mhurhangee/patent-ind-claim-en huggingface dataset:
A manufacturing method of a transformer circuit board , comprising following steps: plate stamping (SI), forming a plurality of metal plates with a stamping mold, each metal plate having an alignment hole , respectively, the alignment holes of the metal plates being arranged in an axial alignment; primary layering (S2), layering the metal plates between two outer insulation layers and placing the metal plates in axial alignment with each other by aligning the alignment holes , with an inner insulation layer disposed between two neighboring metal plates , so as to form a multi-layer structure having a plurality of metal plates and inner insulation layer alternately arranged; primary pressing (S3), hot pressing to combine the outer insulation layers and the inner insulation layer in a thermal melting manner to fix the metal plates between the two outer insulation layers ; characterized by secondary layering (S4), layering another metal plate on an outer side of the two outer insulation layers , respectively, at a position corresponding to positions of the alignment holes of the previously placed metal plates ; secondary pressing (S5), hot pressing the metal plates on the outer side of the outer insulation layers to achieve a tight combination thereof; and boring (S6), forming a through bore on a layout of each metal plate , and screen printing to form a solder mask layer on each outer insulation layer , with a connection pillar soldered for each through bore for fixing the metal plates , and cutting to form a transformer circuit board . plate stamping (SI), forming a plurality of metal plates with a stamping mold, each metal plate having an alignment hole , respectively, the alignment holes of the metal plates being arranged in an axial alignment; primary layering (S2), layering the metal plates between two outer insulation layers and placing the metal plates in axial alignment with each other by aligning the alignment holes , with an inner insulation layer disposed between two neighboring metal plates , so as to form a multi-layer structure having a plurality of metal plates and inner insulation layer alternately arranged; primary pressing (S3), hot pressing to combine the outer insulation layers and the inner insulation layer in a thermal melting manner to fix the metal plates between the two outer insulation layers ; characterized by secondary layering (S4), layering another metal plate on an outer side of the two outer insulation layers , respectively, at a position corresponding to positions of the alignment holes of the previously placed metal plates ; secondary pressing (S5), hot pressing the metal plates on the outer side of the outer insulation layers to achieve a tight combination thereof; and boring (S6), forming a through bore on a layout of each metal plate , and screen printing to form a solder mask layer on each outer insulation layer , with a connection pillar soldered for each through bore for fixing the metal plates , and cutting to form a transformer circuit board .
A non-transitory computer-readable storage medium storing instructions which, when executed by a computer , cause the computer to: receive (S302) image data of a patient's chest; identify (S304) the patient's lungs in the image data; determine (S306) locations of a luminal network in the patient's lungs in the image data; identify (S312) a target location in the patient's lungs, based on a selection received from a clinician or on image processing and analysis performed by the computer; generate (S314), automatically or with input from a clinician, a pathway to the target location; generate (S308) a three-dimensional model of the patient's lungs based on the image data, the 3D model showing the luminal network in the patient's lungs; determine (S318) a location of a tool based on an electromagnetic (EM) sensor as the tool is navigated within the patient's chest; cause a display device to display (S320) a view of the 3D model and to display the pathway to the target location and the determined location of the tool on the 3D model; receive (S322) cone beam computed tomography (CBCT) image data of a portion of the patient's chest based on an intra-procedural scan performed after the tool has at least partially been navigated within the patient's chest; cause the display device to display (S324) a comparison of the image data of the patient's chest and the CBCT image data; update (S328) at least a portion of the 3D model of the patient's lungs based on the CBCT image data; and cause the display device to display a view of the updated 3D model. receive (S302) image data of a patient's chest; identify (S304) the patient's lungs in the image data; determine (S306) locations of a luminal network in the patient's lungs in the image data; identify (S312) a target location in the patient's lungs, based on a selection received from a clinician or on image processing and analysis performed by the computer; generate (S314), automatically or with input from a clinician, a pathway to the target location; generate (S308) a three-dimensional model of the patient's lungs based on the image data, the 3D model showing the luminal network in the patient's lungs; determine (S318) a location of a tool based on an electromagnetic (EM) sensor as the tool is navigated within the patient's chest; cause a display device to display (S320) a view of the 3D model and to display the pathway to the target location and the determined location of the tool on the 3D model; receive (S322) cone beam computed tomography (CBCT) image data of a portion of the patient's chest based on an intra-procedural scan performed after the tool has at least partially been navigated within the patient's chest; cause the display device to display (S324) a comparison of the image data of the patient's chest and the CBCT image data; update (S328) at least a portion of the 3D model of the patient's lungs based on the CBCT image data; and cause the display device to display a view of the updated 3D model.
A steam turbine plant comprising: a high and intermediate pressure turbine having a high pressure turbine unit at one end in an axial direction (C) and an intermediate pressure turbine unit at the other end; at least one low pressure turbine disposed coaxially with the high and intermediate pressure turbine ; one or more high pressure moisture separators arranged to remove moisture from steam from the high pressure turbine unit and send the steam to the intermediate pressure turbine unit ; and a plurality of low pressure moisture separators arranged to remove the moisture from the steam from the intermediate pressure turbine unit and send the steam to the at least one low pressure turbine , characterized in that each of the one or more high pressure moisture separators comprises a part disposed on one side in a horizontal direction orthogonal to the axial direction (C) relative to a center line of the high and intermediate pressure turbine along the axial direction (C) of the high and intermediate pressure turbine and a part disposed on the other side relative to the center line, and the part disposed on the one side relative to the center line and the part disposed on the other side relative to the center line are disposed symmetrically with respect to the center line, and one or more low pressure moisture separators disposed on the one side relative to the center line and one or more low pressure moisture separators disposed on the other side relative to the center line are disposed symmetrically with respect to the center line. a high and intermediate pressure turbine having a high pressure turbine unit at one end in an axial direction (C) and an intermediate pressure turbine unit at the other end; at least one low pressure turbine disposed coaxially with the high and intermediate pressure turbine ; one or more high pressure moisture separators arranged to remove moisture from steam from the high pressure turbine unit and send the steam to the intermediate pressure turbine unit ; and a plurality of low pressure moisture separators arranged to remove the moisture from the steam from the intermediate pressure turbine unit and send the steam to the at least one low pressure turbine , characterized in that each of the one or more high pressure moisture separators comprises a part disposed on one side in a horizontal direction orthogonal to the axial direction (C) relative to a center line of the high and intermediate pressure turbine along the axial direction (C) of the high and intermediate pressure turbine and a part disposed on the other side relative to the center line, and the part disposed on the one side relative to the center line and the part disposed on the other side relative to the center line are disposed symmetrically with respect to the center line, and one or more low pressure moisture separators disposed on the one side relative to the center line and one or more low pressure moisture separators disposed on the other side relative to the center line are disposed symmetrically with respect to the center line.
A composition comprising C-2250 for use in a method of treating a patient suffering from triple negative breast cancer, wherein the C-2250 is administered intravenously, orally or a combination thereof.
A vehicle comprising: a plurality of systems; characterized by : a driving control module configured to be connected to each system of the vehicle through a security gateway of the vehicle , wherein the driving control module comprises an open application programming interface, API, and the open API is a data interface for a third-party developer configured to perform secondary development; and after the third-party developer performs secondary development on the vehicle by using the open API, the driving control module is configured to: obtain state data of the vehicle through the security gateway, and control the vehicle according to the state data. a driving control module configured to be connected to each system of the vehicle through a security gateway of the vehicle , wherein the driving control module comprises an open application programming interface, API, and the open API is a data interface for a third-party developer configured to perform secondary development; and after the third-party developer performs secondary development on the vehicle by using the open API, the driving control module is configured to: obtain state data of the vehicle through the security gateway, and control the vehicle according to the state data.
A low water content soft contact lens to be worn in the eye, wherein a pattern promoting the exchange of lacrimal fluid between the low water content soft contact lens and the eye is formed, wherein the water content is less than 1% by mass determined as disclosed in the description and a tensile elastic modulus is 100 kPa or more and 2000kPa or less determined as disclosed in the description, wherein the pattern is at least one selected from a through hole and a groove, and wherein the low water content soft contact lens includes a base material, and a layer made of an acidic polymer and a basic polymer is formed on at least a part of a surface of the base material.
An electrolyte of a dye-sensitized photoelectric conversion element for low illuminance, comprising: - a halogen, - a halide salt forming a redox couple with the halogen, - a silver halide at a concentration of 0.0001-10 mM, and - an organic solvent. - a halogen, - a halide salt forming a redox couple with the halogen, - a silver halide at a concentration of 0.0001-10 mM, and - an organic solvent.
A meat stuffing machine, comprising a base frame which supports at least one mold for forming a portion of meat to be stuffed, and a pusher , for conveying the portion of meat through a stuffing tube which communicates, at an inlet end thereof, with said mold , a casing being applicable on said stuffing tube and being designed to accommodate inside it the portion of meat moved by said pusher , the meat stuffing machine further comprising means for unwinding a spool of a ribbon of said casing in a flattened condition and supporting means for supporting the inlet end of said casing in the open condition, said supporting means being movable on command between a retracted position, in which they are spaced from the outlet end of said stuffing tube , and an advanced position, in which they are closer to the outlet end of said stuffing tube , at said stuffing tube there being means for applying said casing on said stuffing tube which can be activated on command in order to fit at least one portion of said casing on said stuffing tube , said application means having means for the engagement of said casing which can move between a receiving position, in which they are arranged in a position that faces the outlet end of said stuffing tube , and in a retracted condition in the direction of the axis of said stuffing tube , in order to allow their insertion in the inlet end of said casing , with said supporting means in said advanced position, and an application position, in which they are arranged so as to be spaced with respect to the outlet end of said stuffing tube in the direction of said mold and in an expanded condition with respect to the axis of said stuffing tube , in order to obtain the application of said casing around said stuffing tube , characterized in that said engagement means comprise a plurality of laminas which are extended longitudinally and are distributed around the axis of said stuffing tube , each one of said laminas being connected, so that it can oscillate, with one of its ends directed toward said mold , to a supporting body which is mounted on said stuffing tube , about a respective oscillation axis, which is substantially perpendicular to a diametrical plane that passes through the axis of said stuffing tube and through the longitudinal axis of the corresponding lamina , said supporting body being slidingly movable along said stuffing tube , in order to produce, in contrast with elastic return means , the transition of said laminas , as a consequence of their sliding on said stuffing tube , from a position of disengagement from said casing , in which they are arranged in a position that faces the outlet end of said stuffing tube with their longitudinal axis inclined with respect to the axis of said stuffing tube and converging toward the axis of said stuffing tube , proceeding from their end connected to said supporting body toward their other end, and a position of engagement with said casing , in which they are arranged substantially parallel to the axis of said stuffing tube and in a position that is spaced from the outlet end of said stuffing tube in the direction of said mold .
A method for separating semi-conducting and metallic single-walled carbon nanotubes from each other and optionally and if present from other carbonaceous material, or for separating semi-conducting single-walled carbon nanotubes or metallic single-walled carbon nanotubes from other carbonaceous material, which method comprises bringing a composition containing semi-conducting and metallic single-walled carbon nanotubes and optionally other carbonaceous material, or a composition containing semi-conducting carbon nanotubes and other carbonaceous material, in particular metallic single-walled carbon nanotubes, or a composition containing metallic single-walled carbon nanotubes and optionally other carbonaceous material, in particular semi-conducting single-walled carbon nanotubes, into contact with at least one surface-active compound and with a solution of a polytungstate, and subjecting the obtained composition to a density separation step; where the surface-active compound is selected from polyarylethers, polyarylsulfonates, poly(alkyleneoxide) blockcopolymers, condensation products of at least one arylsulfonic acid, at least one aldehyde and optionally at least one further compound different from arylsulfonic acids and aldehydes which is capable of undergoing condensation with the arylsulfonic acid(s) and/or the aldehyde(s); and salts thereof; where the further compound different from arylsulfonic acids and aldehydes which is capable of undergoing condensation with the arylsulfonic acid(s) and/or the aldehyde(s) is selected from urea, urea derivatives, amines having at least two primary and/or secondary amino groups, melamine, melamine derivatives and hydroxyaromatic compounds. where the surface-active compound is selected from polyarylethers, polyarylsulfonates, poly(alkyleneoxide) blockcopolymers, condensation products of at least one arylsulfonic acid, at least one aldehyde and optionally at least one further compound different from arylsulfonic acids and aldehydes which is capable of undergoing condensation with the arylsulfonic acid(s) and/or the aldehyde(s); and salts thereof; where the further compound different from arylsulfonic acids and aldehydes which is capable of undergoing condensation with the arylsulfonic acid(s) and/or the aldehyde(s) is selected from urea, urea derivatives, amines having at least two primary and/or secondary amino groups, melamine, melamine derivatives and hydroxyaromatic compounds.
A protection and/or combustion material , in particular for thermal protection and/or protection against impacts or degradations, comprising at least one first layer composed of at least one first fiber and at least one second layer composed of at least one second fiber, said first and second layers being intended to perform, at least partially, a protection and/or combustion function, characterized in that said first and second fibers are of natural origin and the first and second layers are held together by establishing direct chemical bonds between said first and second fibers at a contact area therebetween, the second fiber being deposited directly over the first layer , the first and second fibers of said first and second insulation layers being brought into contact, at least partially, at an interface area between said first and second layers corresponding to the contact area , without the use of an intermediate adhesive layer or of a compatibilizer between said layers .
A method for detecting a common control channel, comprising: determining a candidate resource set within virtual downlink resources of a current cell, wherein the candidate resource set comprises at least one candidate resource carrying a common control channel of the current cell, and the virtual downlink resources is a range of frequency resources for detecting a common control channel of the current cell; performing a detection on at least one candidate resource in the candidate resource set, so as to acquire the common control channel of the current cell, wherein the common control channel carries common search space indication information; determining, according to position information of a common control channel detected resource and the common search space indication information, an actual resource of a common search space of the current cell, wherein the actual resource is a resource actually used by the common search space of the current cell, and the common control channel detected resource is a candidate resource where the common control channel is detected. determining a candidate resource set within virtual downlink resources of a current cell, wherein the candidate resource set comprises at least one candidate resource carrying a common control channel of the current cell, and the virtual downlink resources is a range of frequency resources for detecting a common control channel of the current cell; performing a detection on at least one candidate resource in the candidate resource set, so as to acquire the common control channel of the current cell, wherein the common control channel carries common search space indication information; determining, according to position information of a common control channel detected resource and the common search space indication information, an actual resource of a common search space of the current cell, wherein the actual resource is a resource actually used by the common search space of the current cell, and the common control channel detected resource is a candidate resource where the common control channel is detected.
Transport device for transporting workpieces in a workpiece transport direction (W) in a forming machine or press line , having a gate area (T1, T2) arranged to the side of the pressing area or forming area, which is bordered by two vertical uprights , having a carrier rail running in the workpiece transport direction, wherein the carrier rail is mounted on one of the vertically running uprights , in the area of its ends each, via a lifting carriage displaceably driven in the vertical direction by a lift drive , and the lifting carriage rotatably mounts a rocker , which is connected at its end to the carrier rail , characterized in that, the length of a carrier rail is shorter than the distance between the vertical uprights in the workpiece transport direction (W) and the rocker is rotatably mounted on the lifting carriage in such a way that the carrier rail can be pivoted out of the pressing area or forming area in that it can be pivoted between two vertical uprights into a gate area (T1, T2) or through a gate area (T1, T2).
Implantable oesophageal prosthesis comprising a feeding tube , which feeding tube is at least partially surrounded by a housing in which a pressurising member is applied, which pressurising member comprises a pressure application element provided for generating a peristaltic pressure against an outer wall of the feeding tube, characterised in that the pressurising member is applied in such a manner as to be movable along the feeding tube over a predetermined distance starting from an initial position , which pressure application element is provided for generating the peristaltic pressure continuously during its movement along the feeding tube in a first direction extending towards the stomach of a body in which the prosthesis is to be implanted, said pressurising member comprises a return member provided for applying a return force extending in a second direction (I2), opposite to the first direction, in order to return the pressure application element towards its initial position.