mhurhangee/patent-ind-claim-en huggingface dataset:
A system for providing information about a patient's heart, the system comprising: one or more electrodes for measuring signals at multiple positions in a patient's heart cavity in response to electrical activity in the patient's heart cavity over multiple heart beat cycles; and an electronic processor coupled to the one or more electrodes , wherein the electronic processor is configured to: generate annotation information for the measured signals by applying one or more operators to a specified measured signal and spatially or temporally neighboring measured signals; receive, from a user, a change to the annotation information for a specified measured signal, wherein the change to the annotation information includes a manual override; propagate the manual override to spatially neighboring electrograms; modify annotation information for one or more additional measured signals based on the change; and generate an electroanatomical representation of the patient's heart that includes at least some of the annotation information. one or more electrodes for measuring signals at multiple positions in a patient's heart cavity in response to electrical activity in the patient's heart cavity over multiple heart beat cycles; and an electronic processor coupled to the one or more electrodes , wherein the electronic processor is configured to: generate annotation information for the measured signals by applying one or more operators to a specified measured signal and spatially or temporally neighboring measured signals; receive, from a user, a change to the annotation information for a specified measured signal, wherein the change to the annotation information includes a manual override; propagate the manual override to spatially neighboring electrograms; modify annotation information for one or more additional measured signals based on the change; and generate an electroanatomical representation of the patient's heart that includes at least some of the annotation information. generate annotation information for the measured signals by applying one or more operators to a specified measured signal and spatially or temporally neighboring measured signals; receive, from a user, a change to the annotation information for a specified measured signal, wherein the change to the annotation information includes a manual override; propagate the manual override to spatially neighboring electrograms; modify annotation information for one or more additional measured signals based on the change; and generate an electroanatomical representation of the patient's heart that includes at least some of the annotation information.
A force measuring device for the at least tri-axial recording of forces Fx, Fy and Fz and/or of moments Mx, My and Mz, consisting of a first flange-like part , via which the forces/moments to be measured are introduced, a second flange-like part , via which the introduced forces/moments are received and dissipated, and a tube-like deformation zone , which connects these two parts and via which all tensile, compressive, torsional and shearing forces acting on the first flange-like part are transmitted to the second flange-like part , wherein at least the inner or outer surface of the tube-like deformation zone serves as an application surface for deformation transducers , and the tube-like deformation zone is circumferentially divided into at least eight sectors S1 to S8, and the force measuring device comprises an evaluation unit for forming measured values of at least one force component, wherein - at least one deformation transducer is disposed on each individual sector S1 to S8, - a second sector with a similar arrangement of deformation transducers, which is offset by 180° around the central axis of the deformation zone , is located opposite each sector on the tube-like deformation zone , characterized in that all deformation transducers of one sector are each connected to each other in a common Wheatstone bridge. - at least one deformation transducer is disposed on each individual sector S1 to S8, - a second sector with a similar arrangement of deformation transducers, which is offset by 180° around the central axis of the deformation zone , is located opposite each sector on the tube-like deformation zone ,
1. A sweat sensing device configured to be placed on a wearer's skin , comprising: an analyte sensor for measuring a target analyte in a sweat sample; one or more volume-reducing components comprising a sample collector , a sample coupler configured to transport sweat across the analyte sensor , and a sample pump configured to move excess sweat from the sample coupler, an outer electromagnetic shield and an inner electromagnetic shield , wherein the inner electromagnetic shield is integrated with the one or more volume reducing components, wherein the outer electromagnetic shield is configured to protect the analyte sensor from electromagnetic interference propagating from outside the wearer's body, and the inner electromagnetic shield is configured to protect the analyte sensor from electromagnetic interference propagating from inside the wearer's body, or through the wearer's body; and wherein the outer and inner electromagnetic shields each include at least one electrically conductive coating, and an electrical insulator coating. an analyte sensor for measuring a target analyte in a sweat sample; one or more volume-reducing components comprising a sample collector , a sample coupler configured to transport sweat across the analyte sensor , and a sample pump configured to move excess sweat from the sample coupler, an outer electromagnetic shield and an inner electromagnetic shield , wherein the inner electromagnetic shield is integrated with the one or more volume reducing components, wherein the outer electromagnetic shield is configured to protect the analyte sensor from electromagnetic interference propagating from outside the wearer's body, and the inner electromagnetic shield is configured to protect the analyte sensor from electromagnetic interference propagating from inside the wearer's body, or through the wearer's body; and wherein the outer and inner electromagnetic shields each include at least one electrically conductive coating, and an electrical insulator coating.
A nutritional composition which is an infant formula, as a ready-to-use product or a ready-to-use product reconstituted with water from a manufactured powder, wherein the total energy content is 67 kcal/100 ml or lower and the composition comprises: • a protein content which is 1.25 g/100 ml or lower; • an energy content from protein of 7.2-8.4 percentage of the total energy content of the nutritional composition; • an energy content from fat which is at least 49 percentage or more of the total energy content of the nutritional composition; • a medium chain fatty acid content comprising 8 to 10 carbons which is less than 3 weight % of total amount of fatty acids; • a sialic acid content of 10-25 mg/100 ml or higher; • a cholesterol content of 5-10 mg/100 ml; • a sphingomyelin content of 9-15 mg/100 ml; and • sweet whey comprising gluco macro peptide (cGMP), whey protein concentrate solids rich in phospholipids comprising cGMP and cream rich in cholesterol comprising cGMP, wherein the whey protein concentrate solids rich in phospholipids comprise at least 20 wt % phospholipids based on total lipid content of the whey protein concentrate solids rich in phospholipids. • a protein content which is 1.25 g/100 ml or lower; • an energy content from protein of 7.2-8.4 percentage of the total energy content of the nutritional composition; • an energy content from fat which is at least 49 percentage or more of the total energy content of the nutritional composition; • a medium chain fatty acid content comprising 8 to 10 carbons which is less than 3 weight % of total amount of fatty acids; • a sialic acid content of 10-25 mg/100 ml or higher; • a cholesterol content of 5-10 mg/100 ml; • a sphingomyelin content of 9-15 mg/100 ml; and • sweet whey comprising gluco macro peptide (cGMP), whey protein concentrate solids rich in phospholipids comprising cGMP and cream rich in cholesterol comprising cGMP, wherein the whey protein concentrate solids rich in phospholipids comprise at least 20 wt % phospholipids based on total lipid content of the whey protein concentrate solids rich in phospholipids.
Apparatus for processing chemically burdened particulate solids, such as combustion dusts, grinding dusts, steel mill dusts, sewage sludge, animal meal, shredder light fraction and battery scrap, wherein the apparatus comprises a housing and in the housing a combustion chamber lined with refractory material, wherein an axial inlet opening into the housing is provided at a first axial end of the housing , to which a feeding apparatus (8 comprising a storage chamber for the particulate solids is connected with a dispensing opening for the particulate solids, wherein a lance for injecting gases and/or aerosols into the combustion chamber passes axially through the inlet opening and plunges axially into the combustion chamber , wherein the lance is separated from the storage chamber by a sheathing , wherein the sheathing extends into the combustion chamber and beyond the region of the lance plunging into the combustion chamber , characterized in that the sheathing in the combustion chamber comprises an extension of its diameter, preferably to at least the diameter of the dispensing opening , the extension of the sheathing preferably having a curved rotationally symmetrical shape, in particular the shape of a sinusoidal surface of rotation.
An ultrasound transducer , comprising: at least two piezoelectric elements (110a-110f, 410a-410f, 510a-510f), oriented adjacent to each other in a stack, wherein each of the at least two piezoelectric elements comprises: a first surface comprising an electrode of a first polarity; a second surface comprising an electrode of a second polarity; a thickness between the first surface and the second surface; and an ultrasound transmitting surface not comprising an electrode; a first electrical connection between a surface of a first of the at least two piezoelectric elements of the first polarity and a surface of a second of the at least two piezoelectric elements of the first polarity; and a second electrical connection between a surface of a first of the at least two piezoelectric elements of the second polarity and a surface of a second of the at least two piezoelectric elements of the second polarity, wherein the at least two piezoelectric elements are oriented adjacent to each other when an entire electrode surface of the first of the at least two piezoelectric elements is adjacent to an entire electrode surface of the second of the at least two piezoelectric elements. a first surface comprising an electrode of a first polarity; a second surface comprising an electrode of a second polarity; a thickness between the first surface and the second surface; and an ultrasound transmitting surface not comprising an electrode; a first electrical connection between a surface of a first of the at least two piezoelectric elements of the first polarity and a surface of a second of the at least two piezoelectric elements of the first polarity; and a second electrical connection between a surface of a first of the at least two piezoelectric elements of the second polarity and a surface of a second of the at least two piezoelectric elements of the second polarity, wherein the at least two piezoelectric elements are oriented adjacent to each other when an entire electrode surface of the first of the at least two piezoelectric elements is adjacent to an entire electrode surface of the second of the at least two piezoelectric elements.
An integrated current-measuring apparatus for measuring a current by integrally using a Hall sensor and a shunt resistor, the integrated current-measuring apparatus comprising: a printed circuit board ; a shunt resistor comprising a resistive element having a preset resistance and terminals extending from both sides of the resistive element , the shunt resistor being attached to a bottom surface of the printed circuit board ; and a Hall sensor mounted on a top surface of the printed circuit board to face the shunt resistor with the printed circuit board being interposed between the Haall sensor and the shunt resistor , characterised in that first screw holes (H1) are respectively provided in the terminals of the shunt resistor with the resistive element being interposed between the first screw holes (H1), and in that the integrated current-measuring apparatus further comprises joint members integrally coupled to the first screw holes (H1) and voltage-measuring nodes provided on the printed circuit board , to fix the shunt resistor to the bottom surface of the printed circuit board and electrically connect the terminals to the voltage-measuring nodes . a printed circuit board ; a shunt resistor comprising a resistive element having a preset resistance and terminals extending from both sides of the resistive element , the shunt resistor being attached to a bottom surface of the printed circuit board ; and a Hall sensor mounted on a top surface of the printed circuit board to face the shunt resistor with the printed circuit board being interposed between the Haall sensor and the shunt resistor , characterised in that first screw holes (H1) are respectively provided in the terminals of the shunt resistor with the resistive element being interposed between the first screw holes (H1), and in that the integrated current-measuring apparatus further comprises joint members integrally coupled to the first screw holes (H1) and voltage-measuring nodes provided on the printed circuit board , to fix the shunt resistor to the bottom surface of the printed circuit board and electrically connect the terminals to the voltage-measuring nodes .
A method of determining the State of Health, SOH, and/or State of Charge, SoC, of a rechargeable battery during charging and discharging of said battery, the method implemented in a microcontroller of a standard battery management system comprising the steps of: - generating a first excitation signal within a first selected frequency range, the first excitation signal being a stepped signal, - generating a second excitation signal within a second selected frequency range, the second excitation signal being a continuously varying harmonic signal, - applying said first and second excitation signals on said rechargeable battery, - measuring the response signal for each of said two excitation signals, and then - calculate the Electrochemical Impedance, EI, as the ratio between the excitation signals and respective response signals, and then - determine the SoH and/or SoC of the rechargeable battery by comparing the calculated El to a circuit model for the battery and/or determining the SoH and/or SoC of the rechargeable battery by directly evaluating characteristics of the EI. - generating a first excitation signal within a first selected frequency range, the first excitation signal being a stepped signal, - generating a second excitation signal within a second selected frequency range, the second excitation signal being a continuously varying harmonic signal, - applying said first and second excitation signals on said rechargeable battery, - measuring the response signal for each of said two excitation signals, and then - calculate the Electrochemical Impedance, EI, as the ratio between the excitation signals and respective response signals, and then - determine the SoH and/or SoC of the rechargeable battery by comparing the calculated El to a circuit model for the battery and/or determining the SoH and/or SoC of the rechargeable battery by directly evaluating characteristics of the EI.
Method for producing a decorated wall or floor panel , comprising the steps: a) providing a plate-shaped carrier ; b) applying a decoration replicating a decorative template onto at least a part of the plate-shaped carrier ; c) applying a covering layer onto the decoration , wherein the covering layer comprises a radiation-curable compound; and d) curing the covering layer ; wherein method step b) is carried out by a digital printing method and in that method step c) is carried out at least partially by a digital printing method and wherein, in order to form the covering layer , at least initially a first layer is applied to the decor and subsequently a structure-imposing layer is applied by means of a digital printing device , to which a final layer is applied by means of an application unit and subsequently a hardening according to step d) is carried out, characterized in that in step d), the covering layer is cured using a first radiator and a second radiator , wherein the first radiator emits radiation with a different wavelength compared to radiation from the second radiator and wherein the first radiator and the second radiator are used in a common curing step without further intermediate steps. a) providing a plate-shaped carrier ; b) applying a decoration replicating a decorative template onto at least a part of the plate-shaped carrier ; c) applying a covering layer onto the decoration , wherein the covering layer comprises a radiation-curable compound; and d) curing the covering layer ;
A method for controlling a wind turbine comprising a hydraulic pitch force system wherein the hydraulic pitch force system is controlled so as to reduce or eliminate a decrease in hydraulic oil pressure if a hydraulic system parameter value is outside a hydraulic system parameter range, the method comprising: - Obtaining the hydraulic system parameter value, - operating the hydraulic pitch force system according to a reduced mode if the hydraulic system parameter value is outside the hydraulic system parameter range, wherein in the reduced mode: - One or more pitch based activities are reduced or suspended, characterized in that in the reduced mode the method further comprises: - Operating the wind turbine in a derated mode, wherein in the derated mode: - A speed and/or power is limited in order to reduce structural loads on the wind turbine . - Obtaining the hydraulic system parameter value, - operating the hydraulic pitch force system according to a reduced mode if the hydraulic system parameter value is outside the hydraulic system parameter range, - One or more pitch based activities are reduced or suspended, - Operating the wind turbine in a derated mode, - A speed and/or power is limited in order to reduce structural loads on the wind turbine .
A method of authorizing a secondary user device for a network service provided over a network , the method comprising: responsive to receiving a request from a primary user device , transmitting from back-end server a voucher over the network to the primary user device ; receiving a request at the back-end server for an authorization waiver from the secondary user device over the network wherein the request for the authorization waiver includes the voucher that was transmitted to the primary user device ; and responsive to receiving the request from the secondary user device including the voucher, transmitting an authorization waiver from back-end server to the secondary user device , characterised in that , the authorization waiver includes a session cookie, and the method further comprising: receiving at an authorization server, a request for an access token from the secondary user device wherein the request for an access token includes the session cookie; and responsive to receiving the request for an access token, transmitting from the authorization server an access token to the secondary user device wherein the access token is valid for the back-end server . responsive to receiving a request from a primary user device , transmitting from back-end server a voucher over the network to the primary user device ; receiving a request at the back-end server for an authorization waiver from the secondary user device over the network wherein the request for the authorization waiver includes the voucher that was transmitted to the primary user device ; and responsive to receiving the request from the secondary user device including the voucher, transmitting an authorization waiver from back-end server to the secondary user device , characterised in that , the authorization waiver includes a session cookie, and the method further comprising: receiving at an authorization server, a request for an access token from the secondary user device wherein the request for an access token includes the session cookie; and responsive to receiving the request for an access token, transmitting from the authorization server an access token to the secondary user device wherein the access token is valid for the back-end server . receiving at an authorization server, a request for an access token from the secondary user device wherein the request for an access token includes the session cookie; and responsive to receiving the request for an access token, transmitting from the authorization server an access token to the secondary user device wherein the access token is valid for the back-end server .
An immunogenic composition comprising: a) A polypeptide comprising an isolated Clostridium difficile toxin A fragment and an isolated C. difficile toxin B fragment wherein the polypeptide comprises a toxin A repeating domain fragment and a toxin B repeating domain fragment; and b) an adjuvant comprising an oil in water emulsion, wherein said oil in water emulsion comprises a metabolisable oil, a tocol and an emulsifier; wherein the immunogenic composition is in a volume suitable for human dose, which volume is 0.5ml or higher than 0.5 ml, for example 0.6, 0.7, 0.8, 0.9 or 1 ml, or between 1 ml and 1.5 ml. a) A polypeptide comprising an isolated Clostridium difficile toxin A fragment and an isolated C. difficile toxin B fragment wherein the polypeptide comprises a toxin A repeating domain fragment and a toxin B repeating domain fragment; and b) an adjuvant comprising an oil in water emulsion, wherein said oil in water emulsion comprises a metabolisable oil, a tocol and an emulsifier;
A method of fabricating a gas turbine component having active cooling, comprising the following steps in order: providing a component including at least one aperture disposed on a surface of the component and fluidly connected to at least one fluid flow passage , the at least one aperture comprising a floor extending from the at least one fluid flow passage to the surface of the component , and a ceiling facing the floor , wherein the ceiling includes a surface that extends opposite the floor and forms an exposed hood with the surface of the component ; applying a thermal barrier coating over at least a portion of the surface ; removing a portion of the thermal barrier coating covering the at least one aperture ; forming with an additive manufacturing process an individual sharp-edged hood for the or each of the at least one aperture providing a component including at least one aperture disposed on a surface of the component and fluidly connected to at least one fluid flow passage , the at least one aperture comprising a floor extending from the at least one fluid flow passage to the surface of the component , and a ceiling facing the floor , wherein the ceiling includes a surface that extends opposite the floor and forms an exposed hood with the surface of the component ; applying a thermal barrier coating over at least a portion of the surface ; removing a portion of the thermal barrier coating covering the at least one aperture ; forming with an additive manufacturing process an individual sharp-edged hood for the or each of the at least one aperture