mhurhangee/patent-ind-claim-en huggingface dataset:
Process for lining a steel pipe for the subsea transport of fluids, comprising successively: the machining of an annular cavity in an inner wall of the pipe to be lined, said cavity being set back longitudinally relative to an end of the pipe; the deposition by welding of a first resurfacing layer made of a corrosion-resistant metal alloy on the inside of the cavity; the surface machining of the first resurfacing layer to the internal diameter of the pipe; the introduction into the pipe of a liner made of corrosion-resistant steel alloy, the liner being introduced so that one end of said liner comes into contact with the first machined resurfacing layer ; the deposition by welding of at least one second resurfacing layer made of corrosion-resistant metal alloy on the inner wall of the pipe between the end of the liner in contact with the first machined resurfacing layer and the corresponding end of the pipe; and the surface machining of the second resurfacing layer to the internal diameter of the pipe. the machining of an annular cavity in an inner wall of the pipe to be lined, said cavity being set back longitudinally relative to an end of the pipe; the deposition by welding of a first resurfacing layer made of a corrosion-resistant metal alloy on the inside of the cavity; the surface machining of the first resurfacing layer to the internal diameter of the pipe; the introduction into the pipe of a liner made of corrosion-resistant steel alloy, the liner being introduced so that one end of said liner comes into contact with the first machined resurfacing layer ; the deposition by welding of at least one second resurfacing layer made of corrosion-resistant metal alloy on the inner wall of the pipe between the end of the liner in contact with the first machined resurfacing layer and the corresponding end of the pipe; and the surface machining of the second resurfacing layer to the internal diameter of the pipe.
A connector for connection to a fluid vessel and a cooperating connector , the connector comprising: a first end from which the vessel extends, a second end, and a lumen extending therethrough from the first end to the second end; and a fluid-seal fitting that at least partially defines the lumen and sealingly mates with a seal fitting of the cooperating connector to provide conveyance of the fluid; characterized by : an outer housing positioned around the fluid-seal fitting to form an annular space therebetween with an access opening at the second end of the connector ; and the outer housing including one or more vent openings extending between the annular space and external to the annular space when the access opening of the annular space is capped, wherein the one or more outer-housing vent openings allow for drainage and air-drying of any residual amount of the fluid in the annular space . a first end from which the vessel extends, a second end, and a lumen extending therethrough from the first end to the second end; and a fluid-seal fitting that at least partially defines the lumen and sealingly mates with a seal fitting of the cooperating connector to provide conveyance of the fluid; characterized by : an outer housing positioned around the fluid-seal fitting to form an annular space therebetween with an access opening at the second end of the connector ; and the outer housing including one or more vent openings extending between the annular space and external to the annular space when the access opening of the annular space is capped, wherein the one or more outer-housing vent openings allow for drainage and air-drying of any residual amount of the fluid in the annular space .
A once-through steam generator, comprising a heat exchanger , assembled by several heat exchanging subassemblies with the same structure; the heat exchanging subassembly includes a spiral heat transmission pipe bundle , a central cylinder and a sleeve ; the spiral heat transmission pipes with different radii are concentrically and spirally arranged in an annular space between the central cylinder and the sleeve , to form one or more concentric heat exchanging pillar surfaces ; a liquid header , one end of which is connected with a main water feeding pipe , and the other end of which is connected with the spiral heat transmission pipe bundle ; a steam header , one end of which is connected with a main steam pipe , and the other end of which is connected with the spiral heat transmission pipe bundle ; characterized in that each of the heat transmission pipes of each subassembly is directly connected to the same liquid header and the same steam header .
A system including a watering pump according to one of claims 8-15 that is part of a watering equipment disposed on the parcel and configured to selectively apply water to the parcel; comprising: sensor equipment including one or more sensors disposed on a parcel of land; a user terminal ; and a gateway configured to communicate with the sensor equipment , the watering equipment , and the user terminal . sensor equipment including one or more sensors disposed on a parcel of land; a user terminal ; and a gateway configured to communicate with the sensor equipment , the watering equipment , and the user terminal .
A dental impression system , comprising: a drill tool including a preparing portion for preparing at least one of the group consisting of a bone and a tooth; and an optical sensor positioned to optically sense a geometry of the preparing portion; characterized by : a processor configured to calculate a volume of the preparing portion, based on the optically sensed geometry; and a pulsed water jet source configured for cooling the preparing portion, wherein the optical sensor is synchronized with the pulsed water jet source to sense the geometry between water jet pulses. a drill tool including a preparing portion for preparing at least one of the group consisting of a bone and a tooth; and an optical sensor positioned to optically sense a geometry of the preparing portion; characterized by : a processor configured to calculate a volume of the preparing portion, based on the optically sensed geometry; and a pulsed water jet source configured for cooling the preparing portion, wherein the optical sensor is synchronized with the pulsed water jet source to sense the geometry between water jet pulses. a processor configured to calculate a volume of the preparing portion, based on the optically sensed geometry; and a pulsed water jet source configured for cooling the preparing portion, wherein the optical sensor is synchronized with the pulsed water jet source to sense the geometry between water jet pulses.
A communications method, wherein the method is applicable to a communications apparatus, the communications apparatus supports a SIM card 1 and a SIM card 2, the communications apparatus comprises a first communications module SIM 1 and a second communications module SIM 2, the SIM 1 corresponds to the SIM card 1, the SIM 2 corresponds to the SIM card 2, and the method comprises: when the SIM 1 is in a connected state, receiving a first paging notification message from a first mobility management entity through the SIM 1, wherein the first paging notification message comprises an identifier of the SIM card 2, and the SIM card 1 is served by the first mobility management entity; and sending a service request of the SIM card 2 and the identifier of the SIM card 2 to the first mobility management entity. when the SIM 1 is in a connected state, receiving a first paging notification message from a first mobility management entity through the SIM 1, wherein the first paging notification message comprises an identifier of the SIM card 2, and the SIM card 1 is served by the first mobility management entity; and sending a service request of the SIM card 2 and the identifier of the SIM card 2 to the first mobility management entity.
A transmucosal and/or transdermal delivery system comprising a micelle composition formulated as a fine mist spray, the micelle composition comprising: at least one surfactant, wherein the at least one surfactant is a non-ionic surfactant having a Hydrophile-Lipophile Balance (HLB) value of from 12 to 16; at least one polyol; at least one active agent; at least one oil; and water, wherein the ratio of water to the at least one active agent, at least one non-ionic surfactant and at least one polyol is from 4:1 to 1:1 by weight; and wherein the micelle composition has a viscosity of from 0.005 Pas (5 cP) to 0.035 Pas (35 cP) when measured at 25°C on a Brookfield viscometer (spindle #1 at 20 rpm), and an average particle size of from 5 nm to 200 nm. at least one surfactant, wherein the at least one surfactant is a non-ionic surfactant having a Hydrophile-Lipophile Balance (HLB) value of from 12 to 16; at least one polyol; at least one active agent; at least one oil; and water, wherein the ratio of water to the at least one active agent, at least one non-ionic surfactant and at least one polyol is from 4:1 to 1:1 by weight; and wherein the micelle composition has a viscosity of from 0.005 Pas (5 cP) to 0.035 Pas (35 cP) when measured at 25°C on a Brookfield viscometer (spindle #1 at 20 rpm), and an average particle size of from 5 nm to 200 nm.
Electric hand-held machine tool , in particular an angle grinder , comprising a housing in which an electric motor is accommodated which drives a rotor shaft which is connected in a force-transmitting manner to an output unit accommodated in a gear head , wherein a housing ring is provided, which provides at least one guide section for the gear head and a guide for the electric motor , on the side of the housing ring facing away from the housing , an air guide section is formed, in which a fan mounted on the rotor shaft is accommodated, and characterized in that the side of the housing ring facing away from the housing is assigned an axial collar on which the at least one guide section for the gear head is formed. a housing ring is provided, which provides at least one guide section for the gear head and a guide for the electric motor , on the side of the housing ring facing away from the housing , an air guide section is formed, in which a fan mounted on the rotor shaft is accommodated, and characterized in that the side of the housing ring facing away from the housing is assigned an axial collar on which the at least one guide section for the gear head is formed.
A packaging system for storing a prosthetic heart valve in a sterilization solution, the packaging system comprising: a cup sized to contain a prosthetic heart valve and a volume of a sterilization solution; and a lid ; wherein the lid is securable to the cup to provide a sterile environment for the prosthetic heart valve and the sterilization solution; and further wherein securement of the lid to the cup is characterized by the absence of a threaded interface between the lid and the cup; wherein a wet packaged prosthetic heart valve is generated upon placement of the prosthetic heart valve and sterilization solution into the cup and sealing of the lid onto the cup, the packaging system being characterized in that it further comprises: a vacuum flask sized to receive the wet packaged prosthetic heart valve. a cup sized to contain a prosthetic heart valve and a volume of a sterilization solution; and a lid ; wherein the lid is securable to the cup to provide a sterile environment for the prosthetic heart valve and the sterilization solution; and further wherein securement of the lid to the cup is characterized by the absence of a threaded interface between the lid and the cup; wherein a wet packaged prosthetic heart valve is generated upon placement of the prosthetic heart valve and sterilization solution into the cup and sealing of the lid onto the cup, the packaging system being characterized in that it further comprises: a vacuum flask sized to receive the wet packaged prosthetic heart valve.
A vent adaptor assembly , comprising: a drainage body defining a vent opening , a proximal opening , a distal opening spaced from the proximal opening , and a drainage lumen extending between the proximal and distal openings , the drainage lumen being in fluid communication with the vent opening ; and a sintered porous polytetrafluoroethylene filter disposed in fluid communication with the vent opening of the drainage body, the sintered porous polytetrafluoroethylene filter defining a plurality of pores therein, the sintered porous polytetrafluoroethylene filter being directly welded to a component of the vent adaptor assembly , the component formed at least partially from polycarbonate; wherein at least some of the plurality of pores of the sintered porous polytetrafluoroethylene filter are at least partially occupied by the polycarbonate of the component of the vent adaptor assembly . a drainage body defining a vent opening , a proximal opening , a distal opening spaced from the proximal opening , and a drainage lumen extending between the proximal and distal openings , the drainage lumen being in fluid communication with the vent opening ; and a sintered porous polytetrafluoroethylene filter disposed in fluid communication with the vent opening of the drainage body, the sintered porous polytetrafluoroethylene filter defining a plurality of pores therein, the sintered porous polytetrafluoroethylene filter being directly welded to a component of the vent adaptor assembly , the component formed at least partially from polycarbonate; wherein at least some of the plurality of pores of the sintered porous polytetrafluoroethylene filter are at least partially occupied by the polycarbonate of the component of the vent adaptor assembly .
A method of forming a fuse assembly , comprising: providing a fusible element , the fusible element including a series of solid sections joined together by electrically conductive bridges ; forming an arc suppression band about the fusible element , characterised by the arc suppression band being formed using a plasma jet performing one or more of the following operations: depositing a silicone material about the fusible element as a series of droplets; cycling between 'ON' and 'OFF' states while depositing the silicone material; rotating the plasma jet and the fusible element relative to one another to form the arc suppression band about the fusible element ; spacing apart from the fusible element while the silicone material is deposited; and delivering the silicone material to the fusible element while being held at each of at least four different positions relative to the fusible element ; wherein the silicone material is delivered to the fusible element at a plurality of angles. providing a fusible element , the fusible element including a series of solid sections joined together by electrically conductive bridges ; forming an arc suppression band about the fusible element , characterised by the arc suppression band being formed using a plasma jet performing one or more of the following operations: depositing a silicone material about the fusible element as a series of droplets; cycling between 'ON' and 'OFF' states while depositing the silicone material; rotating the plasma jet and the fusible element relative to one another to form the arc suppression band about the fusible element ; spacing apart from the fusible element while the silicone material is deposited; and delivering the silicone material to the fusible element while being held at each of at least four different positions relative to the fusible element ; depositing a silicone material about the fusible element as a series of droplets; cycling between 'ON' and 'OFF' states while depositing the silicone material; rotating the plasma jet and the fusible element relative to one another to form the arc suppression band about the fusible element ; spacing apart from the fusible element while the silicone material is deposited; and delivering the silicone material to the fusible element while being held at each of at least four different positions relative to the fusible element ; wherein the silicone material is delivered to the fusible element at a plurality of angles.
A method performed by a network node of a serving public land mobile network, PLMN, associated with a user equipment , UE, the method being characterized by: receiving, from the UE , an encrypted IMSI using a public encryption key of a home PLMN of the UE for the encryption and which encrypted IMSI corresponds to the UE ; forwarding the encrypted IMSI to a home PLMN of the UE ; receiving from the home PLMN an IMSI in response to the forwarding of the encrypted IMSI; verifying that the encrypted IMSI corresponds to the UE by obtaining the public encryption key for encrypting the IMSI, encrypting the IMSI received from the home PLMN using the public encryption key, and determining that the IMSI encrypted by the network node and the encrypted IMSI received from the UE match; and performing, if there is a match, an operation related to a lawful interception of the UE using the IMSI. receiving, from the UE , an encrypted IMSI using a public encryption key of a home PLMN of the UE for the encryption and which encrypted IMSI corresponds to the UE ; forwarding the encrypted IMSI to a home PLMN of the UE ; receiving from the home PLMN an IMSI in response to the forwarding of the encrypted IMSI; verifying that the encrypted IMSI corresponds to the UE by obtaining the public encryption key for encrypting the IMSI, encrypting the IMSI received from the home PLMN using the public encryption key, and determining that the IMSI encrypted by the network node and the encrypted IMSI received from the UE match; and obtaining the public encryption key for encrypting the IMSI, encrypting the IMSI received from the home PLMN using the public encryption key, and determining that the IMSI encrypted by the network node and the encrypted IMSI received from the UE match; and performing, if there is a match, an operation related to a lawful interception of the UE using the IMSI.
Aventilating device for the simultaneous aeration and venting of rooms, comprising a housing that can be arranged on the inside of a room or in a building wall , comprising an air conveying device for an aeration medium flow leading from the outside of a building into the inside of a room for a venting medium flow leading from the inside of a room to the outside of the building, comprising a heat storage unit for heat transfer from the venting medium flow to the aeration medium flow , and comprising a closing and opening device for controlling the air flow paths, the air conveying device consisting of a fan for the aeration medium flow and of a fan for the venting medium flow , the heat storage unit having two heat accumulators , through which, in the operating state, the aeration and/or venting medium flow are able to flow over the entire surface for simultaneous aeration and venting of the inside of the room at the respective inlet and outlet openings (17,18; 19, 20), the fans being set up for continuous operation in the air conveying direction, the closing and opening device being connected upstream of the heat accumulators at the respective inlet and outlet openings (17, 18; 19, 20) of the aeration and venting medium flow for alternating and counter-rotating air flows, the first heat accumulator and the second heat accumulator being arranged on the suction side of the fans .
A tray configured for use in a printing apparatus that includes: a conveying means configured to convey the tray, that tray being configured to hold an optical disc ; and a printing means configured to perform printing onto a print surface of the optical disc held on the tray, the tray comprising: a placement surface arranged to receive the optical disc ; a pressing member arranged to press the optical disc when received on the placement surface towards a downstream side of an inserting direction of the tray with respect to the printing apparatus; and a first regulating portion configured to regulate movement of the optical disc , when received on the placement surface , by abutting the optical disc pressed by the pressing member , wherein the first regulating portion further includes an abutting surface against which an outer edge of the disc is abutted, and characterised in that the first regulating portion further comprises an inclined surface that inclines with respect to the abutting surface and covers a portion of the print surface of the disc . a placement surface arranged to receive the optical disc ; a pressing member arranged to press the optical disc when received on the placement surface towards a downstream side of an inserting direction of the tray with respect to the printing apparatus; and a first regulating portion configured to regulate movement of the optical disc , when received on the placement surface , by abutting the optical disc pressed by the pressing member , wherein the first regulating portion further includes an abutting surface against which an outer edge of the disc is abutted, and characterised in that the first regulating portion further comprises an inclined surface that inclines with respect to the abutting surface and covers a portion of the print surface of the disc . an abutting surface against which an outer edge of the disc is abutted, and characterised in that the first regulating portion further comprises an inclined surface that inclines with respect to the abutting surface and covers a portion of the print surface of the disc .
A method comprising the steps of: additively manufacturing a shell of a wax mold ; additively manufacturing a core of the wax mold ; assembling the shell of the wax mold and the core of the wax mold utilizing a non-line-of-sight feature of the core to position the core within the shell ; placing wax material into the wax mold and allowing the wax material to solidify to obtain a wax model ; removing the shell of the wax mold from the wax model while maintaining the core in the wax material ; refining the wax model by tooling a refinement into the wax material subsequent to removing the shell of the wax mold from the wax model ; forming a shell of a casting mold about the wax model subsequent to refining the wax model ; melting or vaporizing the wax material out of the casting mold ; and pouring a material of a workpiece into a cavity of the casting mold and allowing the material of the workpiece to solidify. additively manufacturing a shell of a wax mold ; additively manufacturing a core of the wax mold ; assembling the shell of the wax mold and the core of the wax mold utilizing a non-line-of-sight feature of the core to position the core within the shell ; placing wax material into the wax mold and allowing the wax material to solidify to obtain a wax model ; removing the shell of the wax mold from the wax model while maintaining the core in the wax material ; refining the wax model by tooling a refinement into the wax material subsequent to removing the shell of the wax mold from the wax model ; forming a shell of a casting mold about the wax model subsequent to refining the wax model ; melting or vaporizing the wax material out of the casting mold ; and pouring a material of a workpiece into a cavity of the casting mold and allowing the material of the workpiece to solidify.