever of a power take-off connection comprising an actuation lever rotatable by means of a pin with respect to a support , that can be positioned on a motor vehicle, wherein a relative positioning device is positioned between said actuation lever and said support , that can be actuated by means of a release button positioned on said actuation lever , an end of a control cable of a brake or power take-off connection being constrained by means of a further pin to said actuation lever , said actuation lever being rotatable between a rest position, lowered with respect to the underlying support and wherein the cable is loose or untensioned, and an operative engagement or blocking position of the brake or power take-off connection, rotated, raised and spaced from the support , wherein said further pin , positioned at said end of said cable , can be moved backwards and forwards within at least one slot of a body of said actuation lever in opposition to a preloaded elastic element when a force is applied by means of said cable , characterized in that said further pin being positioned at a first end of said at least one slot with said pre-loaded elastic element at rest and said force only being established when said actuation lever has been moved from said lowered rest position to said rotated raised operative engagement or blocking position of the brake or power take-off connection, wherein said further pin slides inside said at least one slot towards a second of its ends varying the direction of said cable and causing a pulling of the cable itself with the lifting of the body of said actuation lever .
A ball screw nut comprising: a cylindrical nut part having, on an inner peripheral surface, a ball rolling groove in a helical shape; and a cylindrical pulley part integrally molded with the cylindrical nut part on an outer peripheral side of the cylindrical nut part and having external teeth , wherein the cylindrical pulley part includes a cylindrical portion extending in an axial direction and facing the cylindrical nut part in a radial direction, and an extended portion extending radially inward from the cylindrical portion , characterized in that : said extended portion is facing the cylindrical nut part in the axial direction, and a restriction part for restricting relative rotation of the cylindrical nut part and the cylindrical pulley part is provided between a facing surface of the extended portion facing the cylindrical nut part and a facing surface of the cylindrical nut part facing the extended portion . a cylindrical nut part having, on an inner peripheral surface, a ball rolling groove in a helical shape; and a cylindrical pulley part integrally molded with the cylindrical nut part on an outer peripheral side of the cylindrical nut part and having external teeth , wherein the cylindrical pulley part includes a cylindrical portion extending in an axial direction and facing the cylindrical nut part in a radial direction, and an extended portion extending radially inward from the cylindrical portion , characterized in that : said extended portion is facing the cylindrical nut part in the axial direction, and a restriction part for restricting relative rotation of the cylindrical nut part and the cylindrical pulley part is provided between a facing surface of the extended portion facing the cylindrical nut part and a facing surface of the cylindrical nut part facing the extended portion . said extended portion is facing the cylindrical nut part in the axial direction, and a restriction part for restricting relative rotation of the cylindrical nut part and the cylindrical pulley part is provided between a facing surface of the extended portion facing the cylindrical nut part and a facing surface of the cylindrical nut part facing the extended portion .
An electronic device comprising: a metal frame including an opening at a center part of the metal frame; a metal plate included in the opening and having at least one part displaced from the metal frame; a bonding member configured to fix the metal plate to the metal frame and fill a gap between the metal frame and the metal plate; a printed circuit board configured to contact with or disposed adjacent to a surface of the metal plate; a communication module mounted on the printed circuit board and electrically connected to at least one part of the metal frame; a display configured to contact with or disposed adjacent to said surface of the metal plate or another surface of the metal plate; a first plate configured to cover at least one part of the display while forming a part of an external housing together with the metal frame; and a second plate configured to cover the opposite side of the display and form a part of the external housing together with the metal frame, wherein: the metal plate comprises at least one of an interlacing structure, a staggering structure, and an extrusion-dent structure. a metal frame including an opening at a center part of the metal frame; a metal plate included in the opening and having at least one part displaced from the metal frame; a bonding member configured to fix the metal plate to the metal frame and fill a gap between the metal frame and the metal plate; a printed circuit board configured to contact with or disposed adjacent to a surface of the metal plate; a communication module mounted on the printed circuit board and electrically connected to at least one part of the metal frame; a display configured to contact with or disposed adjacent to said surface of the metal plate or another surface of the metal plate; a first plate configured to cover at least one part of the display while forming a part of an external housing together with the metal frame; and a second plate configured to cover the opposite side of the display and form a part of the external housing together with the metal frame, wherein: the metal plate comprises at least one of an interlacing structure, a staggering structure, and an extrusion-dent structure.
Method for allocating resources of a network infrastructure for the provision of a telecommunications service, wherein the method comprises: - receiving , by a resource orchestrator , a request to instantiate virtualized functions on servers; - determining servers to be allocated and resources of the network infrastructure enabling connectivity between said servers on the basis of the instantiation request ; - sending, to the determined resources, a configuration request enabling connectivity between said determined servers ; - sending, to the determined servers, a request to allocate computing means on said determined servers . - receiving , by a resource orchestrator , a request to instantiate virtualized functions on servers; - determining servers to be allocated and resources of the network infrastructure enabling connectivity between said servers on the basis of the instantiation request ; - sending, to the determined resources, a configuration request enabling connectivity between said determined servers ; - sending, to the determined servers, a request to allocate computing means on said determined servers .
Process for the additive manufacturing of a three-dimensional metal part of a thin blade for forming furrows in the tread of a tyre, said thin blade being intended to be inserted into a curing mould of said tyre, having at least a monolithic part and having large variations in thickness, comprising an inner part , referred to as a "core", surrounded by an outer part , referred to as a "shell", this process consisting in successively solidifying successively deposited layers of metal powder (C1, C2, Cx, Cy, Cn) by melting with the aid of a laser beam , and in defining in each of these different successive layers of powder either at least one shell region , which constitutes a portion of said shell of the metal part to be manufactured, or at least one core region , surrounded by a shell region , said core region constituting a portion of said core of the metal part to be manufactured, characterized in that the melting of said core regions is effected by scanning with said laser beam so as to form longitudinal weld beads that have identical widths (L), are mutually parallel and that are either juxtaposed or spaced apart from one another by a distance (L2) less than X% of their width (L), or overlap over a distance (L1) less than X% of their width (L), and in that the melting of said shell regions is effected by scanning with said laser beam so as to form longitudinal weld beads that have identical widths (L) and an identical width to the weld beads of the core, are mutually parallel and that overlap over a distance (L3) greater than X% of their width (L), X being equal to 30.
An aqueous colorant composition comprising poly(lactic acid) (PLA) and a colorant, wherein the colorant is a dye.
A thermoelectric generator comprising; a heat-receiving plate comprising a heat-receiving surface that receives flame and high-temperature combustion gas; a thermoelectric generation module provided at a surface of the heat-receiving plate opposite the heat-receiving surface; a cooling plate disposed at a side of the thermoelectric generation module opposite a side where the heat-receiving plate is disposed; characterised by a cover covering the heat-receiving surface, the cover comprising a heat inlet that introduces the flame and the high-temperature combustion gas and a heat outlet that discharges the combustion gas introduced through the heat inlet and reduced in temperature; a heat diffuser disposed on the heat-receiving surface at a position corresponding to the heat inlet, the heat diffuser diffusing the combustion gas introduced through the heat inlet along the heat-receiving surface; and a heat absorber disposed on the heat-receiving surface to surround the heat diffuser, the heat absorber absorbing a heat of the high-temperature combustion gas diffused by the heat diffuser. a heat-receiving plate comprising a heat-receiving surface that receives flame and high-temperature combustion gas; a thermoelectric generation module provided at a surface of the heat-receiving plate opposite the heat-receiving surface; a cooling plate disposed at a side of the thermoelectric generation module opposite a side where the heat-receiving plate is disposed; characterised by a cover covering the heat-receiving surface, the cover comprising a heat inlet that introduces the flame and the high-temperature combustion gas and a heat outlet that discharges the combustion gas introduced through the heat inlet and reduced in temperature; a heat diffuser disposed on the heat-receiving surface at a position corresponding to the heat inlet, the heat diffuser diffusing the combustion gas introduced through the heat inlet along the heat-receiving surface; and a heat absorber disposed on the heat-receiving surface to surround the heat diffuser, the heat absorber absorbing a heat of the high-temperature combustion gas diffused by the heat diffuser.
An Application Server for interfacing with a cellular network, comprising: a proximity service function interface, configured to receive a Map Request from a first Proximity Service Function on behalf of a first User Equipment, UE ; and security logic, configured to authenticate the Map Request and, if the Map Request is authenticated, to communicate a Map Response to the first Proximity Service Function ; and wherein the security logic is further configured to generate an application Server cryptographic signature using a cryptographic key established at the application server and to communicate the application Server cryptographic signature together with the Map Response. a proximity service function interface, configured to receive a Map Request from a first Proximity Service Function on behalf of a first User Equipment, UE ; and security logic, configured to authenticate the Map Request and, if the Map Request is authenticated, to communicate a Map Response to the first Proximity Service Function ; and wherein the security logic is further configured to generate an application Server cryptographic signature using a cryptographic key established at the application server and to communicate the application Server cryptographic signature together with the Map Response.
A blade outer air seal assembly , comprising: a seal segment having a base portion extending between a first circumferential side (C1) and a second circumferential side (C2) and from a first axial side (A1) to a second axial side (A2), a first wall axially spaced from a second wall , the first and second walls extending from the base portion to an outer wall to define a circumferentially extending seal passage ; a carrier having a platform , wherein a portion of the platform is within the seal passage , and wherein a radially extending first hook and a radially extending second hook protrude from the platform and are configured to engage with a support structure ; characterised in that a post extends radially outward from the platform and engages with an edge of the outer wall , wherein the post is centered on the platform in the axial direction, and wherein the post is arranged axially between the first and second hooks . a seal segment having a base portion extending between a first circumferential side (C1) and a second circumferential side (C2) and from a first axial side (A1) to a second axial side (A2), a first wall axially spaced from a second wall , the first and second walls extending from the base portion to an outer wall to define a circumferentially extending seal passage ; a carrier having a platform , wherein a portion of the platform is within the seal passage , and wherein a radially extending first hook and a radially extending second hook protrude from the platform and are configured to engage with a support structure ; characterised in that a post extends radially outward from the platform and engages with an edge of the outer wall , wherein the post is centered on the platform in the axial direction, and wherein the post is arranged axially between the first and second hooks .
A fluoropolymer composition comprising a solubilized fluoropolymer and the solvent blend of - a diester of formula (I) : R 1 -OOC-A-COO-R 2 , wherein - R 1 and R 2 , identical or different, are C 1 -C 20 alkyl, aryl, alkyaryl, or arylalkyl groups, linear or branched, cyclic or non cyclic, and - A is a linear or branched divalent alkylene group, and - DiMethylSulfoxide (DMSO). - a diester of formula (I) : R 1 -OOC-A-COO-R 2 , wherein - R 1 and R 2 , identical or different, are C 1 -C 20 alkyl, aryl, alkyaryl, or arylalkyl groups, linear or branched, cyclic or non cyclic, and - A is a linear or branched divalent alkylene group, and - R 1 and R 2 , identical or different, are C 1 -C 20 alkyl, aryl, alkyaryl, or arylalkyl groups, linear or branched, cyclic or non cyclic, and - A is a linear or branched divalent alkylene group, and - DiMethylSulfoxide (DMSO).