mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device, comprising: a shaft , a first link , a second link , a tool member , and a band ; the first link being coupled to the shaft; the second link including a proximal end portion and distal end portion, the proximal end portion being coupled to the first link, the second link being rotatable relative to the first link about a first axis, and a guide channel being defined with the second link; the tool member including a contact portion (4464, 5464, 6464, 7464, 8464, 9464 11464) and a pulley portion , the contact portion being configured to contact a target tissue, the pulley portion being rotatably coupled to the distal end portion of the second link, the tool member being rotatable relative to the second link about a second axis, and the second axis being non-parallel to the first axis; the band including a first band portion and a second band portion , a longitudinal center line of the band being defined between the first band portion and the second band portion, the first band portion being within the guide channel, the second band portion being coupled to the tool member, the band being twisted along the longitudinal center line of the band; and the tool member being rotatable relative to the second link about the second axis as the band is moved along the longitudinal center line of the band. a shaft , a first link , a second link , a tool member , and a band ; the first link being coupled to the shaft; the second link including a proximal end portion and distal end portion, the proximal end portion being coupled to the first link, the second link being rotatable relative to the first link about a first axis, and a guide channel being defined with the second link; the tool member including a contact portion (4464, 5464, 6464, 7464, 8464, 9464 11464) and a pulley portion , the contact portion being configured to contact a target tissue, the pulley portion being rotatably coupled to the distal end portion of the second link, the tool member being rotatable relative to the second link about a second axis, and the second axis being non-parallel to the first axis; the band including a first band portion and a second band portion , a longitudinal center line of the band being defined between the first band portion and the second band portion, the first band portion being within the guide channel, the second band portion being coupled to the tool member, the band being twisted along the longitudinal center line of the band; and the tool member being rotatable relative to the second link about the second axis as the band is moved along the longitudinal center line of the band.
Method for machining workpieces on a machine tool having a work spindle , which is movable relative to a clamping device for the workpieces and into which tools for machining the workpieces can be clamped from a tool magazine , the method comprising the following steps: a) clamping a workpiece into the clamping device in such a way that at least a workpiece portion of the workpiece that is to be machined projects beyond the clamping device , b) machining the workpiece portion with at least one tool that is clamped into the work spindle , c) separating the machined workpiece portion from the residual workpiece remaining in the clamping device , and f) disposing of the residual workpiece remaining in the clamping device as a remnant , characterized in that step f) comprises the following steps: g) clamping a spindle gripper , which is self-holding in its gripping position , into the work spindle , h) moving the work spindle in such a way that the spindle gripper can grip the remnant , i) gripping the remnant by the spindle gripper , k) releasing the remnant from the clamping device , and I) moving the work spindle and depositing the spindle gripper holding the remnant for the subsequent disposal of the remnant . a) clamping a workpiece into the clamping device in such a way that at least a workpiece portion of the workpiece that is to be machined projects beyond the clamping device , b) machining the workpiece portion with at least one tool that is clamped into the work spindle , c) separating the machined workpiece portion from the residual workpiece remaining in the clamping device , and f) disposing of the residual workpiece remaining in the clamping device as a remnant , g) clamping a spindle gripper , which is self-holding in its gripping position , into the work spindle , h) moving the work spindle in such a way that the spindle gripper can grip the remnant , i) gripping the remnant by the spindle gripper , k) releasing the remnant from the clamping device , and I) moving the work spindle and depositing the spindle gripper holding the remnant for the subsequent disposal of the remnant .
Connection system for connecting a fibrous semifinished product to a positioning member (30, 30.1, 30.2) for positioning the fibrous semifinished product at least on at least one positioning means (2.1, 2.2) of a processing system for processing the fibrous semifinished product , wherein the connection system has at least one joining device for joining the fibrous semifinished product to the positioning member (30, 30.1, 30.2) and at least one placing means (44.1, 44.2) for placing the positioning member (30, 30.1, 30.2) on the connection system , characterized in that the placing means (44.1, 44.2) is a placing pin or placing plug which, in order to at least retain the fibrous semifinished product , extends from a retaining means of the connection system .
A computer-implemented method, comprising: receiving at a mobile computing device having one or more processors, an image of an object comprising a text in a source language; obtaining, at the mobile computing device, an OCR text from the image; determining, at the mobile computing device, the source language of the OCR text; determining, at the mobile computing device, a degree of translation complexity for performing machine language translation of the OCR text from the source language to a target language; determining, at the mobile computing device, at least a portion of the OCR text having a degree of translation complexity greater than a first translation complexity threshold and less than a second translation complexity threshold, wherein the second translation complexity threshold is greater than the first translation complexity threshold; transmitting, from the mobile computing device to a server, the at least a portion of the OCR text; receiving, at the mobile computing device from the server, machine language translation results of the at least a portion of the OCR text; obtaining, at the mobile computing device, a translated text based on the machine language translation results; and outputting, at a display of the mobile computing device, the translated text. receiving at a mobile computing device having one or more processors, an image of an object comprising a text in a source language; obtaining, at the mobile computing device, an OCR text from the image; determining, at the mobile computing device, the source language of the OCR text; determining, at the mobile computing device, a degree of translation complexity for performing machine language translation of the OCR text from the source language to a target language; determining, at the mobile computing device, at least a portion of the OCR text having a degree of translation complexity greater than a first translation complexity threshold and less than a second translation complexity threshold, wherein the second translation complexity threshold is greater than the first translation complexity threshold; transmitting, from the mobile computing device to a server, the at least a portion of the OCR text; receiving, at the mobile computing device from the server, machine language translation results of the at least a portion of the OCR text; obtaining, at the mobile computing device, a translated text based on the machine language translation results; and outputting, at a display of the mobile computing device, the translated text.
Cosmetic use of Réotier water for limiting skin penetration of one or more pollutant agent(s) chosen from a hydrocarbon, volatile organic compounds, metals and fine or ultrafine particles.
A multi-rotor rotorcraft , comprising: a fuselage ; six rotor assemblies operatively supported by and spaced-around the fuselage , wherein each of the six rotor assemblies defines a spin volume and a spin diameter ; and two combined rotor guards that are fixed relative to the fuselage , each bordering the spin volume of three of the six rotor assemblies , and that are each configured to provide a visual indication of the spin volumes of the three rotor assemblies , wherein the six rotor assemblies comprise: a first pair of rotor assemblies positioned on opposing lateral sides of the fuselage ; a second pair of rotor assemblies positioned on the opposing lateral sides of the fuselage ; and a third pair of rotor assemblies positioned on the opposing lateral sides of the fuselage between the first pair and the second pair ; and wherein each of the two combined rotor guards borders more than 50% of circumferential perimeters of the spin volumes of respective rotor assemblies of the first pair and the second pair and less than 50% of a circumferential perimeter of the spin volume of the third pair . a fuselage ; six rotor assemblies operatively supported by and spaced-around the fuselage , wherein each of the six rotor assemblies defines a spin volume and a spin diameter ; and two combined rotor guards that are fixed relative to the fuselage , each bordering the spin volume of three of the six rotor assemblies , and that are each configured to provide a visual indication of the spin volumes of the three rotor assemblies , wherein the six rotor assemblies comprise: a first pair of rotor assemblies positioned on opposing lateral sides of the fuselage ; a second pair of rotor assemblies positioned on the opposing lateral sides of the fuselage ; and a third pair of rotor assemblies positioned on the opposing lateral sides of the fuselage between the first pair and the second pair ; and a first pair of rotor assemblies positioned on opposing lateral sides of the fuselage ; a second pair of rotor assemblies positioned on the opposing lateral sides of the fuselage ; and a third pair of rotor assemblies positioned on the opposing lateral sides of the fuselage between the first pair and the second pair ; and wherein each of the two combined rotor guards borders more than 50% of circumferential perimeters of the spin volumes of respective rotor assemblies of the first pair and the second pair and less than 50% of a circumferential perimeter of the spin volume of the third pair .
A handover method, comprising: sending (S201), by a base station, a handover request message to a target controller, wherein the handover request message is used to instruct the target controller to configure a parameter for user equipment based on the handover request message, the parameter comprises connection status information that is indicated by the target controller and that is of the user equipment when the user equipment is handed over to a transmission point, TP, managed by the target controller, the target controller managing a plurality of TPs, and the base station has been connected to the user equipment; receiving (S205), by the base station from the target controller, a handover request response message comprising the parameter; and sending (S206), by the base station, a connection reconfiguration message comprising the parameter to the user equipment, wherein the connection reconfiguration message is used to instruct the user equipment to establish, based on the parameter and in a connection status indicated by the connection status information, a connection to the TP managed by the target controller; wherein the handover request message comprises bearer information of the user equipment, and the bearer information is used to instruct the target controller to indicate the connection status information to the user equipment based on the bearer information, wherein the connection status information is one of an ECO mode and an active mode. sending (S201), by a base station, a handover request message to a target controller, wherein the handover request message is used to instruct the target controller to configure a parameter for user equipment based on the handover request message, the parameter comprises connection status information that is indicated by the target controller and that is of the user equipment when the user equipment is handed over to a transmission point, TP, managed by the target controller, the target controller managing a plurality of TPs, and the base station has been connected to the user equipment; receiving (S205), by the base station from the target controller, a handover request response message comprising the parameter; and sending (S206), by the base station, a connection reconfiguration message comprising the parameter to the user equipment, wherein the connection reconfiguration message is used to instruct the user equipment to establish, based on the parameter and in a connection status indicated by the connection status information, a connection to the TP managed by the target controller; wherein the handover request message comprises bearer information of the user equipment, and the bearer information is used to instruct the target controller to indicate the connection status information to the user equipment based on the bearer information, wherein the connection status information is one of an ECO mode and an active mode.
A method for separating and recovering an iron-nickel alloy from a mixture of slag comprising magnetite and iron-nickel alloy, the separation and recovery method comprising: a pellet production step of producing pellets of nickel oxide ore from nickel oxide ore, the pellets being produced by being preheat treated at a temperature of 350°C to 600°C in a preheat treatment; a reduction step of obtaining the mixture of the iron-nickel alloy and the slag comprising magnetite, by subjecting the pellets of nickel oxide ore to a reducing heat treatment by heating the pellets obtained at a predetermined reduction temperature with a reducing furnace; pulverizing the mixture so that at least the slag comprising magnetite becomes a size less than 2 mm; and sorting the pulverized material with a magnetic force of 300 Gauss to 600 Gauss. a pellet production step of producing pellets of nickel oxide ore from nickel oxide ore, the pellets being produced by being preheat treated at a temperature of 350°C to 600°C in a preheat treatment; a reduction step of obtaining the mixture of the iron-nickel alloy and the slag comprising magnetite, by subjecting the pellets of nickel oxide ore to a reducing heat treatment by heating the pellets obtained at a predetermined reduction temperature with a reducing furnace; pulverizing the mixture so that at least the slag comprising magnetite becomes a size less than 2 mm; and sorting the pulverized material with a magnetic force of 300 Gauss to 600 Gauss.
A method for 3D printing a 3D item by means of Fused Deposition Modeling (FDM), the method comprising (i) providing 3D printable thermoplastic polymer material comprising particles embedded in the 3D printable thermoplastic polymer material , wherein the particles have a longest dimension length L1, a shortest dimension length L2, and an aspect ratio AR defined as the ratio of the longest dimension length L1 and the shortest dimension length L2, and (ii) depositing during a printing stage 3D printable thermoplastic polymer material to provide the 3D item to provide layers of the 3D printed thermoplastic polymer material with a layer height H, wherein 1≤AR≤4 and 1≤H/L2≤5; - wherein the longest dimension length L1 is selected from the range of 5 μm - 1 mm, wherein the layer height H is selected from the range of 50 μm - 10 mm, and wherein the 3D printable thermoplastic polymer material comprises in the range of 1-15 vol.% of the particles , relative to the total volume of the 3D printable thermoplastic polymer material . - wherein the longest dimension length L1 is selected from the range of 5 μm - 1 mm, wherein the layer height H is selected from the range of 50 μm - 10 mm, and wherein the 3D printable thermoplastic polymer material comprises in the range of 1-15 vol.% of the particles , relative to the total volume of the 3D printable thermoplastic polymer material .
Method for manufacturing foil bags, preferably tobacco bags, in which a foil web is welded, in particular ultrasonically, at a welding station , to at least one of two profile strips, which can be releasably connected to one another, of a multi-action pressure closure , preferably while the foil web and the profile strip are being continuously conveyed along the welding station , wherein the profile strip is subjected, during the welding operation, to compressive forces, which act in the longitudinal direction of said profile strip and counteract creasing of the foil web , wherein the compressive forces are applied to the profile strip by means of a force-transmission member acting on the profile strip, wherein, in the region of the welding station , the profile strip is guided laterally by a guide means in order to prevent lateral buckling, caused by the compressive forces, of the profile strip, wherein the foil web is pressed against a contact means opposite the welding member during the welding process, with the profile strip being carried along by a welding member arranged downstream of the force-transmission member , wherein the contact means faces the same side of the profile strip as the force-transmission member , characterized in that the guide means, in particular a guide roller or a guide rail, is arranged with respect to the longitudinal direction or conveying direction of the profile strip between the force-transmission member and the contact means , preferably in such a manner that it faces the same side of the profile strip as the force-transmission member and the contact means .
A decontamination method of reducing or removing tritium radiation from tritium radiation-polluted water, the method comprising the steps of: a first step (S1) of performing an addition treatment in an addition treatment tank , the addition treatment including adding 0.5-6 parts by weight of a mineral powder (PM) obtained by pulverizing a mineral comprising one or more selected from silicon dioxide ore, old shellfish fossil and radium ore, and 0.5-6 parts by weight of a nano-level carbon liquid (LC) that is a pulverized nano-carbon of particle size of 0.1 mm to 0.1 -9 mm which is mixed into purified water, to 100 parts by weight of tritium radioactive contaminated water (RCW) heated to 30-80 °C; a second step (S2) of pumping the addition treated water from the addition treatment tank to a mineral solid filled tank by a hydraulic pump (P) of 1 to 7 atmosphere pressure, the mineral solid filled tank being filled with a mineral solid (SM) in which the mineral is crushed to a predetermined size; a third step (S3) of passing the pumped addition treated water through the mineral solid filled tank , while the pumped addition treated water is colliding with the mineral solid (SM); a fourth step (S4) of returning the treated water passed through the mineral solid filled tank to the addition treatment tank by the hydraulic pump (P); and, a fifth step (S5) of performing a circulation process of repeating the second to fourth steps (S2 to S4) for 20 to 80 minutes. a first step (S1) of performing an addition treatment in an addition treatment tank , the addition treatment including adding 0.5-6 parts by weight of a mineral powder (PM) obtained by pulverizing a mineral comprising one or more selected from silicon dioxide ore, old shellfish fossil and radium ore, and 0.5-6 parts by weight of a nano-level carbon liquid (LC) that is a pulverized nano-carbon of particle size of 0.1 mm to 0.1 -9 mm which is mixed into purified water, to 100 parts by weight of tritium radioactive contaminated water (RCW) heated to 30-80 °C; a second step (S2) of pumping the addition treated water from the addition treatment tank to a mineral solid filled tank by a hydraulic pump (P) of 1 to 7 atmosphere pressure, the mineral solid filled tank being filled with a mineral solid (SM) in which the mineral is crushed to a predetermined size; a third step (S3) of passing the pumped addition treated water through the mineral solid filled tank , while the pumped addition treated water is colliding with the mineral solid (SM); a fourth step (S4) of returning the treated water passed through the mineral solid filled tank to the addition treatment tank by the hydraulic pump (P); and, a fifth step (S5) of performing a circulation process of repeating the second to fourth steps (S2 to S4) for 20 to 80 minutes.
A gas detector system comprising: an emitter configured to emit radiation in a beam path ; a detector configured to receive at least a portion of the emitted radiation; a ring reflector having a curved wall configured to contain the beam path and to reflect the emitted radiation and direct the emitted radiation around the ring reflector toward the detector , wherein the ring reflector comprises at least a portion of a spheroid shape, wherein the ring reflector is configured to allow gas to flow through at least a portion of the beam path , and wherein the detector and the emitter are mounted on the same surface within the ring reflector and are oriented side by side in the same plane; a reflector , within the ring reflector , configured to direct the beam path from the emitter to the curved wall , and a further reflector , within the ring reflector , configured to direct the beam path from the curved wall toward the detector ; and a processing circuit coupled to the detector configured to process an output from the detector . an emitter configured to emit radiation in a beam path ; a detector configured to receive at least a portion of the emitted radiation; a ring reflector having a curved wall configured to contain the beam path and to reflect the emitted radiation and direct the emitted radiation around the ring reflector toward the detector , wherein the ring reflector comprises at least a portion of a spheroid shape, wherein the ring reflector is configured to allow gas to flow through at least a portion of the beam path , and wherein the detector and the emitter are mounted on the same surface within the ring reflector and are oriented side by side in the same plane; a reflector , within the ring reflector , configured to direct the beam path from the emitter to the curved wall , and a further reflector , within the ring reflector , configured to direct the beam path from the curved wall toward the detector ; and a processing circuit coupled to the detector configured to process an output from the detector .