mhurhangee/ep-ind-claims huggingface dataset:
A glow plug, comprising: a heater power-conduction shaft that supplies power to a heater; a pressure detection element that is provided in an axial-direction end portion of the heater power-conduction shaft and converts pressure that the heater power-conduction shaft receives in the axial direction into an electrical signal; a first insulation member that surrounds an outer periphery of the pressure detection element with respect to the longitudinal axis of the plug, and allows a signal output terminal of the pressure detection element to protrude toward an outer peripheral side of the axis, wherein the signal output terminal includes two terminals (31b, 33b) between which the pressure detection element is sandwiched in the axial direction; a power supply wire that is provided on an outer peripheral side of the first insulation member with respect to the axis, and is connected to the heater power-conduction shaft to supply power to the heater, wherein the power supply wire is a tubular body in which a second slit that is parallel to the axis is formed, that allows the two terminals (31b, 33b) to protrude toward an outer peripheral side of the axis; a signal processing circuit that is provided on an outer peripheral side of the power supply wire with respect to the axis, and is connected to the signal output terminal to process an electrical signal of the pressure detection element; and a second insulation member that is provided between the power supply wire and the signal processing circuit, and insulates the signal processing circuit from the power supply wire. a heater power-conduction shaft that supplies power to a heater; a pressure detection element that is provided in an axial-direction end portion of the heater power-conduction shaft and converts pressure that the heater power-conduction shaft receives in the axial direction into an electrical signal; a first insulation member that surrounds an outer periphery of the pressure detection element with respect to the longitudinal axis of the plug, and allows a signal output terminal of the pressure detection element to protrude toward an outer peripheral side of the axis, wherein the signal output terminal includes two terminals (31b, 33b) between which the pressure detection element is sandwiched in the axial direction; a power supply wire that is provided on an outer peripheral side of the first insulation member with respect to the axis, and is connected to the heater power-conduction shaft to supply power to the heater, wherein the power supply wire is a tubular body in which a second slit that is parallel to the axis is formed, that allows the two terminals (31b, 33b) to protrude toward an outer peripheral side of the axis; a signal processing circuit that is provided on an outer peripheral side of the power supply wire with respect to the axis, and is connected to the signal output terminal to process an electrical signal of the pressure detection element; and a second insulation member that is provided between the power supply wire and the signal processing circuit, and insulates the signal processing circuit from the power supply wire.
A method comprising: detecting, by an apparatus, a short-range wireless connection with a mobile device via a wireless interface of the apparatus; causing, at least in part, by the apparatus, retrieval of at least one unique hardware identifier associated with the mobile device; causing, at least in part, by the apparatus, transmission of a request for a service status of the mobile device, the request specifying the unique hardware identifier to a service platform; receiving, by the apparatus, a service status of the mobile device derived from the service platform; determining, by the apparatus, whether the mobile device is eligible for a service based on the service status; causing at least in part, by the apparatus, an initiation of a presentation by the apparatus of an activation menu for the service based on the eligibility determination; causing at least in part, by the apparatus, a determining whether user information is available in the mobile device; causing at least in part, by the apparatus, a retrieving the available user information from the mobile device; and causing at least in part, by the apparatus, a determining to fill the activation menu based on the retrieved user information. detecting, by an apparatus, a short-range wireless connection with a mobile device via a wireless interface of the apparatus; causing, at least in part, by the apparatus, retrieval of at least one unique hardware identifier associated with the mobile device; causing, at least in part, by the apparatus, transmission of a request for a service status of the mobile device, the request specifying the unique hardware identifier to a service platform; receiving, by the apparatus, a service status of the mobile device derived from the service platform; determining, by the apparatus, whether the mobile device is eligible for a service based on the service status; causing at least in part, by the apparatus, an initiation of a presentation by the apparatus of an activation menu for the service based on the eligibility determination; causing at least in part, by the apparatus, a determining whether user information is available in the mobile device; causing at least in part, by the apparatus, a retrieving the available user information from the mobile device; and causing at least in part, by the apparatus, a determining to fill the activation menu based on the retrieved user information.
A method of manufacturing a battery pack, the method comprising: placing a first plurality of battery cells in a first battery cell holder of a battery system assembly press; placing a second plurality of battery cells in a second battery cell holder of the battery system assembly press; placing a cooling duct in a gap between the first and second pluralities of battery cells; applying a first force to the first plurality of battery cells and a second force to the second plurality of battery cells, wherein the first and second forces cause the first and second pluralities of battery cells to press against the cooling duct, wherein the first plurality of battery cells is pressed against a first side of the cooling duct, where the second plurality of battery cells is pressed against a second side of the cooling duct, and wherein the first side of the cooling duct is opposite the second side of the cooling duct; and while applying the first and second forces, placing the first and second plurality of battery cells in a first tray (530, 540) configured to hold the first and second plurality of battery cells. placing a first plurality of battery cells in a first battery cell holder of a battery system assembly press; placing a second plurality of battery cells in a second battery cell holder of the battery system assembly press; placing a cooling duct in a gap between the first and second pluralities of battery cells; applying a first force to the first plurality of battery cells and a second force to the second plurality of battery cells, wherein the first and second forces cause the first and second pluralities of battery cells to press against the cooling duct, wherein the first plurality of battery cells is pressed against a first side of the cooling duct, where the second plurality of battery cells is pressed against a second side of the cooling duct, and wherein the first side of the cooling duct is opposite the second side of the cooling duct; and while applying the first and second forces, placing the first and second plurality of battery cells in a first tray (530, 540) configured to hold the first and second plurality of battery cells.
Support assembly for a trailer coupling or a load carrier, including a cross-member (11; 111; 211; 311) and side members (12, 112; 212; 312) connected to the crossmember (11; 111; 211; 311) for fitting to a rear of a body of a vehicle, together with at least one holder (15; 215; 315) fitted to the cross-member (11; 111; 211; 311) for a trailer coupling or for a coupling part of a load carrier, characterised in that the support assembly (10; 110; 210; 310) has at least one carrier part, with a base body (16; 116; 216, 316) produced altogether or at least in parts by press hardening, in that the carrier part is a part of the crossmember (11; 111; 211; 311) or forms the crossmember (11; 111; 211; 311) as a whole, and in that the crossmember (11; 111; 211; 311) and in that the crossmember (11; 111; 211; 311) has in the area of the holder or holders (15; 215; 315), and/or transversely central in a transverse central zone a greater rigidity and/or a greater cross-section and/or a higher moment of resistance than at its longitudinal ends
Cooled machine component, particularly a turbomachine component, comprising a body with at least one integrated cooling channel for guiding a cooling fluid through an interior of the body, the cooling channel comprising a lattice structure, wherein the lattice structure - is arranged as a void space penetrated by a plurality of hollow struts, and - comprises at least one inlet for providing the cooling fluid to be guided through the void space of the lattice structure, and - comprises at least one outlet for receiving the cooling fluid that has been guided through the void space of the lattice structure, wherein positions of the at least one inlet and of the at least one outlet define a main travel direction through the void space, wherein the at least one outlet being fluidically connected to hollow interiors of at least a subset of the plurality of hollow struts, each hollow interior ending in a further downstream discharge port located in a end face of the body, and wherein walls of the body surrounding each of the plurality of further downstream discharge ports are physically connected to corresponding jackets of the subset of the plurality of hollow struts and wherein each one of the subset of the plurality of hollow struts is free of apertures in its jacket between the void space and the hollow interior and is arranged either perpendicular to the end face or with a maximum deviation from a perpendicular direction to the end face of 45°, characterised in that the subset of the plurality of hollow struts are oriented substantially laterally to the main travel direction of the cooling fluid through the void space, and wherein the fluidic connection from the at least one outlet to the hollow interior of the at least one of the plurality of hollow struts is provided by connecting the at least one outlet to a plenum chamber, the plenum chamber in turn being connected to the hollow interior of the at least one of the plurality of hollow struts. - is arranged as a void space penetrated by a plurality of hollow struts, and - comprises at least one inlet for providing the cooling fluid to be guided through the void space of the lattice structure, and - comprises at least one outlet for receiving the cooling fluid that has been guided through the void space of the lattice structure,
A hair composition comprising at least one guar derivative: i) having a weight average molecular mass from 250,000 g/mol to 800,000 g/mol; and ii) containing at least one cationic group which is incorporated into the guar or guar derivative starting material by reaction of the hydroxyl groups of said guar or guar derivative with a cationizing agent chosen from 2,3-epoxypropyltrimethylammonium chloride, 2,3-epoxypropyltrimethylammonium bromide, 2,3-epoxypropyltrimethylammonium iodide, and 3-halogeno-2-hydroxypropyl trimethylammonium chloride, with a cationic degree of substitution (DS cat) extraction, from 0.20 to 0.30, with: ∘ the weight average molecular mass being measured by SEC-MALS, and ∘ the cationic degree of substitution (DS cat) extraction being measured by means of 1 H-NMR after an acidic methanol extraction. i) having a weight average molecular mass from 250,000 g/mol to 800,000 g/mol; and ii) containing at least one cationic group which is incorporated into the guar or guar derivative starting material by reaction of the hydroxyl groups of said guar or guar derivative with a cationizing agent chosen from 2,3-epoxypropyltrimethylammonium chloride, 2,3-epoxypropyltrimethylammonium bromide, 2,3-epoxypropyltrimethylammonium iodide, and 3-halogeno-2-hydroxypropyl trimethylammonium chloride, with a cationic degree of substitution (DS cat) extraction, from 0.20 to 0.30, with: ∘ the weight average molecular mass being measured by SEC-MALS, and ∘ the cationic degree of substitution (DS cat) extraction being measured by means of 1 H-NMR after an acidic methanol extraction. ∘ the weight average molecular mass being measured by SEC-MALS, and ∘ the cationic degree of substitution (DS cat) extraction being measured by means of 1 H-NMR after an acidic methanol extraction.
A joint device for a transfusion set in which one end is connected to be in communication with a needle part with a needle and the other end is connected to be in communication with a connection tube through which a solution flows, the joint device comprising: a body part in which both ends are opened and a chemical solution space is formed therein, and one end is connected so that the chemical solution space and the needle part are in communication with each other; and a joint part having a first end connected to be in communication with the body part, a second end connected to be in communication with the connection tube, and a communicating tube for communicating and connecting the first end and the second end with each other, wherein at least a part of the communicating tube is bent so that opening directions of the first end and the second end are not opposite to each other, characterized in that the first end is rotatably joined to the body part so that the joint part relatively rotates to the body part. a body part in which both ends are opened and a chemical solution space is formed therein, and one end is connected so that the chemical solution space and the needle part are in communication with each other; and a joint part having a first end connected to be in communication with the body part, a second end connected to be in communication with the connection tube, and a communicating tube for communicating and connecting the first end and the second end with each other, wherein at least a part of the communicating tube is bent so that opening directions of the first end and the second end are not opposite to each other, characterized in that the first end is rotatably joined to the body part so that the joint part relatively rotates to the body part.
A staple cartridge, comprising: a cartridge body comprising a plurality of staple cavities; a plurality of staples removably positioned in said staple cavities; and an implantable layer, comprising: an inner portion comprising a piece of foam; and an outer portion comprising a plurality of fibers, wherein said outer portion is positioned at least partially around said inner portion, and wherein the outer portion is less dense than the inner portion. a cartridge body comprising a plurality of staple cavities; a plurality of staples removably positioned in said staple cavities; and an implantable layer, comprising: an inner portion comprising a piece of foam; and an outer portion comprising a plurality of fibers, wherein said outer portion is positioned at least partially around said inner portion, and wherein the outer portion is less dense than the inner portion. an inner portion comprising a piece of foam; and an outer portion comprising a plurality of fibers, wherein said outer portion is positioned at least partially around said inner portion, and wherein the outer portion is less dense than the inner portion.
A turbine airfoil comprising: a generally elongated hollow airfoil formed from an outer wall, and having a leading edge, a trailing edge, a pressure side, a suction side, an inner diameter platform at a first end of the airfoil and an outer diameter platform at a second end opposite to the first end, and a cooling system positioned within interior aspects of the generally elongated hollow airfoil; at least one cooling channel of the cooling system having a larger cross-sectional area proximate to an end of the airfoil than at a midspan location; characterized in at least one corner blocker extending from a first end at a corner of an inner surface forming the at least one cooling channel toward a second end positioned closer to a midpoint of the at least one cooling channel in a spanwise extending direction and extending diagonally from a base at the inner surface to a tip positioned closer to a centerline axis of the at least one cooling channel. a generally elongated hollow airfoil formed from an outer wall, and having a leading edge, a trailing edge, a pressure side, a suction side, an inner diameter platform at a first end of the airfoil and an outer diameter platform at a second end opposite to the first end, and a cooling system positioned within interior aspects of the generally elongated hollow airfoil; at least one cooling channel of the cooling system having a larger cross-sectional area proximate to an end of the airfoil than at a midspan location; characterized in at least one corner blocker extending from a first end at a corner of an inner surface forming the at least one cooling channel toward a second end positioned closer to a midpoint of the at least one cooling channel in a spanwise extending direction and extending diagonally from a base at the inner surface to a tip positioned closer to a centerline axis of the at least one cooling channel.
A chamber bottom for a plasma thruster, comprising, in a single piece, a chamber bottom surface for closing an annular chamber formed by the chamber bottom and delimited by at least one insulating part (61, 62) attached to the chamber bottom, and at least one set of tabs (30, 40, 130, 140, 230, 240) comprising fastening tabs for fastening said at least one insulating part to the chamber bottom. a chamber bottom surface for closing an annular chamber formed by the chamber bottom and delimited by at least one insulating part (61, 62) attached to the chamber bottom, and at least one set of tabs (30, 40, 130, 140, 230, 240) comprising fastening tabs for fastening said at least one insulating part to the chamber bottom.
A feedback ANC system comprising a microphone and a loudspeaker arranged in a distance of each other; in which the microphone is acoustically coupled to the loudspeaker via a secondary path; the loudspeaker being electrically coupled to the microphone via an ANC filter; and the distance (d) between the microphone and the loudspeaker is larger than a value that is determined by the speed of sound divided by twenty times an upper critical frequency (f UL) of the ANC system, wherein the distance (d) between the microphone and the loudspeaker is smaller than or equal to a value that is determined by the speed of sound divided by two times an upper critical frequency (f UL), wherein the system further comprises: a first subtractor that is connected downstream of the microphone and a first useful-signal path, wherein the ANC filter is connected downstream of the first subtractor; and a second subtractor that is connected upstream of the loudspeaker and connected downstream of the ANC filter and a second useful-signal path; wherein both useful-signal paths are supplied with a useful signal (x[n]) to be reproduced, characterized in that the second useful-signal path comprises a second spectrum shaping filter that has a transfer characteristic (1/S(z)) that is equal to the inverse secondary path transfer characteristic. the microphone is acoustically coupled to the loudspeaker via a secondary path; the loudspeaker being electrically coupled to the microphone via an ANC filter; and the distance (d) between the microphone and the loudspeaker is larger than a value that is determined by the speed of sound divided by twenty times an upper critical frequency (f UL) of the ANC system, wherein the distance (d) between the microphone and the loudspeaker is smaller than or equal to a value that is determined by the speed of sound divided by two times an upper critical frequency (f UL), wherein the system further comprises: a first subtractor that is connected downstream of the microphone and a first useful-signal path, wherein the ANC filter is connected downstream of the first subtractor; and a second subtractor that is connected upstream of the loudspeaker and connected downstream of the ANC filter and a second useful-signal path; wherein both useful-signal paths are supplied with a useful signal (x[n]) to be reproduced, characterized in that the second useful-signal path comprises a second spectrum shaping filter that has a transfer characteristic (1/S(z)) that is equal to the inverse secondary path transfer characteristic. a first subtractor that is connected downstream of the microphone and a first useful-signal path, wherein the ANC filter is connected downstream of the first subtractor; and a second subtractor that is connected upstream of the loudspeaker and connected downstream of the ANC filter and a second useful-signal path; wherein both useful-signal paths are supplied with a useful signal (x[n]) to be reproduced, characterized in that the second useful-signal path comprises a second spectrum shaping filter that has a transfer characteristic (1/S(z)) that is equal to the inverse secondary path transfer characteristic.
Test bench for testing a fluid injection pump and/or a fluid injector with an apparatus for conditioning a test fluid which is used for testing, the apparatus having: a tank which is configured for receiving and storing the test fluid; a first fluid removal line which is configured to remove test fluid from the tank and feed it to the fluid injection pump; a first cooling circuit which is configured to cool the test fluid which is stored in the tank, the first cooling circuit having: a second fluid removal line which is configured to remove test fluid from the tank; a heat exchanger which is configured to cool the test fluid which is removed from the tank and is connected to the second fluid removal line; and a return line which is connected to the heat exchanger and is configured to conduct the test fluid from the heat exchanger back into the tank, characterized in that the test fluid is conducted from the heat exchanger directly back into the tank, and in that a second closed cooling circuit is connected to the heat exchanger, which cooling circuit is configured to transmit and discharge heat within the heat exchanger from the test fluid which flows through the heat exchanger to coolant which circulates through the second cooling circuit, in order to cool the test fluid. a tank which is configured for receiving and storing the test fluid; a first fluid removal line which is configured to remove test fluid from the tank and feed it to the fluid injection pump; a first cooling circuit which is configured to cool the test fluid which is stored in the tank, the first cooling circuit having: a second fluid removal line which is configured to remove test fluid from the tank; a heat exchanger which is configured to cool the test fluid which is removed from the tank and is connected to the second fluid removal line; and a return line which is connected to the heat exchanger and is configured to conduct the test fluid from the heat exchanger back into the tank, a second fluid removal line which is configured to remove test fluid from the tank; a heat exchanger which is configured to cool the test fluid which is removed from the tank and is connected to the second fluid removal line; and a return line which is connected to the heat exchanger and is configured to conduct the test fluid from the heat exchanger back into the tank, characterized in that the test fluid is conducted from the heat exchanger directly back into the tank, and in that a second closed cooling circuit is connected to the heat exchanger, which cooling circuit is configured to transmit and discharge heat within the heat exchanger from the test fluid which flows through the heat exchanger to coolant which circulates through the second cooling circuit, in order to cool the test fluid.