mhurhangee/ep-ind-claims huggingface dataset:
A cooktop of predetermined width, length and height, defining a top surface and an opposite bottom surface, comprising: - a plurality of cooking zones and a cavity in said top surface; - a device that forms a mounting unit with said top surface, for operating and controlling the cooktop and permitting downward exhaust of cooking vapors, wherein said device comprises in order from said top surface: - an apparatus operably configured to hold heating elements that can heat said plurality of cooking zones and control and monitoring electronics for said cooktop, - a first cooking vapor intake chamber in fluid communication with said cavity, - a fan housing for a radial fan, - a second cooking vapor intake chamber in fluid communication with said cavity, - wherein said fan housing is in fluid communication with said first intake chamber and said second intake chamber, characterized in that said first intake chamber is configured to divide said cooking vapors into a first portion of the cooking vapors to be conveyed downwards into the fan housing and a second portion of the cooking vapors to be conveyed upwards into the fan housing through said second intake chamber. - a plurality of cooking zones and a cavity in said top surface; - a device that forms a mounting unit with said top surface, for operating and controlling the cooktop and permitting downward exhaust of cooking vapors, wherein said device comprises in order from said top surface: - an apparatus operably configured to hold heating elements that can heat said plurality of cooking zones and control and monitoring electronics for said cooktop, - a first cooking vapor intake chamber in fluid communication with said cavity, - a fan housing for a radial fan, - a second cooking vapor intake chamber in fluid communication with said cavity, - wherein said fan housing is in fluid communication with said first intake chamber and said second intake chamber,
Method for providing aggregate offers of electrical energy, each offer of electrical energy being defined by a power and a duration in a predetermined time interval on the basis of a plurality of loads and/or sources of customer sites (2, 4) of an electrical network, each customer site being capable of proposing, for the predetermined time interval, at least one elementary offer for reduction or provision of electrical power having an associated duration and corresponding to a reduction in electrical power consumption by a load (20, 26) of the site or to a provision of electrical energy by an electrical energy source of the site, implemented by one or more processor(s), comprising the steps of: - receiving information relating to a provision of electrical power from the loads and/or the sources of each customer site, and determining at least one elementary block of electrical power for each customer site, each elementary block (BE i) of power being defined in two dimensions by an associated duration (DE i) and an associated electrical power (PE i); - spatial arrangement (36, 38) of the elementary blocks of power in order to obtain an aggregate block defined by an electrical power and a duration, said electrical power and/or said duration of the aggregate block satisfying a constraint selected from among a set power value (P_c) or a set duration value (D_c), the step of spatial arrangement implementing a method for optimising spatial filling of a block, defined by a maximum power (P max) and a maximum duration (D max), with elementary blocks, characterised in that it comprises a step of rearranging and/or re-slicing after the method for optimising spatial filling has been implemented, in order to obtain an aggregate block according to the selected constraint, wherein the constraint to be satisfied also requires a quality criterion that limits a power deficit to a percentage of the electrical power of the aggregate block to be satisfied. - receiving information relating to a provision of electrical power from the loads and/or the sources of each customer site, and determining at least one elementary block of electrical power for each customer site, each elementary block (BE i) of power being defined in two dimensions by an associated duration (DE i) and an associated electrical power (PE i); - spatial arrangement (36, 38) of the elementary blocks of power in order to obtain an aggregate block defined by an electrical power and a duration, said electrical power and/or said duration of the aggregate block satisfying a constraint selected from among a set power value (P_c) or a set duration value (D_c),
Filter unit for treating a main through flow of air, said filter unit comprising: a main inlet and a main outlet in fluid connection and arranged at a distance from each other; at least one ultraviolet light source adapted for air treatment arranged between said main inlet and said main outlet; at least one electrical component for operating said ultraviolet light source; wherein said main flow, when said filter unit is in use, creates a negative pressure inside the filter unit between said main inlet and said main outlet; wherein said filter unit further comprises a compartment, separated from said main flow, in which compartment said at least one electrical component is arranged, characterized in that said compartment is provided with a secondary outlet in fluid connection with said main flow and further provided with a secondary inlet in fluid connection with an outside of the filter unit so that a secondary flow from said secondary inlet through said compartment to said secondary outlet is provided by said negative pressure inside the filter unit when in use, wherein the secondary inlet is separate from the main inlet in order to provide a secondary flow with lower temperature and/or less contaminants than in the main inlet, and wherein said ultraviolet light source and said compartment form part of a removable module. a main inlet and a main outlet in fluid connection and arranged at a distance from each other; at least one ultraviolet light source adapted for air treatment arranged between said main inlet and said main outlet; at least one electrical component for operating said ultraviolet light source; wherein said main flow, when said filter unit is in use, creates a negative pressure inside the filter unit between said main inlet and said main outlet; wherein said filter unit further comprises a compartment, separated from said main flow, in which compartment said at least one electrical component is arranged, characterized in that said compartment is provided with a secondary outlet in fluid connection with said main flow and further provided with a secondary inlet in fluid connection with an outside of the filter unit so that a secondary flow from said secondary inlet through said compartment to said secondary outlet is provided by said negative pressure inside the filter unit when in use, wherein the secondary inlet is separate from the main inlet in order to provide a secondary flow with lower temperature and/or less contaminants than in the main inlet, and wherein said ultraviolet light source and said compartment form part of a removable module.
A lighting assembly comprising a light engine having at least one light emitting element and a reflector, wherein the lighting assembly further comprises; a first reflector, a second reflector, at least two sidewall parts (112, 116), a fastening arrangement (122, 124) adapted to secure the first reflector to at least one sidewall part, and a second fastening arrangement (122, 124) adapted to secure the second reflector to at least one sidewall part; the first reflector, the second reflector and the at least two sidewall parts (112, 116) being adapted to be arranged in a lighting fixture and secured to each other such that they define sidewalls of a four-sided cavity; the light engine being arranged to emit light out of said cavity; and junctions between the first reflector, the second reflector and the at least two sidewall parts (112, 116) are arranged to be at the corners of the four-sided cavity when the first reflector, the second reflector and the at least two sidewall parts (112, 116) are arranged in the lighting fixture and wherein the light engine reflector is mechanically connected to the first reflector, and the second reflector of the lighting assembly. a first reflector, a second reflector, at least two sidewall parts (112, 116), a fastening arrangement (122, 124) adapted to secure the first reflector to at least one sidewall part, and a second fastening arrangement (122, 124) adapted to secure the second reflector to at least one sidewall part; the first reflector, the second reflector and the at least two sidewall parts (112, 116) being adapted to be arranged in a lighting fixture and secured to each other such that they define sidewalls of a four-sided cavity; the light engine being arranged to emit light out of said cavity; and junctions between the first reflector, the second reflector and the at least two sidewall parts (112, 116) are arranged to be at the corners of the four-sided cavity when the first reflector, the second reflector and the at least two sidewall parts (112, 116) are arranged in the lighting fixture and wherein the light engine reflector is mechanically connected to the first reflector, and the second reflector of the lighting assembly.
A publish-subscribe interface method, comprising: connecting a plurality of independent and diverse publish-subscribe systems and a platform-independent interface that is configured to exchange messages between publishers and subscribers; connecting a software application and the platform-independent interface; and exchanging a plurality of messages between two or more of the diverse publish-subscribe systems and the software application; wherein the platform-independent interface integrates a session layer, a presentation layer, and an application layer; and wherein the exchanging comprises translating by the presentation layer messages from the software application into different formats of the respective two or more of the diverse publish-subscribe systems; and translating by the presentation layer messages from the two or more of the diverse publish-subscribe systems into a format of the software application; and wherein the exchanging comprises receiving by the software application requests for data from the subscribers of the two or more of the diverse publish-subscribe systems; and dispatching by the software application the requested data to said subscribers of the two or more diverse publish-subscribe systems; and controlling by the session layer connections between the software application and the two or more of the diverse publish-subscribe systems; wherein the two or more publish-subscribe systems run concurrently. connecting a plurality of independent and diverse publish-subscribe systems and a platform-independent interface that is configured to exchange messages between publishers and subscribers; connecting a software application and the platform-independent interface; and exchanging a plurality of messages between two or more of the diverse publish-subscribe systems and the software application; wherein the platform-independent interface integrates a session layer, a presentation layer, and an application layer; and wherein the exchanging comprises translating by the presentation layer messages from the software application into different formats of the respective two or more of the diverse publish-subscribe systems; and translating by the presentation layer messages from the two or more of the diverse publish-subscribe systems into a format of the software application; and wherein the exchanging comprises receiving by the software application requests for data from the subscribers of the two or more of the diverse publish-subscribe systems; and dispatching by the software application the requested data to said subscribers of the two or more diverse publish-subscribe systems; and controlling by the session layer connections between the software application and the two or more of the diverse publish-subscribe systems; wherein the two or more publish-subscribe systems run concurrently.
An ultrasound transducer comprising: a frame; an array of transducer elements secured to the frame; a number of conductive paths that connect to the transducer elements in the array, characterized in that the conductive paths includes a rib with a conductive surface that extends outwardly from a surface of the frame and is configured to engage an electrical conductor; and one or more registration features that are positioned on the frame and configured to mate with an alignment feature on a flex circuit in order to align exposed traces in the flex circuit with the ribs of the conductive paths. a frame; an array of transducer elements secured to the frame; a number of conductive paths that connect to the transducer elements in the array, characterized in that the conductive paths includes a rib with a conductive surface that extends outwardly from a surface of the frame and is configured to engage an electrical conductor; and one or more registration features that are positioned on the frame and configured to mate with an alignment feature on a flex circuit in order to align exposed traces in the flex circuit with the ribs of the conductive paths.
A nozzle for a combustor for a gas turbine, the combustor configured to burn fuel containing hydrogen, the nozzle comprising: a plurality of mixing tubes for allowing air and fuel to flow through; a multi-tube supporting the mixing tubes; a fuel tube formed inside the multi-tube for allowing fuel to flow through; a tip plate coupled to a tip of the multi-tube; and a front plate (1460, 2460, 3460) spaced apart from the tip plate to define a cooling space; characterized in that: each of the mixing tubes is equipped with at least one mixing guide extending spirally, wherein each of the mixing guides comprises a spiral part extending spirally and a guide plate protruding from the spiral part toward an inlet and having a flat shape, and wherein the guide plate has a chamber for accommodation of fuel therein and an injection hole through which fuel is injected. a plurality of mixing tubes for allowing air and fuel to flow through; a multi-tube supporting the mixing tubes; a fuel tube formed inside the multi-tube for allowing fuel to flow through; a tip plate coupled to a tip of the multi-tube; and a front plate (1460, 2460, 3460) spaced apart from the tip plate to define a cooling space; characterized in that: each of the mixing tubes is equipped with at least one mixing guide extending spirally, wherein each of the mixing guides comprises a spiral part extending spirally and a guide plate protruding from the spiral part toward an inlet and having a flat shape, and wherein the guide plate has a chamber for accommodation of fuel therein and an injection hole through which fuel is injected. each of the mixing tubes is equipped with at least one mixing guide extending spirally, wherein each of the mixing guides comprises a spiral part extending spirally and a guide plate protruding from the spiral part toward an inlet and having a flat shape, and wherein the guide plate has a chamber for accommodation of fuel therein and an injection hole through which fuel is injected.
A wearable training computer, comprising: a global navigation satellite system, GNSS, antenna arrangement configured to provide a group of antenna configurations for receiving a GNSS signal, wherein each antenna configuration provides different radio frequency properties; a measurement circuitry configured to measure performance of the GNSS antenna; and a processing circuitry configured to select, based on at least an activity type of a user of the wearable training computer, a subset of the antenna configurations from the group of the antenna configurations, and further configured to select, from the subset of the antenna configurations based on the measured GNSS antenna performance, an antenna configuration for receiving the GNSS signal, wherein the processing circuitry is further configured to trigger a measurement phase where the measurement circuitry measures performance of all antenna configurations of the selected subset for selecting the antenna configuration. a global navigation satellite system, GNSS, antenna arrangement configured to provide a group of antenna configurations for receiving a GNSS signal, wherein each antenna configuration provides different radio frequency properties; a measurement circuitry configured to measure performance of the GNSS antenna; and a processing circuitry configured to select, based on at least an activity type of a user of the wearable training computer, a subset of the antenna configurations from the group of the antenna configurations, and further configured to select, from the subset of the antenna configurations based on the measured GNSS antenna performance, an antenna configuration for receiving the GNSS signal, wherein the processing circuitry is further configured to trigger a measurement phase where the measurement circuitry measures performance of all antenna configurations of the selected subset for selecting the antenna configuration.
A method of monitoring a burner and/or a burning behavior of a burner, wherein at least one ionization signal is measured, and wherein the measured ionization signal is used for monitoring the burner and/or the burning behavior of the burner, and wherein the ionization signal is measured between an ionization electrode (4, 4') and a counter-electrode spaced apart from a burner surface of the burner, wherein for a calibration and/or for a determination of parameters used when monitoring the burner, ionization signals are measured during a hyperstoichiometric combustion, characterized in that a local extremum of the ionization signal is determined during the hyperstoichiometric combustion in dependence on a lambda value of an air-fuel mixture supplied to the burner and is used for the calibration and/or determination. wherein at least one ionization signal is measured, and wherein the measured ionization signal is used for monitoring the burner and/or the burning behavior of the burner, and wherein the ionization signal is measured between an ionization electrode (4, 4') and a counter-electrode spaced apart from a burner surface of the burner, wherein for a calibration and/or for a determination of parameters used when monitoring the burner, ionization signals are measured during a hyperstoichiometric combustion, characterized in that a local extremum of the ionization signal is determined during the hyperstoichiometric combustion in dependence on a lambda value of an air-fuel mixture supplied to the burner and is used for the calibration and/or determination.
A first near field communication capable device, comprising: an antenna module configured to detect a generated magnetic field from a second NFC capable device, the antenna module comprising: a primary inductive coupling element configured to receive and transmit data with the second NFC capable device; and a plurality of passive inductive coupling elements (406, 408), each passive inductive coupling element configured to provide a detection signal when within range of the generated magnetic field; and a controller module configured to determine a motion of the second NFC capable device relative to the first NFC capable device based on the detection signal from each passive inductive coupling element. an antenna module configured to detect a generated magnetic field from a second NFC capable device, the antenna module comprising: a primary inductive coupling element configured to receive and transmit data with the second NFC capable device; and a plurality of passive inductive coupling elements (406, 408), each passive inductive coupling element configured to provide a detection signal when within range of the generated magnetic field; and a primary inductive coupling element configured to receive and transmit data with the second NFC capable device; and a plurality of passive inductive coupling elements (406, 408), each passive inductive coupling element configured to provide a detection signal when within range of the generated magnetic field; and a controller module configured to determine a motion of the second NFC capable device relative to the first NFC capable device based on the detection signal from each passive inductive coupling element.
A system for managing thermal transfer in an aircraft, the system comprising: a fuel stabilization unit for creating deoxygenized fuel; a first fuel-air heat exchanger fluidly connected to the fuel stabilization unit and fluidly connected to a first portion of an engine compressor to receive first bleed air therefrom, the first fuel-air heat exchanger placing the deoxygenized fuel in a heat exchange relationship with the first bleed air to produce heated deoxygenized fuel and cooled first bleed air; and a turbine operationally connected to the engine compressor, the turbine receiving the cooled first bleed air for cooling the turbine; characterised in that the system further comprises: a second fuel-air heat exchanger fluidly connected to the first fuel-air heat exchanger to receive fuel therefrom and fluidly connected to a second portion of the engine compressor to receive second bleed air therefrom, the second fuel-air heat exchanger placing the heated deoxygenized fuel in a heat exchange relationship with the second bleed air to produce further heated deoxygenized fuel and cooled second bleed air. a fuel stabilization unit for creating deoxygenized fuel; a first fuel-air heat exchanger fluidly connected to the fuel stabilization unit and fluidly connected to a first portion of an engine compressor to receive first bleed air therefrom, the first fuel-air heat exchanger placing the deoxygenized fuel in a heat exchange relationship with the first bleed air to produce heated deoxygenized fuel and cooled first bleed air; and a turbine operationally connected to the engine compressor, the turbine receiving the cooled first bleed air for cooling the turbine; characterised in that the system further comprises: a second fuel-air heat exchanger fluidly connected to the first fuel-air heat exchanger to receive fuel therefrom and fluidly connected to a second portion of the engine compressor to receive second bleed air therefrom, the second fuel-air heat exchanger placing the heated deoxygenized fuel in a heat exchange relationship with the second bleed air to produce further heated deoxygenized fuel and cooled second bleed air.