mhurhangee/ep-ind-claims huggingface dataset:
An airway status evaluation apparatus, comprising: an inflation/deflation unit comprising an interface connected to an inflation tube of a tracheal tube to inflate or deflate a cuff of the tracheal tube through the inflation tube; a pressure sensor connected to the cuff to measure cuff pressure; a connection unit used to be in signal connection with a ventilator; and an inflation/deflation control unit, respectively connected to the inflation/deflation unit and a signal output end of the pressure sensor to control the inflation/deflation unit to inflate and deflate the cuff or output prompt information about inflating or deflating the cuff such that the cuff is inflated to a predetermined pressure or completely deflated, characterized in that said inflation/deflation control unit is further electrically connected to the connection unit and communicating with the ventilator through the connection unit so as to receive an inflation/deflation instruction from the ventilator and/or feed back the cuff pressure to the ventilator; said airway status evaluation apparatus further comprises a data processing unit, which is used to collect a respiration parameter of a patient from the ventilator when the cuff meets an evaluation state, evaluate an airway status of the patient according to a comparison result of the collected respiration parameter, and send an evaluation result to the ventilator. an inflation/deflation unit comprising an interface connected to an inflation tube of a tracheal tube to inflate or deflate a cuff of the tracheal tube through the inflation tube; a pressure sensor connected to the cuff to measure cuff pressure; a connection unit used to be in signal connection with a ventilator; and an inflation/deflation control unit, respectively connected to the inflation/deflation unit and a signal output end of the pressure sensor to control the inflation/deflation unit to inflate and deflate the cuff or output prompt information about inflating or deflating the cuff such that the cuff is inflated to a predetermined pressure or completely deflated, characterized in that said inflation/deflation control unit is further electrically connected to the connection unit and communicating with the ventilator through the connection unit so as to receive an inflation/deflation instruction from the ventilator and/or feed back the cuff pressure to the ventilator; said airway status evaluation apparatus further comprises a data processing unit, which is used to collect a respiration parameter of a patient from the ventilator when the cuff meets an evaluation state, evaluate an airway status of the patient according to a comparison result of the collected respiration parameter, and send an evaluation result to the ventilator.
A method of predicting and controlling the stability of a low NOx burner of a fired heater operated to provide a draft, said method comprising the steps of: measuring said draft over a time period; generating a measured output signal; determining from the output signal a draft function that defines the relationship between said draft and a time during said time period, the draft function reflecting the oscillations and the amplitude of the draft as a function of time; defining a burner stability value representative of a stable burner operation; comparing said draft function to said burner stability value; and adjusting the operation of said fired heater when said draft function exceeds said burner stability value, wherein in said comparing step said draft function exceeds said burner stability value when the frequency and the amplitude of said draft function exceed those of said burner stability value. measuring said draft over a time period; generating a measured output signal; determining from the output signal a draft function that defines the relationship between said draft and a time during said time period, the draft function reflecting the oscillations and the amplitude of the draft as a function of time; defining a burner stability value representative of a stable burner operation; comparing said draft function to said burner stability value; and adjusting the operation of said fired heater when said draft function exceeds said burner stability value, wherein in said comparing step said draft function exceeds said burner stability value when the frequency and the amplitude of said draft function exceed those of said burner stability value.
A method for producing a polymer electrolyte membrane comprising the steps of removing a part of a salt component produced during polycondensation from a polymerization solution of a polymer electrolyte having a density of an ionic group of 2 mmol/g or more directly by centrifugal separation, thereby preparing a coating solution; applying the coating solution on a substrate by casting; removing a part of a solvent from the coating solution to form a film-shaped material on the substrate; and bringing the film-shaped material on the substrate into contact with water and/or an aqueous acidic solution to remove the salt component produced during the polycondensation.
A neurostimulation device comprising: an implantable electrode array configured to be implanted proximal to a mixed nerve comprising a plurality of nerve fibre types, the implantable electrode array comprising a plurality of electrodes; and a control unit configured to deliver an electrical stimulus from at least one nominal stimulus electrode (2, 4) of the implantable electrode array, the electrical stimulus being delivered in accordance with a set of stimulus parameters; the control unit further configured to obtain from at least one nominal recording electrode (6, 8) of the implantable electrode array a recording of an electrophysiological response evoked by the electrical stimulus; the control unit further configured to analyse the recording by assessing one or more selected characteristics of the recording; the control unit further configured to identify from the observed selected characteristics a level of recruitment of at least a first fibre type recruited by the electrical stimulus, and the control unit further configured to refine the stimulus parameters in a manner to effect selective recruitment of one or more fibre types relative to other fibre types of the mixed nerve characterised by the one or more selected characteristics comprising propagation or non-propagation of the electrophysiological response as observed at the at least one nominal recording electrode (6, 8). an implantable electrode array configured to be implanted proximal to a mixed nerve comprising a plurality of nerve fibre types, the implantable electrode array comprising a plurality of electrodes; and a control unit configured to deliver an electrical stimulus from at least one nominal stimulus electrode (2, 4) of the implantable electrode array, the electrical stimulus being delivered in accordance with a set of stimulus parameters; the control unit further configured to obtain from at least one nominal recording electrode (6, 8) of the implantable electrode array a recording of an electrophysiological response evoked by the electrical stimulus; the control unit further configured to analyse the recording by assessing one or more selected characteristics of the recording; the control unit further configured to identify from the observed selected characteristics a level of recruitment of at least a first fibre type recruited by the electrical stimulus, and the control unit further configured to refine the stimulus parameters in a manner to effect selective recruitment of one or more fibre types relative to other fibre types of the mixed nerve characterised by the one or more selected characteristics comprising propagation or non-propagation of the electrophysiological response as observed at the at least one nominal recording electrode (6, 8).
A system configured to determine sleep stages of a subject during a sleep session, the system comprising: one or more sensors configured to generate output signals conveying information related to brain activity of the subject, the output signals including cardiac artifact information related to cardiac activity of the subject with the information related to brain activity; and one or more hardware processors operatively communicating with the one or more sensors configured, by machine-readable instructions, to: - demodulate the output signals to separate the information related to brain activity and the cardiac artifact information; - determine one or more brain activity parameters based on the separated information related to brain activity; determine one or more cardiac activity parameters based on the separated cardiac artifact information; and determine the sleep stages of the subject during the sleep session based on the one or more brain activity parameters and the one or more cardiac activity parameters. wherein determining the sleep stages of the subject during the sleep session includes determining NREM sleep stages based on the one or more brain activity parameters and determining REM sleep stages based on the one or more brain activity parameters and the one or more cardiac activity parameters. one or more sensors configured to generate output signals conveying information related to brain activity of the subject, the output signals including cardiac artifact information related to cardiac activity of the subject with the information related to brain activity; and one or more hardware processors operatively communicating with the one or more sensors configured, by machine-readable instructions, to: - demodulate the output signals to separate the information related to brain activity and the cardiac artifact information; - determine one or more brain activity parameters based on the separated information related to brain activity; - demodulate the output signals to separate the information related to brain activity and the cardiac artifact information; - determine one or more brain activity parameters based on the separated information related to brain activity; determine one or more cardiac activity parameters based on the separated cardiac artifact information; and determine the sleep stages of the subject during the sleep session based on the one or more brain activity parameters and the one or more cardiac activity parameters. wherein determining the sleep stages of the subject during the sleep session includes determining NREM sleep stages based on the one or more brain activity parameters and determining REM sleep stages based on the one or more brain activity parameters and the one or more cardiac activity parameters.
A topical composition comprising 0.001% to 2% w/w of saccharide isomerate, 0.0001% to 0.2% w/w of Alteromonas ferment extract, 1% to 10% w/w of Butyrospermum parkii (shea) butter; 1% to 10% w/w of propylene glycol; 0.5% to 5% w/w of dimethicone; 0.1% to 3% w/w of silica; and a dermatologically acceptable vehicle wherein the composition is capable of moisturizing at least one of skin and hair, wherein the saccharide isomerate is exopolysaccharide synthesized by Vibrio alginolyticus, and wherein the Alteromonas ferment extract is exopolysaccharide from Kopara.
A lubricating oil additive comprising a nitrogen-containing compound which is one or more compounds selected from the group consisting of the following (A-3), (A-4) and (A-6) components: (A-3) at least one kind of compound selected from the group consisting of nitrogen-containing compounds represented by formula below, wherein R 1 is an alkenyl group having 12 to 20 carbon atoms, R 2 through R 4 are each independently a hydrocarbon or functionalized hydrocarbon group having 1 to 30 carbon atoms or hydrogen, and X 1 and X 2 are each independently oxygen or sulfur; (A-4) at least one kind of compound selected from the group consisting of nitrogen-containing compounds represented by formula below, wherein R 1 is an alkenyl group having 12 to 20 carbon atoms, R 2 through R 5 are each independently a hydrocarbon or functionalized hydrocarbon group having 1 to 30 carbon atoms or hydrogen, X 1 is nitrogen, X 2 and X 3 are each independently oxygen or sulfur, p is an integer of 0 or 1, m is an integer of 0 or 1, and n is an integer of 1 or greater; and (A-6) oil soluble metal complexes obtained by mixing at least one kind of compound selected from the group consisting of Components (A-3) and (A-4) with an organic metal salt and/or an organic metal complex. (A-3) at least one kind of compound selected from the group consisting of nitrogen-containing compounds represented by formula below, wherein R 1 is an alkenyl group having 12 to 20 carbon atoms, R 2 through R 4 are each independently a hydrocarbon or functionalized hydrocarbon group having 1 to 30 carbon atoms or hydrogen, and X 1 and X 2 are each independently oxygen or sulfur; (A-4) at least one kind of compound selected from the group consisting of nitrogen-containing compounds represented by formula below, wherein R 1 is an alkenyl group having 12 to 20 carbon atoms, R 2 through R 5 are each independently a hydrocarbon or functionalized hydrocarbon group having 1 to 30 carbon atoms or hydrogen, X 1 is nitrogen, X 2 and X 3 are each independently oxygen or sulfur, p is an integer of 0 or 1, m is an integer of 0 or 1, and n is an integer of 1 or greater; and (A-6) oil soluble metal complexes obtained by mixing at least one kind of compound selected from the group consisting of Components (A-3) and (A-4) with an organic metal salt and/or an organic metal complex.
A method for receiving information, comprising: receiving, by a terminal device, at least one first transmission parameter and at least one second transmission parameter; receiving, by the terminal device, Downlink Control Information, DCI; and determining, by the terminal device, the number of bits for a first DCI field in the DCI by using a target transmission parameter, the DCI comprising at least one DCI field, characterized in that when the DCI is used for CG activation, a first number of bits for the first DCI field is determined according to the at least one first transmission parameter, and a second number of bits for the first DCI field is determined according to the at least one second transmission parameter; and the target transmission parameter is at least one first transmission parameter or at least one second transmission parameter, which corresponds to a minimum one between the first number of bits and the second number of bits. receiving, by a terminal device, at least one first transmission parameter and at least one second transmission parameter; receiving, by the terminal device, Downlink Control Information, DCI; and determining, by the terminal device, the number of bits for a first DCI field in the DCI by using a target transmission parameter, the DCI comprising at least one DCI field, characterized in that when the DCI is used for CG activation, a first number of bits for the first DCI field is determined according to the at least one first transmission parameter, and a second number of bits for the first DCI field is determined according to the at least one second transmission parameter; and the target transmission parameter is at least one first transmission parameter or at least one second transmission parameter, which corresponds to a minimum one between the first number of bits and the second number of bits.
Heat pump comprising: an evaporator for evaporating working liquid within an evaporator space bounded by an evaporator base; a condenser for condensing evaporated working liquid within a condenser space bounded by a condenser base, the evaporator space being at least partially surrounded by the condenser space, the evaporator space being separated from the condenser space by the condenser base, and the condenser base being connected to the evaporator base, wherein the evaporator base comprises an evaporator intake for the working liquid to be evaporated and an evaporator drain for a working liquid cooled by the evaporation, wherein the evaporator base further comprises a condenser intake for a condenser liquid, and a condenser drain for a condenser liquid heated up due to the condensation, and characterised in that the condenser intake and the condenser drain are arranged on an edge of the evaporator base, and in that the evaporator intake and the evaporator drain are arranged in a central region of the evaporator base. an evaporator for evaporating working liquid within an evaporator space bounded by an evaporator base; a condenser for condensing evaporated working liquid within a condenser space bounded by a condenser base, the evaporator space being at least partially surrounded by the condenser space, the evaporator space being separated from the condenser space by the condenser base, and the condenser base being connected to the evaporator base, wherein the evaporator base comprises an evaporator intake for the working liquid to be evaporated and an evaporator drain for a working liquid cooled by the evaporation, wherein the evaporator base further comprises a condenser intake for a condenser liquid, and a condenser drain for a condenser liquid heated up due to the condensation, and characterised in that the condenser intake and the condenser drain are arranged on an edge of the evaporator base, and in that the evaporator intake and the evaporator drain are arranged in a central region of the evaporator base.
A piston having a crown and a crown diameter, the piston comprising: a piston bowl formed in the crown, the piston bowl comprising: a center portion having a generally convex spherical shape with a radius originating from a piston central axis; a floor having a generally convex frusto-conical shape disposed symmetrically around the piston central axis adjacent the center portion; a base having a generally concave toroidal shape surrounding the floor; and a cylindrical wall having a length along the piston central axis, the cylindrical wall tangentially extending from the base and surrounding at least a portion of the center portion and defining a piston bowl diameter; a top surface having a flat annular shape disposed perpendicularly around the cylindrical wall along a rim of the piston bowl; wherein the piston bowl has a depth defined between the top surface and a bottom edge portion disposed between the base and the floor along the piston central axis; wherein a ratio between the depth of the piston bowl and the length of the cylindrical wall is less than 4; wherein a ratio between the diameter of the piston bowl and the depth is at most 4.7. a piston bowl formed in the crown, the piston bowl comprising: a center portion having a generally convex spherical shape with a radius originating from a piston central axis; a floor having a generally convex frusto-conical shape disposed symmetrically around the piston central axis adjacent the center portion; a base having a generally concave toroidal shape surrounding the floor; and a cylindrical wall having a length along the piston central axis, the cylindrical wall tangentially extending from the base and surrounding at least a portion of the center portion and defining a piston bowl diameter; a center portion having a generally convex spherical shape with a radius originating from a piston central axis; a floor having a generally convex frusto-conical shape disposed symmetrically around the piston central axis adjacent the center portion; a base having a generally concave toroidal shape surrounding the floor; and a cylindrical wall having a length along the piston central axis, the cylindrical wall tangentially extending from the base and surrounding at least a portion of the center portion and defining a piston bowl diameter; a top surface having a flat annular shape disposed perpendicularly around the cylindrical wall along a rim of the piston bowl; wherein the piston bowl has a depth defined between the top surface and a bottom edge portion disposed between the base and the floor along the piston central axis; wherein a ratio between the depth of the piston bowl and the length of the cylindrical wall is less than 4; wherein a ratio between the diameter of the piston bowl and the depth is at most 4.7.
One or more computer-readable media storing instructions that, when executed, perform a method of determining an angle of a target object with respect to a mobile device, the method comprising: receiving first target object information captured using a first camera on the device and second target object information captured using a second camera on the device, the first and second target object information captured at approximately a same capture time; and based on the first and second target object information, determining an angle between the target object and the device; wherein the first target object information is a first image and the second target object information is a second image, and further comprising determining a correlation value for a correlation between the first and second images, wherein the angle between the target object and the device is determined based on the correlation value; wherein determining the angle comprises: accessing a tuning table having correlation values and corresponding angles; and retrieving the angle corresponding to the correlation value closest to the determined correlation value. receiving first target object information captured using a first camera on the device and second target object information captured using a second camera on the device, the first and second target object information captured at approximately a same capture time; and based on the first and second target object information, determining an angle between the target object and the device; wherein the first target object information is a first image and the second target object information is a second image, and further comprising determining a correlation value for a correlation between the first and second images, wherein the angle between the target object and the device is determined based on the correlation value; wherein determining the angle comprises: accessing a tuning table having correlation values and corresponding angles; and retrieving the angle corresponding to the correlation value closest to the determined correlation value. accessing a tuning table having correlation values and corresponding angles; and retrieving the angle corresponding to the correlation value closest to the determined correlation value.