mhurhangee/ep-ind-claims huggingface dataset:
A power adapter, comprising: a communication interface; and a main control module, configured to control the communication interface to output direct current to charge an electronic device, and when an output voltage of the communication interface is greater than a voltage threshold and/or an output current of the communication interface is greater than a current threshold, to control the communication interface to switch off the direct current output, and to send a first charging stop command via the communication interface, wherein the first charging stop command is configured to indicate the electronic device to switch off a communication interface of the electronic device, the communication interface of the electronic device being configured to receive the direct current. a communication interface; and a main control module, configured to control the communication interface to output direct current to charge an electronic device, and when an output voltage of the communication interface is greater than a voltage threshold and/or an output current of the communication interface is greater than a current threshold, to control the communication interface to switch off the direct current output, and to send a first charging stop command via the communication interface, wherein the first charging stop command is configured to indicate the electronic device to switch off a communication interface of the electronic device, the communication interface of the electronic device being configured to receive the direct current.
A spinner for a gas turbine engine comprising: an inner surface of the spinner having frustoconical geometry; a flange having semi-torroidal geometry and extending from the spinner, wherein an inner curved surface of the flange is substantially tangential to the inner surface; a mating portion extending from the flange, wherein an inner mating surface of the mating portion is substantially tangential to the inner curved surface; and an extension extending aft from the spinner, wherein the extension is defined by an external surface parallel to the inner surface with the external surface having a frustoconical geometry, characterised in that: the spinner further comprises a filler contacting the flange, wherein the filler comprises an annular geometry with a triangular cross section. an inner surface of the spinner having frustoconical geometry; a flange having semi-torroidal geometry and extending from the spinner, wherein an inner curved surface of the flange is substantially tangential to the inner surface; a mating portion extending from the flange, wherein an inner mating surface of the mating portion is substantially tangential to the inner curved surface; and an extension extending aft from the spinner, wherein the extension is defined by an external surface parallel to the inner surface with the external surface having a frustoconical geometry, characterised in that: the spinner further comprises a filler contacting the flange, wherein the filler comprises an annular geometry with a triangular cross section.
A method of analysing the quality of a welding area of an absorbent sanitary article, said welding area being generated by means of a welding station of a production line by generating a plurality of welding spots in said welding area according to a welding pattern, wherein said production line comprises a camera and a processing circuit operatively connected to said camera for monitoring said welding area via said camera, wherein said camera provides a sequence of images, and wherein a given area of the pixel data of said images corresponds to said welding area, the method comprising executing via said processing circuit the steps of: - during a learning step wherein a plurality of welding operations are performed both with sufficient quality and with insufficient quality, monitoring via said camera the welding area generated for each welding operation; - during a training step, processing the pixel data of said welding areas monitored during said learning step for training a classifier configured to estimate a welding quality as a function of respective pixel data of a welding area; and - during a normal welding operating step - monitoring via said camera a welding area generated by a welding operation, - estimating via said classifier the respective welding quality, and - in case the estimated welding qualities for a given number of consecutive welding areas indicate an insufficient quality of said given number of consecutive welding areas, generating a warning signal, which is provided to a visual and/or acoustic signalling device, and/or stopping said production line. - during a learning step wherein a plurality of welding operations are performed both with sufficient quality and with insufficient quality, monitoring via said camera the welding area generated for each welding operation; - during a training step, processing the pixel data of said welding areas monitored during said learning step for training a classifier configured to estimate a welding quality as a function of respective pixel data of a welding area; and - during a normal welding operating step - monitoring via said camera a welding area generated by a welding operation, - estimating via said classifier the respective welding quality, and - in case the estimated welding qualities for a given number of consecutive welding areas indicate an insufficient quality of said given number of consecutive welding areas, generating a warning signal, which is provided to a visual and/or acoustic signalling device, and/or stopping said production line. - monitoring via said camera a welding area generated by a welding operation, - estimating via said classifier the respective welding quality, and - in case the estimated welding qualities for a given number of consecutive welding areas indicate an insufficient quality of said given number of consecutive welding areas, generating a warning signal, which is provided to a visual and/or acoustic signalling device, and/or stopping said production line.
A metal mask material, the metal mask material is characterised by having a composition including, by mass%, C: 0.01% or less, Si: 0.5% or less, Mn: 1.0% or less, and Ni: 30 to 50%, with the balance being made up of Fe and inevitable impurities, wherein, per 1 g of the metal mask material, there are 2.0 or less oxide-based nonmetallic inclusions with an area equivalent circle diameter exceeding 10.0 μm, and there are 20.0 or less oxide-based nonmetallic inclusions with an area equivalent circle diameter of 6.0 to 10.0 μm, and wherein the metal mask material has a thin plate shape with a plate thickness of 0.25 mm or less, wherein the oxide-based nonmetallic inclusions are measured with the method defined in the description.
Method to control the temperature of an electromagnetic pump in an apparatus wherein a liquid metal is supplied through a feed tube from a container adapted to contain a liquid metal to an evaporator device in a vacuum chamber, wherein the supply of the liquid metal is controlled by exerting a force on the liquid metal in the container, the pressure in the evaporator device and by the electromagnetic pump in the feed tube, characterised in that the method comprises: - providing an electromagnetic pump which is at least partially made of an electric conductive material, - supplying current for the electromagnetic pump through the electric conductive material, and controlling the temperature of the electromagnetic pump by controlling one or more of - the force exerted on the liquid metal in the container, - the current of the electromagnetic pump, and/or - the strength of the magnet field of the electromagnetic pump. - providing an electromagnetic pump which is at least partially made of an electric conductive material, - supplying current for the electromagnetic pump through the electric conductive material, and controlling the temperature of the electromagnetic pump by controlling one or more of - the force exerted on the liquid metal in the container, - the current of the electromagnetic pump, and/or - the strength of the magnet field of the electromagnetic pump.
An injection molding apparatus comprising a manifold having a manifold channel extending between a manifold inlet and a manifold outlet; a nozzle having a nozzle channel extending therethrough, the nozzle channel in fluid communication with the manifold channel via the manifold outlet; a valve pin plate coupled to an actuator which, in operation, axially moves the valve pin plate between a closed position and an open position; a mold plate spaced apart from the manifold and disposed between the manifold and the valve pin plate, the mold plate having a valve pin passageway extending therethrough; a valve pin extending through the valve pin passageway; a valve pin holder releasably coupling the valve pin to the valve pin plate; and a biasing member being compressed against a support surface by the valve pin holder when the valve pin plate is in the closed position; characterized in that the biasing member is compressed against the mold plate when the valve pin plate is in the closed position. a manifold having a manifold channel extending between a manifold inlet and a manifold outlet; a nozzle having a nozzle channel extending therethrough, the nozzle channel in fluid communication with the manifold channel via the manifold outlet; a valve pin plate coupled to an actuator which, in operation, axially moves the valve pin plate between a closed position and an open position; a mold plate spaced apart from the manifold and disposed between the manifold and the valve pin plate, the mold plate having a valve pin passageway extending therethrough; a valve pin extending through the valve pin passageway; a valve pin holder releasably coupling the valve pin to the valve pin plate; and a biasing member being compressed against a support surface by the valve pin holder when the valve pin plate is in the closed position; characterized in that the biasing member is compressed against the mold plate when the valve pin plate is in the closed position.
A method of forming a superconductor structure (10, 40), the method comprising: forming a superconductor line (16, 18, 46, 112, 114) in a first dielectric layer (14, 44, 102); forming a second dielectric layer (20, 48, 116) overlying the first dielectric layer (14, 44, 102), the second dielectric layer (20, 48, 116) having at least one opening (124, 128) formed therein; forming a resistor (24, 52, 132) with an end (21, 23, 49, 135, 137) coupled to an end of the superconductor line (16, 18, 46, 112, 114) through the at least one opening (124, 128); forming a third dielectric layer (22, 50, 134) overlying the second dielectric layer (20, 48, 116) and the resistor (24, 52, 132); etching a tapered opening (35, 65, 156) through the third dielectric layer (22, 48, 134) to the resistor (24, 52, 132); and performing a contact material fill with a normal metal material to fill the tapered opening (35, 65, 156) and form a normal metal connector (36, 64, 162) coupled to the resistor (24, 52, 132). forming a superconductor line (16, 18, 46, 112, 114) in a first dielectric layer (14, 44, 102); forming a second dielectric layer (20, 48, 116) overlying the first dielectric layer (14, 44, 102), the second dielectric layer (20, 48, 116) having at least one opening (124, 128) formed therein; forming a resistor (24, 52, 132) with an end (21, 23, 49, 135, 137) coupled to an end of the superconductor line (16, 18, 46, 112, 114) through the at least one opening (124, 128); forming a third dielectric layer (22, 50, 134) overlying the second dielectric layer (20, 48, 116) and the resistor (24, 52, 132); etching a tapered opening (35, 65, 156) through the third dielectric layer (22, 48, 134) to the resistor (24, 52, 132); and performing a contact material fill with a normal metal material to fill the tapered opening (35, 65, 156) and form a normal metal connector (36, 64, 162) coupled to the resistor (24, 52, 132).
A system comprising an electrosurgical controller comprising: a processor; a memory coupled to the processor; a voltage generator operatively coupled to the processor, the voltage generator comprising an active terminal; and, a wand connector configured to couple to a connector of an electrosurgical wand, the electrosurgical wand comprising an elongate shaft that defines a proximal end and a distal end and a first active electrode disposed on the distal end of the elongate shaft; the controller being operable to couple to a peristaltic pump, comprising a rotor coupled to an electric motor, the electric motor operatively coupled to the processor; wherein the memory stores a program that, when executed by the processor, causes the processor to implement at least two modes of ablation during an electrosurgical procedure, wherein: the processor implements the first mode of ablation by controlling flow of fluid into an aperture on the distal end of the electrosurgical wand to control the impedance of an electrode circuit to a first target impedance; and controls energy delivered to the first active electrode by the electrosurgical controller; and the processor implements the second mode of ablation by controlling the flow of fluid to control the impedance of the electrode circuit to a second target impedance; and controls energy delivered to the first active electrode by the electrosurgical controller; wherein the second target impedance is different to the first target impedance; and wherein for each mode of ablation, the controller is operable to control the flow of fluid and the energy delivered to the first active electrode within a range of operational parameters, wherein the range of operational parameters are different for each mode of ablation. a processor; a memory coupled to the processor; a voltage generator operatively coupled to the processor, the voltage generator comprising an active terminal; and, a wand connector configured to couple to a connector of an electrosurgical wand, the electrosurgical wand comprising an elongate shaft that defines a proximal end and a distal end and a first active electrode disposed on the distal end of the elongate shaft; the processor implements the first mode of ablation by controlling flow of fluid into an aperture on the distal end of the electrosurgical wand to control the impedance of an electrode circuit to a first target impedance; and controls energy delivered to the first active electrode by the electrosurgical controller; and the processor implements the second mode of ablation by controlling the flow of fluid to control the impedance of the electrode circuit to a second target impedance; and controls energy delivered to the first active electrode by the electrosurgical controller; wherein the second target impedance is different to the first target impedance; and wherein for each mode of ablation, the controller is operable to control the flow of fluid and the energy delivered to the first active electrode within a range of operational parameters, wherein the range of operational parameters are different for each mode of ablation.
A diagnostic kit for detecting the presence or quantity of one or more test analytes within a test sample taken from a skin surface of a mammal characterized in that the diagnostic kit comprises: a) a separate insert for a lateral flow device (200, 411) comprising a membrane, the membrane having a thickness, a width and a length, optionally fixed to a rigid support and, the separate insert being configured to obtain the test sample, b) a lateral flow assay device configured (300, 400) to accept the separate insert (200, 411), and c) a securing member configured to releasably attach the separate insert to a skin surface of a mammal. a) a separate insert for a lateral flow device (200, 411) comprising a membrane, the membrane having a thickness, a width and a length, optionally fixed to a rigid support and, the separate insert being configured to obtain the test sample, b) a lateral flow assay device configured (300, 400) to accept the separate insert (200, 411), and c) a securing member configured to releasably attach the separate insert to a skin surface of a mammal.
A mid-turbine frame located in a gas turbine engine axially aft of a high-pressure turbine and fore of a low-pressure turbine, the mid-turbine frame comprising: an outer frame case; an inner frame case; a plurality of hollow spokes each having a spoke wall with a radially outer end and a radially inner end, the spoke wall being attached between the outer frame case and the inner frame case to distribute force from the inner frame case to the outer frame case, wherein cooling airflow flows through the plurality of hollow spokes to the inner frame case, wherein the inner frame case includes a manifold defined by inner and outer diameter annular walls (72,70) and first and second axial walls of the inner frame that extend radially between the outer diameter annular wall and the inner diameter annular wall, characterized in that a radially inner end of the spoke wall of each of the plurality hollow spokes meets the outer diameter annular wall of the manifold and terminates radially between a radially outer surface of the outer diameter annular wall and an inner surface of the outer diameter annular wall to define an airflow path from each of the plurality of hollow spokes into the manifold that allows the manifold to receive and combine cooling airflow provided via the plurality of hollow spokes. an outer frame case; an inner frame case; a plurality of hollow spokes each having a spoke wall with a radially outer end and a radially inner end, the spoke wall being attached between the outer frame case and the inner frame case to distribute force from the inner frame case to the outer frame case, wherein cooling airflow flows through the plurality of hollow spokes to the inner frame case, wherein the inner frame case includes a manifold defined by inner and outer diameter annular walls (72,70) and first and second axial walls of the inner frame that extend radially between the outer diameter annular wall and the inner diameter annular wall,
A data communication module comprising optics (100, 500) and a transmission or a reception element (130, 220, 510, 520) or a transmission and reception element (130, 220, 510, 520) arranged in a cavity or centrally in a cavity and configured to emit and/or receive a signal (550, 560, 230, 231, 232, 233, 234) in a main radiation direction, wherein the optics (100, 500) comprises an optical body formed of a material optically transparent for the communication wavelength, comprising: the cavity, wherein a first interface (110, 120) is formed between the cavity and the optical body; a second interface (112, 121) formed opposite the cavity; and a lateral interface of any shape having a total internal reflection region; wherein the first interface (110, 120) forms a first central lens region and a first refraction region surrounding the first central lens region, and wherein the second interface (112, 121) forms a second central lens region and a second refraction region surrounding the second central lens region; wherein the first and second lens regions are configured to map a first beam group in the direction of the main radiation direction; and wherein the second refraction region of the second interface is configured to map a second beam group along a second radiation direction which is angled to the main radiation direction. wherein the optics (100, 500) comprises an optical body formed of a material optically transparent for the communication wavelength, comprising: the cavity, wherein a first interface (110, 120) is formed between the cavity and the optical body; a second interface (112, 121) formed opposite the cavity; and a lateral interface of any shape having a total internal reflection region; the cavity, wherein a first interface (110, 120) is formed between the cavity and the optical body; a second interface (112, 121) formed opposite the cavity; and a lateral interface of any shape having a total internal reflection region; wherein the first interface (110, 120) forms a first central lens region and a first refraction region surrounding the first central lens region, and wherein the second interface (112, 121) forms a second central lens region and a second refraction region surrounding the second central lens region; wherein the first and second lens regions are configured to map a first beam group in the direction of the main radiation direction; and wherein the second refraction region of the second interface is configured to map a second beam group along a second radiation direction which is angled to the main radiation direction.
A vaccine composition, comprising: (a) an antigenic moiety; (b) a fusion peptide comprising: (i) transporter peptide sequence that promotes peptide penetration into cells and tissues; and (ii) a MYC polypeptide sequence; and (c) a pharmacologically-acceptable excipient. (a) an antigenic moiety; (b) a fusion peptide comprising: (i) transporter peptide sequence that promotes peptide penetration into cells and tissues; and (ii) a MYC polypeptide sequence; and (i) transporter peptide sequence that promotes peptide penetration into cells and tissues; and (ii) a MYC polypeptide sequence; and (c) a pharmacologically-acceptable excipient.
Safety cord collector for an inner closure activated by multiple drawing cords (12, 14), wherein activating ends (12a, 14a) of drawing cords (12, 14) can be brought together on the cord collector and are to be releasably held on said cord collector except for a first activating end of a first drawing cord, which can be firmly fixed on the cord collector, said cord collector comprising two elements (32a, b), which in a rest position form a cord opening for a collected feed-through of activating ends (12a, 14a), characterized in that a first element forms a first part of said cord opening, a second element forms a second part of said cord opening and a fastening means is arranged on one of the elements (32a, b) for fixing a first activating end, comprising a retainer, which is pivotally held on the first element between a retaining position, in which activating ends (12a, 14a) can be firmly held by said retainer and a release position, in which activating ends (12a, 14a) can be released by said retainer, and has a retaining slot for releasably holding further activating ends equipped with bulges on the end side, wherein the elements by a release force, acting on the first and the second part (42a, b) of said cord opening and directed transversely to a feed-through direction of said cord opening, can be brought against a retention force of a retainer (60, 62) from the rest position into a release position, in which said elements (32a, b) are remote from one another in the region of said cord opening, and wherein a trigger unit, arranged on the second element, which in the rest position of said elements (32a, b) cooperates with said retainer and keeps this in the retaining position, in the release position does not cooperate with the retainer and said retainer can be swung into a release position.
A sulfide solid electrolyte material comprising an ion conductor having an anion structure of an ortho-composition with a ratio of 70 mol% or more to all anion structures, and LiI, wherein the sulfide solid electrolyte material is glass with a glass transition point, the ion conductor contains Li, X, wherein X is defined as P, Si, Ge, Al, or B, and S, and characterized in that a content of the LiI is within a range of 10 mol% to 30 mol%.