mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a quenched molding, the method comprising: a first heat treatment process of heating a blanked steel material to a temperature higher than its Ac3 transformation point to perform austenite transformation, and then cooling to induce martensite transformation or bainite transformation; a second heat treatment process of heating the steel material that has undergone the first heat treatment process to a temperature higher than the Ac3 transformation point to perform austenite transformation, and then cooling to induce martensite transformation; and after the steel material has been heated to a temperature higher than the Ac3 transformation point in at least one process from out of the first heat treatment process or the second heat treatment process, completing molding at a temperature higher than an Ar3 transformation point. a first heat treatment process of heating a blanked steel material to a temperature higher than its Ac3 transformation point to perform austenite transformation, and then cooling to induce martensite transformation or bainite transformation; a second heat treatment process of heating the steel material that has undergone the first heat treatment process to a temperature higher than the Ac3 transformation point to perform austenite transformation, and then cooling to induce martensite transformation; and after the steel material has been heated to a temperature higher than the Ac3 transformation point in at least one process from out of the first heat treatment process or the second heat treatment process, completing molding at a temperature higher than an Ar3 transformation point.
Flexible lance for working or inspecting a tubesheet of a steam generator, comprising a first band of a flexible metallic material and a second band of a flexible metallic material, said second band being arranged on the first band in the longitudinal direction (L), and wherein at least the second band comprises a formation extending in the longitudinal direction (L) for receiving a supply line for a processing or inspection head arranged at the free end of the flexible lance , and wherein the first band is so connected to the second band that an open side of the formation forming a guide channel is covered by the first band , characterized in that at least one edge region of the flexible lance extending in the longitudinal direction (L) is only formed from the first band or the second band .
A sonic homogenizing module for use with a biological sample preparation system comprising a gripper module , the sonic homogenizing module comprising: a rod made of a magnetic material; a piezoelectric conductor ; a driver ; a sleeve-coupling member having a first portion defining a space for coupling with the gripper module of the biological sample preparation system, and for accommodating the piezoelectric conductor and the driver therein; and a second portion having a conduit for receiving the rod there through; and a sleeve removably fitted on and around an outer surface of the rod extending out of the conduit of the second portion of the sleeve-coupling member ; wherein the driver is electrically coupled with the piezoelectric conductor and is configured to drive the piezoelectric conductor to generate a sonic vibration; wherein the piezoelectric conductor is not in direct contact with the magnetic rod ; and wherein, when in use, the sonic vibration generated by the piezoelectric conductor is transmitted through the magnetic rod and the sleeve to reach a content in the biological sample preparation system , thereby producing a mixing and/or stirring effect. a rod made of a magnetic material; a piezoelectric conductor ; a driver ; a sleeve-coupling member having a first portion defining a space for coupling with the gripper module of the biological sample preparation system, and for accommodating the piezoelectric conductor and the driver therein; and a second portion having a conduit for receiving the rod there through; and a first portion defining a space for coupling with the gripper module of the biological sample preparation system, and for accommodating the piezoelectric conductor and the driver therein; and a second portion having a conduit for receiving the rod there through; and a sleeve removably fitted on and around an outer surface of the rod extending out of the conduit of the second portion of the sleeve-coupling member ; wherein the driver is electrically coupled with the piezoelectric conductor and is configured to drive the piezoelectric conductor to generate a sonic vibration; wherein the piezoelectric conductor is not in direct contact with the magnetic rod ; and wherein, when in use, the sonic vibration generated by the piezoelectric conductor is transmitted through the magnetic rod and the sleeve to reach a content in the biological sample preparation system , thereby producing a mixing and/or stirring effect.
A method of forming an electrical device, comprising: receiving one of a substantially transparent and transparent substrate ; and forming a graphene film on a portion of the substrate ; the method being characterized in that it further comprises: forming on a portion of the graphene film a plurality of contacts from silver nanowires; the edges of the contacts having an enhanced conductivity, wherein said forming a plurality of contacts (502, 504; 512, 514) having edges of enhanced conductivity comprises embedding or adding thin strips of higher conductivity metal at the edges of said contacts; or selectively increasing the density of silver nanowires at the edges of said contacts. receiving one of a substantially transparent and transparent substrate ; and forming a graphene film on a portion of the substrate ; the method being characterized in that it further comprises: forming on a portion of the graphene film a plurality of contacts from silver nanowires; the edges of the contacts having an enhanced conductivity, wherein said forming a plurality of contacts (502, 504; 512, 514) having edges of enhanced conductivity comprises embedding or adding thin strips of higher conductivity metal at the edges of said contacts; or selectively increasing the density of silver nanowires at the edges of said contacts. forming on a portion of the graphene film a plurality of contacts from silver nanowires; the edges of the contacts having an enhanced conductivity, wherein said forming a plurality of contacts (502, 504; 512, 514) having edges of enhanced conductivity comprises embedding or adding thin strips of higher conductivity metal at the edges of said contacts; or selectively increasing the density of silver nanowires at the edges of said contacts.
A membrane module apparatus to be subjected to steam sterilization, comprising: a hollow fiber membrane module filled with a liquid; an aseptic connection member configured to aseptically connect the membrane module apparatus to a duct, wherein said aseptic connection member comprises an aseptic connection connector having a flange-shaped connecting part that forms a connecting surface , and a sealing tape provided on the connecting surface , wherein the connecting surface is configured to be fitted with and fixed to a connecting surface of an aseptic connection connector of the duct, so that the sealing tape is interposed between these connecting surfaces , wherein the sealing tape is configured to be pulled out while maintaining the aseptic state; a connecting tube configured to connect a liquid port of the hollow fiber membrane module and the aseptic connection member to each other, wherein the connecting tube has heat resistance to the steam sterilization; a closure member configured to pinch and close the connecting tube ; and an opening/closing part configured to open and close an internal space, the internal space being located on the aseptic connection member side with respect to the closure member , in the connecting tube relative to an atmosphere. a hollow fiber membrane module filled with a liquid; an aseptic connection member configured to aseptically connect the membrane module apparatus to a duct, wherein said aseptic connection member comprises an aseptic connection connector having a flange-shaped connecting part that forms a connecting surface , and a sealing tape provided on the connecting surface , wherein the connecting surface is configured to be fitted with and fixed to a connecting surface of an aseptic connection connector of the duct, so that the sealing tape is interposed between these connecting surfaces , wherein the sealing tape is configured to be pulled out while maintaining the aseptic state; a connecting tube configured to connect a liquid port of the hollow fiber membrane module and the aseptic connection member to each other, wherein the connecting tube has heat resistance to the steam sterilization; a closure member configured to pinch and close the connecting tube ; and an opening/closing part configured to open and close an internal space, the internal space being located on the aseptic connection member side with respect to the closure member , in the connecting tube relative to an atmosphere.
A fire wall for a turbomachine auxiliary arm , said fire wall comprising one or more through openings in a thickness direction (Z) of the fire wall , and a fixed portion , characterised in comprising a first removable portion extending, in a width direction (Y), orthogonal to said thickness direction (Z), from at least one adjacent opening among the through openings , to a first outer edge of the fire wall .
A support structure for a tarpaulin for vehicles, trailers, semi-trailers and containers, comprising two series of sliders configured to be arranged for sliding along respective side supports (A1, A2) of a loading compartment (A), a plurality of carrier ribs configured to support a tarpaulin, each carrier rib connecting two sliders of the two series, respectively, to each other, wherein adjacent sliders of each series are connected to each other by means of two arms respectively hinged to the adjacent sliders , wherein said two arms are hinged to each other, and wherein each of said two arms is formed from a folded rod and comprises a pair of longitudinal portions and transverse portions (21b, 21c-21d, 22b, 22c-22d), said structure being characterized in that said two arms comprise respective heads hinged to each other, each head having a rounded cross-sectional profile at the hinge, wherein each of said heads comprises a fastening part clamped around at least one transverse portion (21c-21d, 22c-22d) of the relevant arm , wherein said heads are provided with respective cylindrical guides coupled to each other by a rotation pin , and wherein said structure further comprises a support mounted to the rotation pin , said support comprising fastening means for fastening the tarpaulin thereto. two series of sliders configured to be arranged for sliding along respective side supports (A1, A2) of a loading compartment (A), a plurality of carrier ribs configured to support a tarpaulin, each carrier rib connecting two sliders of the two series, respectively, to each other, wherein adjacent sliders of each series are connected to each other by means of two arms respectively hinged to the adjacent sliders , wherein said two arms are hinged to each other, and wherein each of said two arms is formed from a folded rod and comprises a pair of longitudinal portions and transverse portions (21b, 21c-21d, 22b, 22c-22d), said structure being characterized in that said two arms comprise respective heads hinged to each other, each head having a rounded cross-sectional profile at the hinge, wherein each of said heads comprises a fastening part clamped around at least one transverse portion (21c-21d, 22c-22d) of the relevant arm , wherein said heads are provided with respective cylindrical guides coupled to each other by a rotation pin , and wherein said structure further comprises a support mounted to the rotation pin , said support comprising fastening means for fastening the tarpaulin thereto.
An orally administrable chewing gum formulation comprising a pharmaceutically acceptable gum base and plant material prepared into fine particles, wherein at least 50% by weight of the particles have a size in the range from 50 to 2000 μm, wherein the formulation comprises 0.5-30% by wt of the particles, and the plant material comprises a pharmaceutical agent selected from the group consisting of cannabinoids and terpenes.
An apparatus for selectively sharing, towards separate users, the power of a multi-drive unit vehicle , comprising: a mechanical transmission , that connects propulsion units of the vehicle to at least one primary drive unit ; a secondary power unit for service units, which is operatively positioned between the mechanical transmission and at least one service unit of the vehicle ; and at least one of either a first or a second joint , that are mounted on the mechanical transmission on either side of the secondary power unit for service units and are switchable by operating suitable control means , wherein said primary drive unit is a combustion engine or an electric motor, said control means comprising a microprocessor-type controller , operatively interfaced with said joints , for selectively activating the sharing of power between the propulsion units and said one or each service unit , relative to operation required of the vehicle by its use; characterized by Z said microprocessor-type controller being adapted for managing said power sharing towards the propulsion unit depending on priority requests for propelling power arriving from said propulsion units . a mechanical transmission , that connects propulsion units of the vehicle to at least one primary drive unit ; a secondary power unit for service units, which is operatively positioned between the mechanical transmission and at least one service unit of the vehicle ; and at least one of either a first or a second joint , that are mounted on the mechanical transmission on either side of the secondary power unit for service units and are switchable by operating suitable control means , wherein said primary drive unit is a combustion engine or an electric motor, said control means comprising a microprocessor-type controller , operatively interfaced with said joints , for selectively activating the sharing of power between the propulsion units and said one or each service unit , relative to operation required of the vehicle by its use; characterized by Z said microprocessor-type controller being adapted for managing said power sharing towards the propulsion unit depending on priority requests for propelling power arriving from said propulsion units .
A method of installing a rotating control device in a riser housing , the method comprising: securing a running tool to the rotating control device ; conveying the rotating control device into the riser housing while the running tool is secured to the rotating control device ; characterised by producing relative rotation between first and second components of the running tool ; and then releasing the running tool from the rotating control device by longitudinally displacing the running tool relative to the rotating control device . securing a running tool to the rotating control device ; conveying the rotating control device into the riser housing while the running tool is secured to the rotating control device ; characterised by producing relative rotation between first and second components of the running tool ; and then releasing the running tool from the rotating control device by longitudinally displacing the running tool relative to the rotating control device .
A composition comprising the following: (a) propylene/ethylene interpolymer having a density from 0.860 to 0.870 g/cc, a DSC melting point (second heat) of less than 80°C, and sequences having an isotactic triad (mm) measured by 13 C NMR of greater than 0.85; (b) a propylene-based polymer selected from the group consisting of a homopolymer polypropylene, a random propylene/α-olefin interpolymer and any combination thereof, and wherein the propylene-based polymer has a density ≥ 0.885 g/cc; (c) a plasticizing agent; and (d) a third polymer selected from the group consisting of the following: (i) a styrenic ethylene/butylene triblock copolymer having a Tg (rubber block) greater than, or equal, -50°C, (ii) less than, or equal to, 15 wt%, based on the weight of the composition, of the following: an ethylene/α-olefin/diene interpolymer, an ethylene/propylene copolymer that has a density from 0.850 to 0.870 g/cc, or a combination thereof; (iii) an ethylene vinyl acetate copolymer, and (iv) any combination thereof; and wherein the composition exhibits a Shore A hardness of less than 55. (a) propylene/ethylene interpolymer having a density from 0.860 to 0.870 g/cc, a DSC melting point (second heat) of less than 80°C, and sequences having an isotactic triad (mm) measured by 13 C NMR of greater than 0.85; (b) a propylene-based polymer selected from the group consisting of a homopolymer polypropylene, a random propylene/α-olefin interpolymer and any combination thereof, and wherein the propylene-based polymer has a density ≥ 0.885 g/cc; (c) a plasticizing agent; and (d) a third polymer selected from the group consisting of the following: (i) a styrenic ethylene/butylene triblock copolymer having a Tg (rubber block) greater than, or equal, -50°C, (ii) less than, or equal to, 15 wt%, based on the weight of the composition, of the following: an ethylene/α-olefin/diene interpolymer, an ethylene/propylene copolymer that has a density from 0.850 to 0.870 g/cc, or a combination thereof; (iii) an ethylene vinyl acetate copolymer, and (iv) any combination thereof; and wherein the composition exhibits a Shore A hardness of less than 55. (i) a styrenic ethylene/butylene triblock copolymer having a Tg (rubber block) greater than, or equal, -50°C, (ii) less than, or equal to, 15 wt%, based on the weight of the composition, of the following: an ethylene/α-olefin/diene interpolymer, an ethylene/propylene copolymer that has a density from 0.850 to 0.870 g/cc, or a combination thereof; (iii) an ethylene vinyl acetate copolymer, and (iv) any combination thereof; and wherein the composition exhibits a Shore A hardness of less than 55.
A method for producing ceramic dental prosthesis parts by way of a CAD/CAM machining station , comprising the following steps: - providing a disk-shaped ceramic blank ; - attaching the blank in a mounting device of the CAD/CAM machining station so that the blank is surrounded on the circumference thereof; - controlling the CAD/CAM machining station for establishing an initial contact between the blank and the grinding tool in such a way that, due to the rotation of the grinding tool about the longitudinal axis thereof, the entire contact surface between the grinding tool and the blank has relative movement; and - machining the blank by way of the rotating grinding tool, proceeding from the initial contact, to produce the ceramic dental prosthesis parts, characterized in that the blank is attached in the mounting device by way of an adapter, which includes at least one recess that is open toward the blank, the grinding tool being introduced into the recess for feeding the grinding tool to the blank and being moved to the blank through the opening of the recess for the initial contact. - providing a disk-shaped ceramic blank ; - attaching the blank in a mounting device of the CAD/CAM machining station so that the blank is surrounded on the circumference thereof; - controlling the CAD/CAM machining station for establishing an initial contact between the blank and the grinding tool in such a way that, due to the rotation of the grinding tool about the longitudinal axis thereof, the entire contact surface between the grinding tool and the blank has relative movement; and - machining the blank by way of the rotating grinding tool, proceeding from the initial contact, to produce the ceramic dental prosthesis parts, characterized in that the blank is attached in the mounting device by way of an adapter, which includes at least one recess that is open toward the blank, the grinding tool being introduced into the recess for feeding the grinding tool to the blank and being moved to the blank through the opening of the recess for the initial contact.
A method for attaching at least one transverse anchorage element on an armor element intended to be received in an end-fitting of a flexible pipe , characterized in that it comprises the following steps: - supply of an attachment device having a cavity accepting an anchorage element ; - bringing of an opening of the cavity to face the armor element ; - melting of one end of the anchorage element facing the armor element and of a region of the armor element facing the anchorage element , inside the cavity of the attachment device ; - forging of the anchorage element transversely on the armor element , using the attachment device ; and - formation of a weld connecting the anchorage element and the armor element . - supply of an attachment device having a cavity accepting an anchorage element ; - bringing of an opening of the cavity to face the armor element ; - melting of one end of the anchorage element facing the armor element and of a region of the armor element facing the anchorage element , inside the cavity of the attachment device ; - forging of the anchorage element transversely on the armor element , using the attachment device ; and - formation of a weld connecting the anchorage element and the armor element .