mhurhangee/patent-ind-claim-en huggingface dataset:
A module for extracting a fetal heart rate from at least one maternal ECG signal, the module comprising: a recorder and digitizer configured to record and digitize each of at least one maternal ECG signal acquired by sensors (12-18) attached to a patient in a maternal signal buffer (22A-22D); a processor configured to: - identify candidate peaks in at least one maternal ECG signal to provide m maternal QRS complexes; - divide and stack the at least one maternal ECG signal by applying a fixed n-length window around each of the m maternal QRS complexes, each maternal ECG signal resulting in an m x n stacked matrix M; - identify and attenuate by spatial filtering a maternal QRS signal in the plurality of fixed n-length windows around each of the m maternal QRS complexes of the maternal ECG signal by applying orthogonal projection to the stacked matrix M, to produce a raw fetal ECG signal which is stored in a raw fetal ECG buffer; and - identify peaks in the raw fetal ECG signal by at least one of a) principal component analysis and b) a peak-detector followed by rule based fQRS extraction; and a calculator configured to calculate the fetal heart rate from the identified peaks. a recorder and digitizer configured to record and digitize each of at least one maternal ECG signal acquired by sensors (12-18) attached to a patient in a maternal signal buffer (22A-22D); a processor configured to: - identify candidate peaks in at least one maternal ECG signal to provide m maternal QRS complexes; - divide and stack the at least one maternal ECG signal - identify candidate peaks in at least one maternal ECG signal to provide m maternal QRS complexes; - divide and stack the at least one maternal ECG signal by applying a fixed n-length window around each of the m maternal QRS complexes, each maternal ECG signal resulting in an m x n stacked matrix M; - identify and attenuate by spatial filtering a maternal QRS signal in the plurality of fixed n-length windows around each of the m maternal QRS complexes of the maternal ECG signal by applying orthogonal projection to the stacked matrix M, to produce a raw fetal ECG signal which is stored in a raw fetal ECG buffer; and - identify peaks in the raw fetal ECG signal by at least one of a) principal component analysis and b) a peak-detector followed by rule based fQRS extraction; and - identify and attenuate by spatial filtering a maternal QRS signal in the plurality of fixed n-length windows around each of the m maternal QRS complexes of the maternal ECG signal by applying orthogonal projection to the stacked matrix M, to produce a raw fetal ECG signal which is stored in a raw fetal ECG buffer; and - identify peaks in the raw fetal ECG signal by at least one of a) principal component analysis and b) a peak-detector followed by rule based fQRS extraction; and a calculator configured to calculate the fetal heart rate from the identified peaks.
Process for co-producing methanol, ammonia and urea from a hydrocarbon feedstock, said process comprising the steps of a) from a first once-through methanol process, comprising a first reforming step and first methanol conversion step obtaining a first effluent comprising methanol and a first gas effluent comprising hydrogen, nitrogen and unconverted carbon oxides; and from a second once-through methanol process, comprising a second reforming step and a second methanol conversion step obtaining a second effluent comprising methanol and a second gas effluent comprising hydrogen, nitrogen and unconverted carbon oxides; the first methanol process is operated in parallel with the second methanol process; b) producing an ammonia synthesis gas from the first and/or second gas effluent in a common catalytic methanation stage and withdrawing said ammonia synthesis gas preferably having a H 2 :N 2 molar ratio of approximately 3:1; c) catalytically converting the nitrogen and hydrogen of the ammonia synthesis gas in a common ammonia synthesis stage and withdrawing an effluent comprising ammonia and a purge-gas stream comprising hydrogen, nitrogen and/or methane, and d) reacting at least part of the effluent comprising ammonia with at least part of a flue gas comprising CO2 from at least one of the first and second reforming steps to produce urea. a) from a first once-through methanol process, comprising a first reforming step and first methanol conversion step obtaining a first effluent comprising methanol and a first gas effluent comprising hydrogen, nitrogen and unconverted carbon oxides; and from a second once-through methanol process, comprising a second reforming step and a second methanol conversion step obtaining a second effluent comprising methanol and a second gas effluent comprising hydrogen, nitrogen and unconverted carbon oxides; the first methanol process is operated in parallel with the second methanol process; from a second once-through methanol process, comprising a second reforming step and a second methanol conversion step obtaining a second effluent comprising methanol and a second gas effluent comprising hydrogen, nitrogen and unconverted carbon oxides; the first methanol process is operated in parallel with the second methanol process; b) producing an ammonia synthesis gas from the first and/or second gas effluent in a common catalytic methanation stage and withdrawing said ammonia synthesis gas preferably having a H 2 :N 2 molar ratio of approximately 3:1; c) catalytically converting the nitrogen and hydrogen of the ammonia synthesis gas in a common ammonia synthesis stage and withdrawing an effluent comprising ammonia and a purge-gas stream comprising hydrogen, nitrogen and/or methane, and d) reacting at least part of the effluent comprising ammonia with at least part of a flue gas comprising CO2 from at least one of the first and second reforming steps to produce urea.
An isolated antibody, or an antigen-binding fragment thereof, comprising a heavy chain and a light chain having: a. a heavy chain CDR1 having the amino acid sequence of SEQ ID NO: 012, a heavy chain CDR2 having the amino acid sequence of SEQ ID NO: 013, a heavy chain CDR3 having the amino acid sequence of SEQ ID NO: 014, a light chain CDR1 having the amino acid sequence of SEQ ID NO: 015, a light chain CDR2 having the amino acid sequence of SEQ ID NO: 016, and a light chain CDR3 having the amino acid sequence of SEQ ID NO: 017; or b. a heavy chain CDR1 having the amino acid sequence of SEQ ID NO: 051, a heavy chain CDR2 having the amino acid sequence of SEQ ID NO: 052, a heavy chain CDR3 having the amino acid sequence of SEQ ID NO: 053, a light chain CDR1 having the amino acid sequence of SEQ ID NO: 024, a light chain CDR2 having the amino acid sequence of SEQ ID NO: 025, and a light chain CDR3 having the amino acid sequence of SEQ ID NO: 054. a. a heavy chain CDR1 having the amino acid sequence of SEQ ID NO: 012, a heavy chain CDR2 having the amino acid sequence of SEQ ID NO: 013, a heavy chain CDR3 having the amino acid sequence of SEQ ID NO: 014, a light chain CDR1 having the amino acid sequence of SEQ ID NO: 015, a light chain CDR2 having the amino acid sequence of SEQ ID NO: 016, and a light chain CDR3 having the amino acid sequence of SEQ ID NO: 017; or b. a heavy chain CDR1 having the amino acid sequence of SEQ ID NO: 051, a heavy chain CDR2 having the amino acid sequence of SEQ ID NO: 052, a heavy chain CDR3 having the amino acid sequence of SEQ ID NO: 053, a light chain CDR1 having the amino acid sequence of SEQ ID NO: 024, a light chain CDR2 having the amino acid sequence of SEQ ID NO: 025, and a light chain CDR3 having the amino acid sequence of SEQ ID NO: 054.
An inflatable hyperbaric chamber with a multi-layer structure, which comprises a powerful compressor for raising pressure inside the chamber and proper ventilation, and an oxygen tank or any other oxygen source or a concentrator, characterized in that : o the chamber has a three-layered structure and a releasable connection of individual layers and functional elements, which allows operation of the chamber at pressures from 130 kPa (1.3 bar) to 300 kPa (3.0 bar), wherein the three-layered structure consists of an inner bag , an outer bag and a grid , mutually connected with straps with hooks on one layer interacting with straps with loops on another layer; ∘ soft windows are provided on a wrap of the inner bag; ∘ hard windows are provided on a wrap of the outer bag; ∘ a zipper on the inner bag for closing thereof is covered with a flap containing the inserts; ∘ above the flap transverse straps of the grid are closed with buckles ∘ rings are installed on the bottoms, wherein ends of horizontal straps of the grid are trapped in the said rings; ∘ the outer bag has holes corresponding to circular holes of the inner bag, the circular holes having attachments for mounting a system of valves and instruments for controlling the pressure inside the chamber. o the chamber has a three-layered structure and a releasable connection of individual layers and functional elements, which allows operation of the chamber at pressures from 130 kPa (1.3 bar) to 300 kPa (3.0 bar), wherein the three-layered structure consists of an inner bag , an outer bag and a grid , mutually connected with straps with hooks on one layer interacting with straps with loops on another layer; ∘ soft windows are provided on a wrap of the inner bag; ∘ hard windows are provided on a wrap of the outer bag; ∘ a zipper on the inner bag for closing thereof is covered with a flap containing the inserts; ∘ above the flap transverse straps of the grid are closed with buckles ∘ rings are installed on the bottoms, wherein ends of horizontal straps of the grid are trapped in the said rings; ∘ the outer bag has holes corresponding to circular holes of the inner bag, the circular holes having attachments for mounting a system of valves and instruments for controlling the pressure inside the chamber.
An additively manufactured attritable engine comprising: a compressor section; a combustion section; a turbine section; and an engine case wall surrounding the compressor section, the combustion section, and the turbine section, characterized by the engine case wall comprising: a first cavity, embedded within the engine case wall , defining an injector , wherein the injector is in fluid communication with the combustion section; a second cavity, embedded within the engine case wall , defining a fuel feed passage , wherein the fuel feed passage is adjacent to and in thermal communication with an exterior surface of the engine case wall ; and a third cavity, embedded within the engine case wall , defining a fuel line , wherein the fuel line is connected to and in fluid communication with the fuel feed passage , a fuel inlet is configured to deliver fuel to a fuel manifold , the fuel manifold is configured to deliver the fuel to the fuel line , and the fuel line is configured to deliver the fuel to the fuel feed passage , and the fuel feed passage is configured to deliver the fuel to the injector . a compressor section; a combustion section; a turbine section; and an engine case wall surrounding the compressor section, the combustion section, and the turbine section, characterized by the engine case wall comprising: a first cavity, embedded within the engine case wall , defining an injector , wherein the injector is in fluid communication with the combustion section; a second cavity, embedded within the engine case wall , defining a fuel feed passage , wherein the fuel feed passage is adjacent to and in thermal communication with an exterior surface of the engine case wall ; and a third cavity, embedded within the engine case wall , defining a fuel line , wherein the fuel line is connected to and in fluid communication with the fuel feed passage , a fuel inlet is configured to deliver fuel to a fuel manifold , the fuel manifold is configured to deliver the fuel to the fuel line , and the fuel line is configured to deliver the fuel to the fuel feed passage , and the fuel feed passage is configured to deliver the fuel to the injector . a first cavity, embedded within the engine case wall , defining an injector , wherein the injector is in fluid communication with the combustion section; a second cavity, embedded within the engine case wall , defining a fuel feed passage , wherein the fuel feed passage is adjacent to and in thermal communication with an exterior surface of the engine case wall ; and a third cavity, embedded within the engine case wall , defining a fuel line , wherein the fuel line is connected to and in fluid communication with the fuel feed passage , a fuel inlet is configured to deliver fuel to a fuel manifold , the fuel manifold is configured to deliver the fuel to the fuel line , and the fuel line is configured to deliver the fuel to the fuel feed passage , and the fuel feed passage is configured to deliver the fuel to the injector .
A carbon material for a catalyst carrier of a polymer electrolyte fuel cell, the carbon material being a porous carbon material and simultaneously satisfying , , and below: an intensity ratio (I 750 /I peak ) of an intensity at 750 °C (I 750 ) and a peak intensity at 690 ± 50 °C (I peak ), in a derivative thermogravimetric curve (DTG) obtained by a thermogravimetric analysis when a temperature is raised at a rate of 10 °C/min under an air atmosphere, is 0.10 or less; a BET specific surface area, determined by BET analysis of a nitrogen gas adsorption isotherm, is from 400 to 1,500 an integrated pore volume V 2-10 of a pore diameter of from 2 to 10 nm, determined by analysis of the nitrogen gas adsorption isotherm using Dollimore-Heal method, is from 0.4 to 1.5 mL/g; and a nitrogen gas adsorption amount V macro at a relative pressure of from 0.95 to 0.99 in the nitrogen gas adsorption isotherm is from 300 to 1,200 cc(STP)/g. an intensity ratio (I 750 /I peak ) of an intensity at 750 °C (I 750 ) and a peak intensity at 690 ± 50 °C (I peak ), in a derivative thermogravimetric curve (DTG) obtained by a thermogravimetric analysis when a temperature is raised at a rate of 10 °C/min under an air atmosphere, is 0.10 or less; a BET specific surface area, determined by BET analysis of a nitrogen gas adsorption isotherm, is from 400 to 1,500 an integrated pore volume V 2-10 of a pore diameter of from 2 to 10 nm, determined by analysis of the nitrogen gas adsorption isotherm using Dollimore-Heal method, is from 0.4 to 1.5 mL/g; and a nitrogen gas adsorption amount V macro at a relative pressure of from 0.95 to 0.99 in the nitrogen gas adsorption isotherm is from 300 to 1,200 cc(STP)/g.
Device for generating a non-thermal atmospheric pressure plasma, having a first piezoelectric transformer which is designed to ignite a non-thermal atmospheric pressure plasma in a process medium, and a control circuit , which is designed to apply an input voltage to the first piezoelectric transformer , wherein the control circuit is designed to perform a modulation of the input voltage in such a way that the first piezoelectric transformer generates an acoustic signal as a result of the modulation.
A method of wireless communication, comprising: Monitoring for downlink activity signals; determining a next random access occasion in response to detecting no downlink activity signals; detecting a successful clear channel assessment, CCA, prior to the next random access occasion; transmitting a random access signal at the next random access occasion in response to the successful clear channel assessment, wherein the next random access occasion occurs at subframe n ; and detecting absence of downlink activity signals between subframes n - M and n - N , wherein M satisfies the relationship of ( N +1) ≤ M ≤ (listen before talk, LBT, frame length + N ), where N is a minimum number of subframes for determining the no downlink activity signals before the next random access occasion; wherein the successful CCA is detected on or before a random access resynchronization boundary for subframe n . Monitoring for downlink activity signals; determining a next random access occasion in response to detecting no downlink activity signals; detecting a successful clear channel assessment, CCA, prior to the next random access occasion; transmitting a random access signal at the next random access occasion in response to the successful clear channel assessment, wherein the next random access occasion occurs at subframe n ; and detecting absence of downlink activity signals between subframes n - M and n - N , wherein M satisfies the relationship of ( N +1) ≤ M ≤ (listen before talk, LBT, frame length + N ), where N is a minimum number of subframes for determining the no downlink activity signals before the next random access occasion; wherein the successful CCA is detected on or before a random access resynchronization boundary for subframe n .
An aerosol generating system comprising: a body defining a cavity having a cavity opening ; an aerosol-forming substrate disposed in the cavity ; a heating element disposed proximate to the cavity opening ; a controller configured to detect contact of the aerosol-forming substrate with the heating element ; and a mechanical advancement mechanism configured to advance the aerosol-forming substrate towards the heating element . a body defining a cavity having a cavity opening ; an aerosol-forming substrate disposed in the cavity ; a heating element disposed proximate to the cavity opening ; a controller configured to detect contact of the aerosol-forming substrate with the heating element ; and a mechanical advancement mechanism configured to advance the aerosol-forming substrate towards the heating element .
A group III nitride semiconductor substrate suitable to be used in a semiconductor device, comprising a surface layer on a front surface of the group III nitride semiconductor substrate, wherein the surface layer contains 30×10 10 atoms/cm 2 to 2000×10 10 atoms/cm 2 of sulfide in terms of S and 2 at% to 20 at% of oxide in terms of O, characterized in that an inclination angle of a normal axis of the front surface with respect to a c-axis is 10° to 81°, and in that the surface layer contains 500×10 10 atoms/cm 2 to 8000×10 10 atoms/cm 2 of silicon compound in terms of Si.
Method which is intended for applying labels to blanks, material webs or partially completed packs - products - during the production of cigarette packs or packs for other tobacco products and in which a carrier strip with labels arranged thereon is conveyed to a pull-off station , which comprises a pull-off means , in particular a pull-off edge, and at which the labels are separated cyclically one after the other by each being pulled off from the carrier strip and each being transferred to an associated product and applied thereto, characterized in that it is automatically established, on a continuous or periodically recurring basis, whether the carrier strip , a label still located on the carrier strip or a label already applied to a product deviates from a target position in a direction perpendicular to the label pull-off direction, and in that , in the event of such deviation being ascertained, the carrier strip is automatically moved in a direction perpendicular to the label pull-off direction, to be precise such that the deviation is counteracted, wherein, in order for the deviation to be counteracted, the carrier strip is moved by virtue of a reel , from which the carrier strip is pulled off, and at least one guide means, along which the carrier strip is guided, being displaced, the carrier strip being carried along therewith.
An assessment generation system configured to assess a fitness level of a subject, wherein the assessment generation system comprises one or more processing circuits configured to: measure an average heart rate of the subject with a heart rate sensor worn by the subject over a period of time; measure an average cadence of the subject with a cadence sensor worn by the subject over the period of time, according to a motion signal of the cadence sensor ; calculate a ratio of the average heart rate to the average cadence with at least one of the processing circuits operatively coupled to the heart rate sensor and the cadence sensor ; determine at least one of a power output by the cadence sensor and an average power output by the cadence sensor over a predetermined time, according to the motion signal of the cadence sensor ; and normalize the ratio of the average heart rate to the average cadence using the power or the average power. measure an average heart rate of the subject with a heart rate sensor worn by the subject over a period of time; measure an average cadence of the subject with a cadence sensor worn by the subject over the period of time, according to a motion signal of the cadence sensor ; calculate a ratio of the average heart rate to the average cadence with at least one of the processing circuits operatively coupled to the heart rate sensor and the cadence sensor ; determine at least one of a power output by the cadence sensor and an average power output by the cadence sensor over a predetermined time, according to the motion signal of the cadence sensor ; and normalize the ratio of the average heart rate to the average cadence using the power or the average power.
Method for determining a specific control parameter range (SPB) of an autonomous mobile green area maintenance robot for an area to be treated having a specific shape and a specific size (A), - wherein the autonomous mobile green area maintenance robot is configured to control its movement on the area to be treated as a function of the specific control parameter range (SPB), the method comprising the steps - a) predefining the specific shape and the specific size (A) of the area to be treated and - b) determining the specific control parameter range (SPB) as a function of the predefined specific shape and the predefined specific size of the area to be treated. - wherein the autonomous mobile green area maintenance robot is configured to control its movement on the area to be treated as a function of the specific control parameter range (SPB), the method comprising the steps - a) predefining the specific shape and the specific size (A) of the area to be treated and - b) determining the specific control parameter range (SPB) as a function of the predefined specific shape and the predefined specific size of the area to be treated.