mhurhangee/patent-ind-claim-en huggingface dataset:
System for capping a mouth of a container comprising: - a press-on cap for capping a mouth of a container said press-on cap being made of a polymeric material that is able to withstand a high-temperature sterilization cycle and comprising: - a tubular sleeve extending along an axis of extension (X'-X') and adapted to be irreversibly locked to the mouth of the container ; - a rim that radially projects out of said tubular sleeve at one end of the cap , - a capping wall oriented transverse to said tubular sleeve and extending from said rim and all over a surface delimited by said rim , said capping wall having a front surface facing outwardly, - said press-on cap comprising a plurality of projections , which extend out of said front surface ; - said front surface has a height variation relative to said rim across its surface ranging from -1% to 1% of a characteristic dimension of said capping wall , - a grip head of a filling apparatus; wherein said projections are shaped complementary to said grip head of said filling apparatus and configured to guide said gripping head during application of said cap . - a press-on cap for capping a mouth of a container said press-on cap being made of a polymeric material that is able to withstand a high-temperature sterilization cycle and comprising: - a tubular sleeve extending along an axis of extension (X'-X') and adapted to be irreversibly locked to the mouth of the container ; - a rim that radially projects out of said tubular sleeve at one end of the cap , - a capping wall oriented transverse to said tubular sleeve and extending from said rim and all over a surface delimited by said rim , said capping wall having a front surface facing outwardly, - said press-on cap comprising a plurality of projections , which extend out of said front surface ; - said front surface has a height variation relative to said rim across its surface ranging from -1% to 1% of a characteristic dimension of said capping wall , - a grip head of a filling apparatus; - a tubular sleeve extending along an axis of extension (X'-X') and adapted to be irreversibly locked to the mouth of the container ; - a rim that radially projects out of said tubular sleeve at one end of the cap , - a capping wall oriented transverse to said tubular sleeve and extending from said rim and all over a surface delimited by said rim , said capping wall having a front surface facing outwardly, - said press-on cap comprising a plurality of projections , which extend out of said front surface ; - said front surface has a height variation relative to said rim across its surface ranging from -1% to 1% of a characteristic dimension of said capping wall , - a grip head of a filling apparatus;
Sensor device comprising a sensor and an anonymization unit , wherein the sensor is designed to generate a sensor data stream and wherein the sensor is coupled to the anonymization unit by a data path which contains no digital memory or only volatile memory , the anonymization unit comprising: - an analyzation module for identifying pre-defined sensitive data in the sensor data stream on the basis of a pre-defined privacy criterion; and - a replacement module for replacing the sensitive data in the sensor data stream with pre-defined masking data such that the sensor data is anonym ized in the sensor data stream before any storing in a non-volatile memory , characterized in that the sensor is a LIDAR sensor and/or a radar sensor. - an analyzation module for identifying pre-defined sensitive data in the sensor data stream on the basis of a pre-defined privacy criterion; and - a replacement module for replacing the sensitive data in the sensor data stream with pre-defined masking data such that the sensor data is anonym ized in the sensor data stream before any storing in a non-volatile memory ,
A method of manufacturing an electronics package, the method comprising the steps below in the following order: providing a first dielectric layer ; forming a metalized contact layer on a first surface of the first dielectric layer ; forming a first plurality of metalized vias on a second surface of the first dielectric layer opposite the first surface , the first plurality of metalized vias extending through a thickness of the first dielectric layer to contact at least a portion of the metalized contact layer ; forming a first electrical component opening through the thickness of the first dielectric layer ; coupling a second dielectric layer to the second surface of the first dielectric layer ; positioning a first electrical component within the first electrical component opening ; forming a second plurality of metalized vias on a bottom surface of the second dielectric layer , the second plurality of metalized vias extending through a thickness of the second dielectric layer to couple the metalized contact layer to the first electrical component ; and coupling a first conductive element between the first electrical component and the metalized contact layer . providing a first dielectric layer ; forming a metalized contact layer on a first surface of the first dielectric layer ; forming a first plurality of metalized vias on a second surface of the first dielectric layer opposite the first surface , the first plurality of metalized vias extending through a thickness of the first dielectric layer to contact at least a portion of the metalized contact layer ; forming a first electrical component opening through the thickness of the first dielectric layer ; coupling a second dielectric layer to the second surface of the first dielectric layer ; positioning a first electrical component within the first electrical component opening ; forming a second plurality of metalized vias on a bottom surface of the second dielectric layer , the second plurality of metalized vias extending through a thickness of the second dielectric layer to couple the metalized contact layer to the first electrical component ; and coupling a first conductive element between the first electrical component and the metalized contact layer .
A reverse power connection preventing circuit for a circuit breaker , which circuit breaker comprising a positive input terminal (A1), a negative input terminal (A2) and a switch on mechanism configured to control the circuit breaker to be closed or open when being manipulated, the reverse power connection preventing circuit comprising a diode and an actuation unit that are connected in series, and further comprising a current limiting resistor connected in series to the diode and the actuation unit , wherein the diode and the actuation unit that are connected in series are configured to connect the positive input terminal (A1) and the negative input terminal (A2) of the circuit breaker ; a positive electrode of the diode points to the negative wiring terminal (A2) of the circuit breaker , and a negative electrode of the diode points to the positive input terminal (A1) of the circuit breaker ; and the actuation unit is configured to prevent closing of the circuit breaker when the diode is conducted, and/or is configured to perform an alarm prompt when the diode is conducted; and characterised in that the actuation unit is specifically configured to lock the switch on mechanism when the diode is conducted. the diode and the actuation unit that are connected in series are configured to connect the positive input terminal (A1) and the negative input terminal (A2) of the circuit breaker ; a positive electrode of the diode points to the negative wiring terminal (A2) of the circuit breaker , and a negative electrode of the diode points to the positive input terminal (A1) of the circuit breaker ; and the actuation unit is configured to prevent closing of the circuit breaker when the diode is conducted, and/or is configured to perform an alarm prompt when the diode is conducted; and characterised in that the actuation unit is specifically configured to lock the switch on mechanism when the diode is conducted.
A waveguide display element comprising - a waveguide comprising at least three waveguide layers stacked on top of each other, - diffractive in-coupling gratings associated with each waveguide layer and being displaced with respect to each other in the plane of said layers, the in-coupling gratings adapted to form input pupils for different light wavelength ranges coupled to the waveguide, - a diffractive out-coupling means for coupling light in-coupled through said input pupils and propagating in said layers out of the waveguide such that a polychromatic image can be formed, wherein the input pupils are configured to in-couple light arriving at different central angles of each input pupil with respect to each other, and the in-coupling gratings of the input pupils are different so as to make a field-of-view displacement correction for the in-coupled light. - a waveguide comprising at least three waveguide layers stacked on top of each other, - diffractive in-coupling gratings associated with each waveguide layer and being displaced with respect to each other in the plane of said layers, the in-coupling gratings adapted to form input pupils for different light wavelength ranges coupled to the waveguide, - a diffractive out-coupling means for coupling light in-coupled through said input pupils and propagating in said layers out of the waveguide such that a polychromatic image can be formed,
A heat-not-burn smoking article comprising a tobacco filler containing tobacco, an aerosol former, and an organic acid; and a filter disposed downstream of the tobacco filler, wherein the tobacco filler is a tobacco filler that provides an aerosol having a pH of 7.8 or less, the tobacco is present in the form of tobacco shreds, regenerated sheets, or dust, the aerosol former is selected from the group consisting of glycerol, propylene glycol, triethylene glycol, tetraethylene glycol, 1,3-butanediol, methyl stearate, dimethyl dodecanedioate, dimethyl tetradecanedioate, triethyl citrate, triacetin and combinations thereof, the organic acid includes at least one of benzoic acid and levulinic acid, the content of the organic acid is 0.1 to 10 mass% relative to 100 mass% of the tobacco filler, and the filter includes a cellulose, polypropylene, polylactic acid, and paper primarily made of pulp. a tobacco filler containing tobacco, an aerosol former, and an organic acid; and a filter disposed downstream of the tobacco filler, wherein the tobacco filler is a tobacco filler that provides an aerosol having a pH of 7.8 or less, the tobacco is present in the form of tobacco shreds, regenerated sheets, or dust, the aerosol former is selected from the group consisting of glycerol, propylene glycol, triethylene glycol, tetraethylene glycol, 1,3-butanediol, methyl stearate, dimethyl dodecanedioate, dimethyl tetradecanedioate, triethyl citrate, triacetin and combinations thereof, the organic acid includes at least one of benzoic acid and levulinic acid, the content of the organic acid is 0.1 to 10 mass% relative to 100 mass% of the tobacco filler, and the filter includes a cellulose, polypropylene, polylactic acid, and paper primarily made of pulp.
A computer-implemented method of recognising chords in music, the method comprising: receiving music data for a time interval; processing the music data in a machine learning model to output chord data corresponding to the time interval, the chord data comprising a set of chord features; wherein the processing in the machine learning model is characterised by : predicting a value of a chord feature from a set of chord features using an Autoregressive Distribution Estimator ADE; modifying the ADE using the predicted value for the chord feature using the modified ADE to predict a value for a different feature of the chord from the set of chord features; repeating the modifying and predicting until a value for each of the features in the set of chord features have been predicted. receiving music data for a time interval; processing the music data in a machine learning model to output chord data corresponding to the time interval, the chord data comprising a set of chord features; wherein the processing in the machine learning model is characterised by : predicting a value of a chord feature from a set of chord features using an Autoregressive Distribution Estimator ADE; modifying the ADE using the predicted value for the chord feature using the modified ADE to predict a value for a different feature of the chord from the set of chord features; predicting a value of a chord feature from a set of chord features using an Autoregressive Distribution Estimator ADE; modifying the ADE using the predicted value for the chord feature using the modified ADE to predict a value for a different feature of the chord from the set of chord features; repeating the modifying and predicting until a value for each of the features in the set of chord features have been predicted.
An energy storage module comprising: a plurality of battery cells arranged in a length direction such that long side surfaces of adjacent ones of the battery cells face one another; a plurality of insulation spacers , at least one of the insulation spacers being between the long side surfaces of each adjacent pair of the battery cells ; a cover member comprising an internal receiving space configured to accommodate the battery cells and the insulation spacers ; a top plate coupled to a top of the cover member , the top plate comprising ducts respectively corresponding to vents of the battery cells and having opening holes respectively corresponding to the insulation spacers ; a top cover coupled to a top of the top plate and having discharge holes respectively corresponding to the ducts ; and an extinguisher sheet between the top cover and the top plate , the extinguisher sheet being configured to emit a fire extinguishing agent at a temperature exceeding a reference temperature, wherein the top cover comprises protrusion parts on a bottom surface thereof, the protrusion parts covering an exhaust region and being coupled to an exterior of each of the ducts , and each of the insulation spacers comprises a heat-insulating first sheet and flame-retardant or non-combustible second sheets respectively adhered to opposite surfaces of the first sheet by an adhesion member , and wherein the long side surfaces of the adjacent battery cells are spaced apart from each other by a first distance, and wherein a thickness of each of the insulation spacers is less than 50% of the first distance. a plurality of battery cells arranged in a length direction such that long side surfaces of adjacent ones of the battery cells face one another; a plurality of insulation spacers , at least one of the insulation spacers being between the long side surfaces of each adjacent pair of the battery cells ; a cover member comprising an internal receiving space configured to accommodate the battery cells and the insulation spacers ; a top plate coupled to a top of the cover member , the top plate comprising ducts respectively corresponding to vents of the battery cells and having opening holes respectively corresponding to the insulation spacers ; a top cover coupled to a top of the top plate and having discharge holes respectively corresponding to the ducts ; and an extinguisher sheet between the top cover and the top plate , the extinguisher sheet being configured to emit a fire extinguishing agent at a temperature exceeding a reference temperature, wherein the top cover comprises protrusion parts on a bottom surface thereof, the protrusion parts covering an exhaust region and being coupled to an exterior of each of the ducts , and each of the insulation spacers comprises a heat-insulating first sheet and flame-retardant or non-combustible second sheets respectively adhered to opposite surfaces of the first sheet by an adhesion member , and wherein the long side surfaces of the adjacent battery cells are spaced apart from each other by a first distance, and wherein a thickness of each of the insulation spacers is less than 50% of the first distance.
A process for producing carbon monoxide (CO) from carbon dioxide (CO 2 ) in a solid oxide electrolysis cell (SOEC) stack, wherein CO 2 is led to the fuel side of the SOEC with an applied current, and wherein the content of CO in the output from the SOEC stack is 20-80 wt%, said process further comprising: heating the inlet gas on the fuel side by means of a heating unit, so as to supply heat to the SOEC, wherein the operation temperature of said heating unit is at least the operation temperature of the cell stack minus 50°C, preferably at least the operation temperature of the cell stack, and heating the inlet gas on the oxygen side by means of a heating unit, so as to supply heat to the SOEC, wherein the operation temperature of said heating unit is at least the operation temperature of the cell stack minus 50°C, preferably at least the operation temperature of the cell stack, wherein - a suitable operating temperature for the SOEC is maintained with feed effluent heat exchangers incorporated on both the oxygen side and the fuel side of the SOEC, and - the carbon dioxide from a gas separation unit, which still contains some carbon monoxide, is recycled to the fuel side of the SOEC and tied to the CO 2 feed stream upstream from feed a gas purification unit. heating the inlet gas on the fuel side by means of a heating unit, so as to supply heat to the SOEC, wherein the operation temperature of said heating unit is at least the operation temperature of the cell stack minus 50°C, preferably at least the operation temperature of the cell stack, and heating the inlet gas on the oxygen side by means of a heating unit, so as to supply heat to the SOEC, wherein the operation temperature of said heating unit is at least the operation temperature of the cell stack minus 50°C, preferably at least the operation temperature of the cell stack, wherein - a suitable operating temperature for the SOEC is maintained with feed effluent heat exchangers incorporated on both the oxygen side and the fuel side of the SOEC, and - the carbon dioxide from a gas separation unit, which still contains some carbon monoxide, is recycled to the fuel side of the SOEC and tied to the CO 2 feed stream upstream from feed a gas purification unit. - a suitable operating temperature for the SOEC is maintained with feed effluent heat exchangers incorporated on both the oxygen side and the fuel side of the SOEC, and - the carbon dioxide from a gas separation unit, which still contains some carbon monoxide, is recycled to the fuel side of the SOEC and tied to the CO 2 feed stream upstream from feed a gas purification unit.
An exhaust gas treatment device which is configured to treat exhaust gases discharged from steps of manufacturing carbon fiber from a fibrous substance, wherein the exhaust gas treatment device includes: a first combustion furnace which is configured to combust a carbonizing step-exhaust gas discharged from a carbonizing step in which the fibrous substance is carbonized in an inert gas atmosphere; and a second combustion furnace which is provided at a post-stage of the first combustion furnace , and configured to combust a flameproofing step-exhaust gas discharged from a flameproofing step in which the fibrous substance is flameproofed in an air atmosphere and a first combusting step-exhaust gas discharged from the first combustion furnace ; the first combustion furnace and the second combustion furnace communicate through a throttle portion ; the first combustion furnace is provided with a first burner which is configured to combust a carbonizing step-exhaust gas by a fuel and an oxygen-enriched air; and an air separation device which is configured to produce nitrogen for producing the inert gas atmosphere in the carbonizing step and the oxygen-enriched air supplied into the first burner . a first combustion furnace which is configured to combust a carbonizing step-exhaust gas discharged from a carbonizing step in which the fibrous substance is carbonized in an inert gas atmosphere; and a second combustion furnace which is provided at a post-stage of the first combustion furnace , and configured to combust a flameproofing step-exhaust gas discharged from a flameproofing step in which the fibrous substance is flameproofed in an air atmosphere and a first combusting step-exhaust gas discharged from the first combustion furnace ; the first combustion furnace and the second combustion furnace communicate through a throttle portion ; the first combustion furnace is provided with a first burner which is configured to combust a carbonizing step-exhaust gas by a fuel and an oxygen-enriched air; and an air separation device which is configured to produce nitrogen for producing the inert gas atmosphere in the carbonizing step and the oxygen-enriched air supplied into the first burner .
Automated method for data access to a device (D) by an external client (EC), whereby the device (D) communicates with an internal communication network (IN) and the external client (EC) communicates with an external communication network (EN), comprising the steps of: - by the external client (EC) sending a communication access request for the device (D) to a software implemented application access point (AAP), which is set up to check and authorize or reject access requests from external clients (EC) to devices (D), the method being characterised in that it comprises: - by the application access point (AAP) configuring a corresponding software implemented connector (C), so that the connector (C) is acting as an endpoint for a communication tunnel (NT) to the device (D), - by the application access point (AAP) configuring a corresponding software implemented policy decision point (PDP) as an interface to the external network (EN) for arriving of application data traffic of the external client (EC), whereby the policy decision point (PDP) is set up to validated accept and forward the access request of the external client (EC) to the connector (C), and - accessing the device (D) via the communication tunnel (NT) by the external client (EC). - by the external client (EC) sending a communication access request for the device (D) to a software implemented application access point (AAP), which is set up to check and authorize or reject access requests from external clients (EC) to devices (D), the method being characterised in that it comprises: - by the application access point (AAP) configuring a corresponding software implemented connector (C), so that the connector (C) is acting as an endpoint for a communication tunnel (NT) to the device (D), - by the application access point (AAP) configuring a corresponding software implemented policy decision point (PDP) as an interface to the external network (EN) for arriving of application data traffic of the external client (EC), whereby the policy decision point (PDP) is set up to validated accept and forward the access request of the external client (EC) to the connector (C), and - accessing the device (D) via the communication tunnel (NT) by the external client (EC). - by the application access point (AAP) configuring a corresponding software implemented connector (C), so that the connector (C) is acting as an endpoint for a communication tunnel (NT) to the device (D), - by the application access point (AAP) configuring a corresponding software implemented policy decision point (PDP) as an interface to the external network (EN) for arriving of application data traffic of the external client (EC), whereby the policy decision point (PDP) is set up to validated accept and forward the access request of the external client (EC) to the connector (C), and - accessing the device (D) via the communication tunnel (NT) by the external client (EC).