mhurhangee/ep-ind-claims huggingface dataset:
A humidification chamber having suspension type float, the humidification chamber comprising: a shell body, the shell body has a water inlet, a gas inlet and a gas outlet; a position limiting element, the position limiting element has a through hole and an inner edge, the position limiting element is fixed on an inside of the water inlet, the inner edge has at least one stopper portion; a float having an extending portion, a side surface of the extending portion has at least one longitudinal groove, the longitudinal groove is provided with a hook a sealing sheet, the sealing sheet is disposed on a top end of the extending portion; and a heated plate, the heated plate is located below the shell body, and the heated plate is used for sealing the shell body to form a chamber space; wherein the extending portion passes through the through hole to enable the stopper portion to be located within the longitudinal groove, and the hook to be located above the stopper portion; in use, a water inlet hole of the water inlet is used for inputting a liquid, the water level of the chamber space will rise to enable the float to rise to comply with the water level increasing; when the water inlet hole of the water inlet is contacted with the sealing sheet, the water inlet hole of the water inlet is blocked by the sealing sheet; when the hook is stopped on the stopper portion, the float is suspended on the position limiting element, and therefore a distance is formed between the heated plate and a bottom of the float. a shell body, the shell body has a water inlet, a gas inlet and a gas outlet; a position limiting element, the position limiting element has a through hole and an inner edge, the position limiting element is fixed on an inside of the water inlet, the inner edge has at least one stopper portion; a float having an extending portion, a side surface of the extending portion has at least one longitudinal groove, the longitudinal groove is provided with a hook a sealing sheet, the sealing sheet is disposed on a top end of the extending portion; and a heated plate, the heated plate is located below the shell body, and the heated plate is used for sealing the shell body to form a chamber space;
Electric apparatus for cooking and/or reheating food comprising: - a housing with a cooking tray arranged such as to receive the food to be cooked and/or reheated, - a circuit for heating by ventilation comprising a ventilation sleeve with an outlet arranged to direct an air flow onto the food to be cooked and/or reheated, - heating means arranged in the ventilation sleeve to heat the air flow by radiation and by convection, at least one portion of the heating means is arranged relative to the outlet of the ventilation sleeve in such a way that the heat radiation produced by this portion of the heating means directly heats the food to be cooked and/or reheated, characterised in that the heating means comprise: - a first heating element with a first resistive wire mounted on a first support and comprising the portion arranged facing the outlet of the ventilation sleeve, and - a second support in the form of a fin, arranged in the ventilation sleeve upstream of the first heating element, in order to direct at least one portion of the air flow onto the first heating element. - a housing with a cooking tray arranged such as to receive the food to be cooked and/or reheated, - a circuit for heating by ventilation comprising a ventilation sleeve with an outlet arranged to direct an air flow onto the food to be cooked and/or reheated, - heating means arranged in the ventilation sleeve to heat the air flow by radiation and by convection, - a first heating element with a first resistive wire mounted on a first support and comprising the portion arranged facing the outlet of the ventilation sleeve, and - a second support in the form of a fin, arranged in the ventilation sleeve upstream of the first heating element, in order to direct at least one portion of the air flow onto the first heating element.
A mouthpiece (14, 114) for an electronic smoking device, the mouthpiece (14, 114) comprising: an elongated housing having ports at opposite ends; a central passage (32, 132) formed as a hollow channel through the housing in communication with the ports, a liquid reservoir and an atomizer, the atomizer being arranged in the central passage operable when connected to the battery of the electronic smoking device to atomize liquid stored in the liquid reservoir such that the aerosol is provided in the central passage (32, 132), a tempering element (50, 150) arranged in the central passage (32, 132) for tempering an aerosol produced by the electronic smoking device, contact terminals (52, 152) arranged at one of the ports (44, 144) for connecting to the battery of the electronic smoking device, wherein the tempering element extends from the other port (36, 136) at least along a section of the central passage (32, 132) and conductive elements (54, 154) connected to the contact terminals (52, 152), the conductive elements (54, 154) being further connected to the tempering element (50, 150), characterized in that the tempering element (50, 150) surrounds the section of the central passage (32, 132) along the longitudinal axis of the central passage (32, 132). an elongated housing having ports at opposite ends; a central passage (32, 132) formed as a hollow channel through the housing in communication with the ports, a liquid reservoir and an atomizer, the atomizer being arranged in the central passage operable when connected to the battery of the electronic smoking device to atomize liquid stored in the liquid reservoir such that the aerosol is provided in the central passage (32, 132), a tempering element (50, 150) arranged in the central passage (32, 132) for tempering an aerosol produced by the electronic smoking device, contact terminals (52, 152) arranged at one of the ports (44, 144) for connecting to the battery of the electronic smoking device, wherein the tempering element extends from the other port (36, 136) at least along a section of the central passage (32, 132) and conductive elements (54, 154) connected to the contact terminals (52, 152), the conductive elements (54, 154) being further connected to the tempering element (50, 150), characterized in that the tempering element (50, 150) surrounds the section of the central passage (32, 132) along the longitudinal axis of the central passage (32, 132).
A dialysis composition comprising 0.5 to 3 mM citrate, 1 to 5 mM total calcium, and 0 to 1.5 mM total magnesium, wherein the dialysis composition comprises [cit] mM citrate and [Ca] new mM total calcium, wherein CA new = Ca norm + k ca ⋅ cit, [Ca] norm equals 1.00, 1.25 mM, 1.5 mM, or 1.75 mM calcium, and k ca is within range 0.10-0.2, range 0.12-0.18, or 0.15; and wherein the dialysis composition further comprises [Mg] new mM total magnesium, wherein Mg new = Mg norm + k Mg ⋅ cit, [Mg] norm equals 0.5 mM, 0.6 mM. or 0.75 mM magnesium, and k Mg is within range 0.04-0.10, range 0.06-0.08, or 0.07. [Ca] norm equals 1.00, 1.25 mM, 1.5 mM, or 1.75 mM calcium, and k ca is within range 0.10-0.2, range 0.12-0.18, or 0.15; and wherein the dialysis composition further comprises [Mg] new mM total magnesium, wherein Mg new = Mg norm + k Mg ⋅ cit, [Mg] norm equals 0.5 mM, 0.6 mM. or 0.75 mM magnesium, and k Mg is within range 0.04-0.10, range 0.06-0.08, or 0.07.
An anastomosis device (900, 1813) for positioning between two adjacent body tissues, the device comprising: a wire, wherein said wire has a first state and a second state, wherein, in said first state, the wire has a substantially linear form, wherein when the wire is in said second state, the wire forms a coil having at least a first loop and a second loop, and wherein said wire is adapted to transform from the first state to the second state when exposed to a temperature greater than a threshold value; and a plurality of magnets positioned over said wire, wherein each of said plurality of magnets has a lumen through which said wire extends, wherein, in each of said first loop and second loop, a portion of adjacent magnets of said plurality of magnets are configured to not attach to each other, and wherein a portion of said plurality of magnets in the first loop are configured to attract a portion of said plurality of magnets in the second loop; wherein the anastomosis device is configured for positioning via a catheter within a body cavity proximate at least one of said adjacent body tissues and to be released within the body cavity such that, when it transforms from the first state to the second state, tissue between two adjacent body tissues is caught between the first loop and the second loop, thereby being compressed and resulting in the anastomosis. a wire, wherein said wire has a first state and a second state, wherein, in said first state, the wire has a substantially linear form, wherein when the wire is in said second state, the wire forms a coil having at least a first loop and a second loop, and wherein said wire is adapted to transform from the first state to the second state when exposed to a temperature greater than a threshold value; and a plurality of magnets positioned over said wire, wherein each of said plurality of magnets has a lumen through which said wire extends, wherein, in each of said first loop and second loop, a portion of adjacent magnets of said plurality of magnets are configured to not attach to each other, and wherein a portion of said plurality of magnets in the first loop are configured to attract a portion of said plurality of magnets in the second loop;
A nozzle for a fan assembly for creating an air current, the nozzle comprising an interior passage for receiving an air flow, a mouth through which the air flow is emitted, the mouth being defined by first and second facing surfaces (39, 40) of the nozzle, and a plurality of spacers for spacing apart the facing surfaces (39, 40) of the nozzle, the nozzle defining an opening through which air from outside the fan assembly is drawn by the air flow emitted from the mouth, characterised in that the spacers are in the form of fingers which are integral with the first facing surface and one of the facing surfaces (39, 40) of the nozzle is biased towards the other of the facing surfaces (39, 40) under a preload force so that the spacers contact the second facing surface to hold apart the facing surfaces (39, 40), the nozzle comprising a Coanda surface located adjacent the mouth and over which the mouth is arranged to direct the air flow.
Track segment for a sports track with a curved track surface, which track segment is designed to be assembled at its end face with other track segments to form the sports track, each track segment having a concrete shell with a first side facing the track surface and a second side facing away from the track surface, wherein a reinforcement and at least one cooling line extending over a large part of the surface of the track segment is arranged in the concrete shell and is spaced at least towards the first side of the concrete shell, and in that an insulating layer made of a thermally insulating material is arranged on the second side of the concrete shell.
A method for dyeing a microporous membrane comprising: • contacting the membrane with an aqueous dispersion dye system at a temperature between 90 to 100°C for a time period sufficient to produce a desired transmission spectra for the membrane wherein the aqueous dispersion dye system comprises a dyeing additive and a dye selected from the group of azo and anthraquinone dyes, and • heating the membrane by exposing it to a temperature between 110 and 150°C for 20 to 90 minutes thereafter. • contacting the membrane with an aqueous dispersion dye system at a temperature between 90 to 100°C for a time period sufficient to produce a desired transmission spectra for the membrane wherein the aqueous dispersion dye system comprises a dyeing additive and a dye selected from the group of azo and anthraquinone dyes, and • heating the membrane by exposing it to a temperature between 110 and 150°C for 20 to 90 minutes thereafter.
A polyarylene sulfide that is prepared from a composition comprising 100 parts by weight of solid sulfur, 500 to 10,000 parts by weight of iodinated aryl compounds, and 0.03 to 30 parts by weight of a sulfur-containing polymerization terminator with respect to 100 parts by weight of the solid sulfur, and has a melting temperature (Tm) of 255 to 285°C, and luminosity of 40 or higher as defined by the CIE Lab color model, wherein the sulfur-containing polymerization terminator is at least one selected from the group consisting of 2-mercaptobenzothiazole, N-cyclohexylbenzothiazole-2-sulfenamide, 2-morpholinothiobenzothiazole, N- N-dicyclohexylbenzothiazole-2-sulfenamide, tetramethylthiuram monosulfide, tetramethylthiuram disulfide, zinc dimethyldithiocarbamate, and zinc diethyldithiocarbamate, and the melting temperature was measured with a Differential Scanning Calorimeter.
A method for ionizing a sample with gaseous ammonium, comprising: (i) obtaining gaseous ammonium (NH 4 +) from an ion source, the ion source comprising a first area and a second area in a fluidly conductive connection, comprising the steps introducing a controlled flow of N 2 into the first area or second area of the ion source; introducing a controlled flow of H 2 O into the first area or second area of the ion source; (b) applying an ionization method to the mixture of N 2 and H 2 O in the first area; (c) applying at least one electric field or adjusting pressure conditions or a combination of applying at least one electric field and adjusting pressure conditions promoting flow of ions from the first area to the second area and inducing reactions of the ions in the second area; (d) conducting NH 4 + out of the ion source; and (ii) ionizing the sample in a reaction chamber being connected with the ion source. (i) obtaining gaseous ammonium (NH 4 +) from an ion source, the ion source comprising a first area and a second area in a fluidly conductive connection, comprising the steps introducing a controlled flow of N 2 into the first area or second area of the ion source; introducing a controlled flow of H 2 O into the first area or second area of the ion source; (b) applying an ionization method to the mixture of N 2 and H 2 O in the first area; (c) applying at least one electric field or adjusting pressure conditions or a combination of applying at least one electric field and adjusting pressure conditions promoting flow of ions from the first area to the second area and inducing reactions of the ions in the second area; (d) conducting NH 4 + out of the ion source; and introducing a controlled flow of N 2 into the first area or second area of the ion source; introducing a controlled flow of H 2 O into the first area or second area of the ion source; (b) applying an ionization method to the mixture of N 2 and H 2 O in the first area; (c) applying at least one electric field or adjusting pressure conditions or a combination of applying at least one electric field and adjusting pressure conditions promoting flow of ions from the first area to the second area and inducing reactions of the ions in the second area; (d) conducting NH 4 + out of the ion source; and (ii) ionizing the sample in a reaction chamber being connected with the ion source.
A method for producing a solid body of glass comprising: providing a polymerisable composition comprising: a liquid composition comprising one or more at least partially organic polymerisable compound(s); and a solid source of silica as colloidal silica particles, silica glass microparticles and/or silica glass nanoparticles dispersed in the liquid composition; curing the polymerisable composition to obtain a cured body; subjecting the cured body to thermal debinding to substantially remove the organic components in the cured body; and subjecting the cured body to sintering to obtain a solid body of glass, optionally silica glass; wherein the one or more at least partially organic polymerisable compound(s) comprise(s) at least one organosilicon compound as a second source of silica to thereby increase the silica loading of the cured body prior to sintering, wherein the organosilicon compound(s) is/are chosen from silicon-based preceramic polymers / monomers and silicon alkoxides. providing a polymerisable composition comprising: a liquid composition comprising one or more at least partially organic polymerisable compound(s); and a solid source of silica as colloidal silica particles, silica glass microparticles and/or silica glass nanoparticles dispersed in the liquid composition; a liquid composition comprising one or more at least partially organic polymerisable compound(s); and a solid source of silica as colloidal silica particles, silica glass microparticles and/or silica glass nanoparticles dispersed in the liquid composition; curing the polymerisable composition to obtain a cured body; subjecting the cured body to thermal debinding to substantially remove the organic components in the cured body; and subjecting the cured body to sintering to obtain a solid body of glass, optionally silica glass; wherein the one or more at least partially organic polymerisable compound(s) comprise(s) at least one organosilicon compound as a second source of silica to thereby increase the silica loading of the cured body prior to sintering, wherein the organosilicon compound(s) is/are chosen from silicon-based preceramic polymers / monomers and silicon alkoxides.
A biomaterial suitable for use as a drug eluting, Magnetic Resonance Imaging detectable implant for vascular occlusion, wherein the biomaterial is in the form of microspheres and comprises: a copolymer comprising an acrylamide and at least one of the following: sodium acrylate, vinyl sulfonate, 2-acrylamido-2-methylpropane sulfonic acid (AMPS), or 2-carboxyethyl acrylate; an iron oxide particle; and a drug.
Applicator device for the preparation and application of at least one medical substance, preferably a coloured liquid, comprising: a hollow chamber having one hosting end and an opposite distal end in communication with a means for the contact with a patient; a cartridge slidably inserted inside said hollow chamber by means of the hosting end, containing at least one first medical substance (Sa), having a first end external to the hollow chamber, and a second end completely inserted into the hollow chamber and having an outer circular collar extended orthogonally with respect to the outer surface of the cartridge, and directed towards the inner part of the chamber; a breaking means positioned at the distal end capable of establishing a fluid communication between the interior of the cartridge and the means for the contact with a patient; wherein said second end is closed by a filled double layer closure system containing at least a second substance (Sb) mixable and/or soluble with said first medical substance (Sa), wherein said filled double layer closure system is obtained by coupling a first layer and a second layer, said filled double layer closure system characterized in that said first layer extends for a length equal to the outer diameter of the cylindrical collar, acting as a hermetic cap and said second layer partially extends inside the cartridge, said first layer and second layer defining an internal volume containing said second substance (Sb).
An anti-IL-6 antibody comprising a VL polypeptide of SEQ ID NO:709 and a light chain constant region of SEQ ID NO: 586; and a VH polypeptide of SEQ ID NO:657 and a heavy chain constant region of SEQ ID NO: 588, for use in a method of treating a patient having an advanced cancer associated with hypercoagulation, wherein the anti-IL-6 antibody is aglycosylated.
Tenecteplase for use in treating acute ischemic stroke in a human, wherein the tenecteplase is administered in a total dose of about 0.05 to 0.5mg/kg, given as an initial bolus dose of about 0.05 to 0.15 mg/kg, followed by infusion of an amount equaling the total dose minus the initial dose over a period of about 50-90 minutes.
A method for calibrating a signal transmission equipment, said equipment being a multimode radio communication equipment comprising at least two radio signal transmission subsystems, a first subsystem implementing a first signal transmission technology and a second subsystem implementing a second signal transmission technology, said method being characterized in that it comprises a calibration phase comprising: - a step of transmitting, by said first subsystem, a signal in a predetermined transmission channel and at a predetermined transmission power; - a step of measuring, by said second subsystem, an amount of noise perceived on at least one channel associated with said second subsystem; a step of recording, in a data structure, said amount of noise for said at least one associated channel, wherein said calibration phase is implemented in an iterative process comprising several iterations and said predetermined transmission channel changes at each iteration. - a step of transmitting, by said first subsystem, a signal in a predetermined transmission channel and at a predetermined transmission power; - a step of measuring, by said second subsystem, an amount of noise perceived on at least one channel associated with said second subsystem; a step of recording, in a data structure, said amount of noise for said at least one associated channel, wherein said calibration phase is implemented in an iterative process comprising several iterations and said predetermined transmission channel changes at each iteration.
Joint housing for a track rod, having a shaft housing for connection to an axial pin and a ball housing for receiving a ball joint, the shaft housing having an axial bore with an internal thread for receiving the axial pin, characterized in that the shaft housing and the ball housing are connected to one another by a transition region that is tapered over the entire cross-section with respect to the shaft housing, the transition region being curved with respect to its longitudinal axis.
An all digital phase locked loop having a phase comparator for comparing phases of a target signal having a reference frequency (Fref) and a digital oscillation feedback signal having a feedback frequency (Ffb) based on an oscillation signal characterised in that said all digital phase locked loop comprises: a virtual value controller for setting one of a plurality of preset virtual values between lower and higher digital codes as an initial virtual value when the reference frequency (Fref) is a frequency included between two preset lower and higher digital codes, and for controlling the initial virtual value according to a phase comparison result from the phase comparator to generate an adjusted virtual value; a random number generator for generating a random number within a range of the plurality of virtual values; a comparator for comparing magnitudes between the adjusted virtual value generated from the virtual value controller and the random number generated from the random number generator to generate digital codes according to the comparison result; and a digitally controlled oscillator for generating the oscillation signal according to the digital codes from the comparator. a virtual value controller for setting one of a plurality of preset virtual values between lower and higher digital codes as an initial virtual value when the reference frequency (Fref) is a frequency included between two preset lower and higher digital codes, and for controlling the initial virtual value according to a phase comparison result from the phase comparator to generate an adjusted virtual value; a random number generator for generating a random number within a range of the plurality of virtual values; a comparator for comparing magnitudes between the adjusted virtual value generated from the virtual value controller and the random number generated from the random number generator to generate digital codes according to the comparison result; and a digitally controlled oscillator for generating the oscillation signal according to the digital codes from the comparator.