mhurhangee/ep-ind-claims huggingface dataset:
A medical device for multiple treatment therapies, comprising: a hollow tube having a first end portion with an electrode disposed at the first end portion and an insulator configured over a length of the tube such that conductive materials of the tube except for the electrode are electrically isolated from an exterior surface of the tube; a conductive connection configured to electrically couple to the electrode to provide a voltage thereto,; and a selectively closeable valve configured to dispense a medical fluid from the tube, wherein the electrode includes a conductive tip mounted on the end portion of the tube and the conductive connection includes a wire connected to the conductive tip, wherein the wire is configured to be inserted into the hollow tube and to be releasable connected to an inner surface of the conductive tip after the device has been positioned at an internal treatment site. a hollow tube having a first end portion with an electrode disposed at the first end portion and an insulator configured over a length of the tube such that conductive materials of the tube except for the electrode are electrically isolated from an exterior surface of the tube; a conductive connection configured to electrically couple to the electrode to provide a voltage thereto,; and a selectively closeable valve configured to dispense a medical fluid from the tube, wherein the electrode includes a conductive tip mounted on the end portion of the tube and the conductive connection includes a wire connected to the conductive tip, wherein the wire is configured to be inserted into the hollow tube and to be releasable connected to an inner surface of the conductive tip after the device has been positioned at an internal treatment site.
A chip of inkjet printer, comprising at least a hollow portion, a memory, two attachment detection terminals (115, 119) and a power supply terminal connected to the memory, wherein attachment detection contact portions (115c, 119c) for making electrical contact with corresponding printer-side terminals of the printer are formed on the attachment detection terminals (115, 119), a power supply contact portion for making electrical contact with a corresponding printer-side terminal of the printer is formed on the power supply terminal, the power supply contact portion is provided on an end surface of the hollow portion, and the attachment detection contact portions (115c, 119c) are provided on both sides of the hollow portion, the distance between the attachment detection contact portions (115c, 119c) and a front end of the chip is less than the distance between the power supply contact portion and the front end of the chip, in an attachment direction of installing the chip to the printer.
Electric coffee maker which comprises in particular a heating element and an electrical circuit configured to supply the heating element with electricity from a power source, the electrical circuit comprising at least one resettable thermostat configured to be engaged manually and to allow the flow of electricity and to trip automatically at a critical temperature and interrupt the flow of electricity, characterised in that the coffee maker comprises a manual switch configured to allow the flow of electricity in the closed position and to interrupt the flow of electricity in the open position, the thermostat and the switch being mounted in series with the heating element on the electrical circuit and in that the coffee maker comprises a manual control device configured to simultaneously engage the thermostat and close the switch and, vice versa, to open the switch prematurely before automatic tripping of the thermostat.
An imaging device, comprising: a shared-pixel structure, including: 8 photodiodes, wherein each photodiode of the 8 photodiodes is located within a rectangular area; and a plurality of shared transistors (115, 116, 117, 118), wherein the rectangular area has two short sides and two long sides, and wherein all of the plurality of the shared transistors (115, 116, 117, 118) are adjacent to one of the long sides of the rectangular area containing the plurality of photodiodes. a shared-pixel structure, including: 8 photodiodes, wherein each photodiode of the 8 photodiodes is located within a rectangular area; and a plurality of shared transistors (115, 116, 117, 118), 8 photodiodes, wherein each photodiode of the 8 photodiodes is located within a rectangular area; and a plurality of shared transistors (115, 116, 117, 118), wherein the rectangular area has two short sides and two long sides, and wherein all of the plurality of the shared transistors (115, 116, 117, 118) are adjacent to one of the long sides of the rectangular area containing the plurality of photodiodes.
A multidirectional balloon tipped catheter system for conducting His bundle sensing and pacing, comprising: a multidirectional catheter body having a proximal end and a distal end and including a plurality of curls and flexion points (103,104) for multidirectional deflections, wherein the catheter body includes a plurality of lumens (111, 114) comprising: a pacing lead lumen including an exit port at the distal end; and at least one balloon lumen including a balloon port near the distal end; an anchor balloon mounted to near the distal end of the catheter body, wherein the anchor balloon is in fluid communication with the balloon port and wherein the anchor balloon overhangs the distal end of the catheter body by a predetermined distance when the anchor balloon is inflated; one or more mapping electrodes (121,122) mounted to a distal end portion of the catheter body, wherein the one or more mapping electrodes (121,122) are configured to sense His bundle potential, wherein the anchor balloon is configured to expose the one or more mapping electrodes (121,122) mounted to the distal end portion when the anchor balloon is deflated; and a pacing lead placed in the pacing lead lumen, wherein the pacing lead is configured to protrude beyond the distal end of the catheter body when the pacing lead is in use. a pacing lead lumen including an exit port at the distal end; and at least one balloon lumen including a balloon port near the distal end; an anchor balloon mounted to near the distal end of the catheter body, wherein the anchor balloon is in fluid communication with the balloon port and wherein the anchor balloon overhangs the distal end of the catheter body by a predetermined distance when the anchor balloon is inflated; one or more mapping electrodes (121,122) mounted to a distal end portion of the catheter body, wherein the one or more mapping electrodes (121,122) are configured to sense His bundle potential, wherein the anchor balloon is configured to expose the one or more mapping electrodes (121,122) mounted to the distal end portion when the anchor balloon is deflated; and a pacing lead placed in the pacing lead lumen, wherein the pacing lead is configured to protrude beyond the distal end of the catheter body when the pacing lead is in use.
Device for monitoring and/or displaying an oil level that fluctuates in various operating components of a screw-type compressor, in an oil sump of the screw-type compressor for producing compressed air for the supply of compressed-air brake units, such that the device comprises an optical device which is fitted into a mounting device that can be connected to the screw-type compressor, wherein the mounting device is screwed into a threaded opening of a pressure container of the screw-type compressor and the threaded opening is arranged at the height of a minimum oil level, with a seal inserted between the threaded opening and the mounting device, and wherein the optical device is a sensor, such that the optical device is wired to an electronic evaluation device, characterised in that the sensor is adhesively bonded firmly into the mounting device, and the electronic evaluation device is designed to be wired to an engine control system of the vehicle, to receive signals about the operating condition of the vehicle and to evaluate them together with the operating condition of the screw-type compressor and the signals from the optical device.
A radio terminal supporting Carrier Aggregation using a primary cell and at least one secondary cell operated in a non-licensed frequency, the radio terminal comprising: a receiver configured to receive, in the primary cell, a Radio Resource Control, RRC, Connection Reconfiguration message, the RRC Connection Reconfiguration message including a first measurement configuration which includes a measurement duration in which a Received Signal Strength Indicator, RSSI, measurement is to be performed on the non-licensed frequency; at least one processor configured to measure the RSSI on the non-licensed frequency within the measurement duration in which the RSSI measurement is to be performed; and a transmitter configured to transmit, in the primary cell, a measurement report including a value of the RSSI. a receiver configured to receive, in the primary cell, a Radio Resource Control, RRC, Connection Reconfiguration message, the RRC Connection Reconfiguration message including a first measurement configuration which includes a measurement duration in which a Received Signal Strength Indicator, RSSI, measurement is to be performed on the non-licensed frequency; at least one processor configured to measure the RSSI on the non-licensed frequency within the measurement duration in which the RSSI measurement is to be performed; and a transmitter configured to transmit, in the primary cell, a measurement report including a value of the RSSI.
An adjustable reactance generator for a resonant inductive power transfer system, comprising: a comparator arranged to receive an input sinusoidal voltage waveform and to output a first square wave voltage waveform that retains a frequency and phase of the input sinusoidal waveform; a power switching circuit arranged to receive said first square wave voltage waveform as a control signal and to output a second square wave voltage waveform that retains the frequency and phase of the input sinusoidal voltage waveform; an amplitude detector arranged to detect an amplitude of the input sinusoidal voltage waveform; an adjustable power supply connected to the power switching circuit and arranged to adjust an amplitude of the second square wave voltage waveform based on the amplitude detected by the amplitude detector; and a Thevenin impedance and an LC resonant air core transfer transformer arranged so as to convert the amplitude adjusted second square wave voltage waveform into an output sinusoidal voltage waveform, wherein the conversion of the amplitude adjusted second square wave voltage waveform into the output sinusoidal voltage waveform provides an effect of an adjustable reactance; wherein the adjustable reactance generator further comprises means for providing said output sinusoidal voltage waveform to a load of the resonant inductive power transfer system. a comparator arranged to receive an input sinusoidal voltage waveform and to output a first square wave voltage waveform that retains a frequency and phase of the input sinusoidal waveform; a power switching circuit arranged to receive said first square wave voltage waveform as a control signal and to output a second square wave voltage waveform that retains the frequency and phase of the input sinusoidal voltage waveform; an amplitude detector arranged to detect an amplitude of the input sinusoidal voltage waveform; an adjustable power supply connected to the power switching circuit and arranged to adjust an amplitude of the second square wave voltage waveform based on the amplitude detected by the amplitude detector; and a Thevenin impedance and an LC resonant air core transfer transformer arranged so as to convert the amplitude adjusted second square wave voltage waveform into an output sinusoidal voltage waveform, wherein the conversion of the amplitude adjusted second square wave voltage waveform into the output sinusoidal voltage waveform provides an effect of an adjustable reactance; wherein the adjustable reactance generator further comprises means for providing said output sinusoidal voltage waveform to a load of the resonant inductive power transfer system.
A virtual reality apparatus comprising: an image generator to generate images representing a virtual environment, for display to a user by a head mountable display to be worn by that user, the virtual environment including an avatar representation of the user positioned within the virtual environment so that the user's viewpoint of the virtual environment substantially corresponds to the viewpoint of the avatar corresponding to that user; one or more user controls with which predetermined inputs may be selected by the user, the image generator being responsive to selection of a predetermined input by the user to correspondingly configure a face of the avatar representing that user; and the image generator being arranged to generate respective facial configurations of the avatar for display to other users viewing the virtual environment, in which the one or more user controls comprise one or more selected from the list consisting of: i. a control device comprising one or more buttons; ii. a control device operable to transmit telemetry data indicative of position, orientation and/or motion; and iii. a control device comprising a predetermined visible feature for use in image-based tracking, in which a single predetermined input is associated with the configuration of two or more facial configurations, from which the selection of one configuration is in dependence upon metadata associated with the virtual environment. an image generator to generate images representing a virtual environment, for display to a user by a head mountable display to be worn by that user, the virtual environment including an avatar representation of the user positioned within the virtual environment so that the user's viewpoint of the virtual environment substantially corresponds to the viewpoint of the avatar corresponding to that user; one or more user controls with which predetermined inputs may be selected by the user, the image generator being responsive to selection of a predetermined input by the user to correspondingly configure a face of the avatar representing that user; and the image generator being arranged to generate respective facial configurations of the avatar for display to other users viewing the virtual environment, in which the one or more user controls comprise one or more selected from the list consisting of: i. a control device comprising one or more buttons; ii. a control device operable to transmit telemetry data indicative of position, orientation and/or motion; and iii. a control device comprising a predetermined visible feature for use in image-based tracking, in which a single predetermined input is associated with the configuration of two or more facial configurations, from which the selection of one configuration is in dependence upon metadata associated with the virtual environment. i. a control device comprising one or more buttons; ii. a control device operable to transmit telemetry data indicative of position, orientation and/or motion; and iii. a control device comprising a predetermined visible feature for use in image-based tracking,
A pharmaceutical composition for use in the prevention and/or treatment of atopic dermatitis comprising an anti-human IL-31RA neutralizing antibody as an active ingredient, wherein said anti-human IL-31RA neutralizing antibody is for subcutaneous administration according to any one of the following (a) to (c): (a) repeated administration in equal amounts at the same dosing interval to a subject with or potentially with atopic dermatitis, at 25 to 100 mg/body/4 weeks, 25 to 75 mg/body/4 weeks, 50 to 100 mg/body/4 weeks, or 50 to 75 mg/body/4 weeks; (b) repeated administration in equal amounts at the same dosing interval to a subject with or potentially with atopic dermatitis, at 0.5 mg/kg/4 weeks; and (c) an administration of an initial dose to a subject and subsequent continuous doses in equal amounts at the same dosing interval, at 25 to 100 mg/body/4 weeks, 25 to 75 mg/body/4 weeks, 50 to 100 mg/body/4 weeks, or 50 to 75 mg/body/4 weeks, wherein the initial dose differs from the continuous doses; and wherein said anti-human IL-31RA neutralizing antibody comprises an H chain as set forth in SEQ ID NO: 9 and an L chain as set forth in SEQ ID NO: 10. (a) repeated administration in equal amounts at the same dosing interval to a subject with or potentially with atopic dermatitis, at 25 to 100 mg/body/4 weeks, 25 to 75 mg/body/4 weeks, 50 to 100 mg/body/4 weeks, or 50 to 75 mg/body/4 weeks; (b) repeated administration in equal amounts at the same dosing interval to a subject with or potentially with atopic dermatitis, at 0.5 mg/kg/4 weeks; and (c) an administration of an initial dose to a subject and subsequent continuous doses in equal amounts at the same dosing interval, at 25 to 100 mg/body/4 weeks, 25 to 75 mg/body/4 weeks, 50 to 100 mg/body/4 weeks, or 50 to 75 mg/body/4 weeks, wherein the initial dose differs from the continuous doses;
A lithium secondary battery comprising: a positive electrode including a positive electrode current collector and a positive electrode mixture; a negative electrode including a negative electrode current collector and lithium metal; a separator provided therebetween and an electrolyte; and a polymer protective layer formed between the negative electrode current collector and the separator, characterized in that the lithium metal is provided between the separator and the positive electrode mixture, and the lithium metal is formed on the negative electrode current collector as the lithium thin film with 0.01 C-rate to 0.5 C-rate through 1 to 2 times of charge and discharge, the polymer protective layer is selected from the group consisting of polyethylene oxide, polyacrylonitrile, polymethyl methacrylate (PMMA), polyvinylidene fluoride (PVDF), polyvinylidene fluoride-hexafluoropropylene (PVDF-HFP), LiPON, Li 3 N, Li x La 1-x TiO 3 (0<x<1) and Li 2 S-GeS-Ga 2 S 3, and the polymer protective layer has a thickness of 10 nm to 1 μm. a positive electrode including a positive electrode current collector and a positive electrode mixture; a negative electrode including a negative electrode current collector and lithium metal; a separator provided therebetween and an electrolyte; and a polymer protective layer formed between the negative electrode current collector and the separator, characterized in that the lithium metal is provided between the separator and the positive electrode mixture, and the lithium metal is formed on the negative electrode current collector as the lithium thin film with 0.01 C-rate to 0.5 C-rate through 1 to 2 times of charge and discharge, the polymer protective layer is selected from the group consisting of polyethylene oxide, polyacrylonitrile, polymethyl methacrylate (PMMA), polyvinylidene fluoride (PVDF), polyvinylidene fluoride-hexafluoropropylene (PVDF-HFP), LiPON, Li 3 N, Li x La 1-x TiO 3 (0<x<1) and Li 2 S-GeS-Ga 2 S 3, and the polymer protective layer has a thickness of 10 nm to 1 μm.
A double submodule for a modular multilevel converter, wherein the double submodule comprises two interconnected submodules (19, 21), each submodule (19, 21) comprising: an asymmetrical H-bridge circuit (22, 32) having two parallel bridge branches (24, 26; 34, 36) connected between a first and a second pole connection (27, 28; 37, 38) of the submodule (19, 21), wherein each bridge branch (24, 26; 34, 36) is formed by a series circuit of a power semiconductor switch (T1, T4; T6, T7) and a diode (D2, D3; D5, D8), wherein the power semiconductor switch (T1, T4; T6, T7) has an antiparallel-connected free-wheeling diode (D1, D4; D6, D7) assigned thereto; and a capacitor (C1, 23; C2, 33) connected in parallel to the asymmetrical H-bridge circuit (22, 32) between the first and the second pole connections (27, 28; 37, 38) of the submodule (19, 21); wherein a connection point (29, 31) between a power semiconductor switch (T1, T4) and a diode (D2, D3) of each bridge branch (24, 26) of one of the submodules (19, 21) is connected directly to a respective connection point (39, 41) between a power semiconductor switch (T6, T7) and a diode (D5, D8) of a bridge branch (34, 36) of the other submodule to form the double submodule. an asymmetrical H-bridge circuit (22, 32) having two parallel bridge branches (24, 26; 34, 36) connected between a first and a second pole connection (27, 28; 37, 38) of the submodule (19, 21), wherein each bridge branch (24, 26; 34, 36) is formed by a series circuit of a power semiconductor switch (T1, T4; T6, T7) and a diode (D2, D3; D5, D8), wherein the power semiconductor switch (T1, T4; T6, T7) has an antiparallel-connected free-wheeling diode (D1, D4; D6, D7) assigned thereto; and a capacitor (C1, 23; C2, 33) connected in parallel to the asymmetrical H-bridge circuit (22, 32) between the first and the second pole connections (27, 28; 37, 38) of the submodule (19, 21); wherein a connection point (29, 31) between a power semiconductor switch (T1, T4) and a diode (D2, D3) of each bridge branch (24, 26) of one of the submodules (19, 21) is connected directly to a respective connection point (39, 41) between a power semiconductor switch (T6, T7) and a diode (D5, D8) of a bridge branch (34, 36) of the other submodule to form the double submodule.
A method to form a rod for an aerosol generating article from a sheet of material, the method comprising the steps of: o crimping the sheet of material; o flattening the crimped sheet of material by forcing it to contact a sliding edge, transversally arranged with respect to a feed direction of the sheet of material, including transporting the crimped sheet of material and putting it in contact with the sliding edge so that the sheet of material at least partly unfolds or extends; o giving a substantially tubular shape to the flattened sheet of material; and o forming the rod with the so-shaped sheet of material. o crimping the sheet of material; o flattening the crimped sheet of material by forcing it to contact a sliding edge, transversally arranged with respect to a feed direction of the sheet of material, including transporting the crimped sheet of material and putting it in contact with the sliding edge so that the sheet of material at least partly unfolds or extends; o giving a substantially tubular shape to the flattened sheet of material; and o forming the rod with the so-shaped sheet of material.
An assembly group consisting of a cap of a tubular gas generator and a deflector element that deflects gas flowing out of at least one outflow opening of the cap to at least one discharge opening of the deflector element, wherein a deflection surface of the deflector element is arranged radially outwardly of the outflow opening and at least two securing arms of the deflector element extend through the outflow opening and engage behind an edge defining the outflow opening in a positive connection with the cap on the inside.