mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a coating system configured to apply a thermal coating material to a component , the component having a plurality of cooling holes , wherein the plurality of cooling holes includes a plurality of distinct subsets of cooling holes located in a region of the component , wherein fluid flow through a first distinct subset of cooling holes will not flow through a second distinct subset of cooling holes; an airflow system coupled with the coating system , the airflow system configured to force air through the region of the component to selectively force air through one or more of the distinct subsets of cooling holes, wherein the airflow system comprises an air supply manifold including independent cooling channels selectively engagable via one or more actuators with distinct subsets of cooling holes; and a control system coupled with the airflow system and the coating system , the control system configured to: detect coating instructions for the coating system , and instruct the coating system to apply the thermal coating material to a subset of the plurality of cooling holes ; and instruct the airflow system to force air through only the subset of the plurality of cooling holes during application of the thermal coating material to the component in response to detecting the coating instructions. a coating system configured to apply a thermal coating material to a component , the component having a plurality of cooling holes , wherein the plurality of cooling holes includes a plurality of distinct subsets of cooling holes located in a region of the component , wherein fluid flow through a first distinct subset of cooling holes will not flow through a second distinct subset of cooling holes; an airflow system coupled with the coating system , the airflow system configured to force air through the region of the component to selectively force air through one or more of the distinct subsets of cooling holes, wherein the airflow system comprises an air supply manifold including independent cooling channels selectively engagable via one or more actuators with distinct subsets of cooling holes; and a control system coupled with the airflow system and the coating system , the control system configured to: detect coating instructions for the coating system , and instruct the coating system to apply the thermal coating material to a subset of the plurality of cooling holes ; and instruct the airflow system to force air through only the subset of the plurality of cooling holes during application of the thermal coating material to the component in response to detecting the coating instructions. detect coating instructions for the coating system , and instruct the coating system to apply the thermal coating material to a subset of the plurality of cooling holes ; and instruct the airflow system to force air through only the subset of the plurality of cooling holes during application of the thermal coating material to the component in response to detecting the coating instructions.
A method for controlling a media session involving a plurality of media streams within a communications network, wherein the communications network comprises a Multimedia Resource Function Processor, MRFP, and a Multimedia Resource Function Controller, MRFC, controlling the MRFP, wherein the MRFC performs the following steps: - determining (S13) that selected media streams out of the plurality of media streams are associated to each other in a media session, - generating (S14) an instruction to group the selected media streams of the media session, and - transmitting (S15) the instruction to group the selected media streams to the MRFP . - determining (S13) that selected media streams out of the plurality of media streams are associated to each other in a media session, - generating (S14) an instruction to group the selected media streams of the media session, and - transmitting (S15) the instruction to group the selected media streams to the MRFP .
A device for managing the thermal energy of a vehicle comprising an electric motor, comprising: - an electric battery configured to store the electric energy of the vehicle, - an electric machine for transforming the electric energy stored in the battery into mechanical energy for the vehicle, - a module for controlling the temperature of the electric machine comprising a first fluid circuit capable of receiving a first intermediate fluid and a first low temperature heat exchanger , - a heat exchanger of an air conditioning unit , - a water/water heat pump comprising a fluid circuit capable of receiving a heat transfer fluid, - a first heat exchanger configured to ensure the heat exchange between the heat transfer fluid of the heat pump and at least the first intermediate fluid of the first fluid circuit of the electric machine temperature control module , - a second heat exchanger configured to ensure the heat exchange between the heat transfer fluid of the heat pump and at least one second intermediate fluid of the heat exchanger of the air conditioning unit ; - a compressor , - the fluid circuit being configured to fluidly connect the first heat exchanger with the compressor , the compressor with the second heat exchanger and the second heat exchanger with the first heat exchanger , characterised in that the device comprises a battery temperature control module comprising a third fluid circuit capable of receiving a third intermediate fluid and a second low temperature heat exchanger , the third fluid circuit comprising a first bypass branch configured to prevent circulation of the third intermediate fluid at the second low temperature heat exchanger , a second bypass branch configured to ensure the circulation of the third intermediate fluid in the first exchanger of the heat pump and a third bypass branch configured to ensure the circulation of the third intermediate fluid in the second exchanger of the heat pump . - an electric battery configured to store the electric energy of the vehicle, - an electric machine for transforming the electric energy stored in the battery into mechanical energy for the vehicle, - a module for controlling the temperature of the electric machine comprising a first fluid circuit capable of receiving a first intermediate fluid and a first low temperature heat exchanger , - a heat exchanger of an air conditioning unit , - a water/water heat pump comprising a fluid circuit capable of receiving a heat transfer fluid, - a first heat exchanger configured to ensure the heat exchange between the heat transfer fluid of the heat pump and at least the first intermediate fluid of the first fluid circuit of the electric machine temperature control module , - a second heat exchanger configured to ensure the heat exchange between the heat transfer fluid of the heat pump and at least one second intermediate fluid of the heat exchanger of the air conditioning unit ; - a compressor , - the fluid circuit being configured to fluidly connect the first heat exchanger with the compressor , the compressor with the second heat exchanger and the second heat exchanger with the first heat exchanger ,
An apparatus to determine the concentration of a target component in a mixture, the apparatus including: at least one acoustic transducer located within the mixture: a controller generating a signal for the at least one acoustic transducer generating an acoustic signal in the mixture, operating at a fixed voltage and frequency and transmitting same toward the target component within the mixture, wherein the acoustic signal is generated with a known power level; and a processor for measuring change in the power level of the at least one acoustic transducer that is required to maintain the at least one acoustic transducer at the fixed voltage and frequency as the acoustic signal is transmitted through the mixture, wherein the magnitude of the change in power level of the at least one acoustic transducer determines the concentration of the target component in the mixture. at least one acoustic transducer located within the mixture: a controller generating a signal for the at least one acoustic transducer generating an acoustic signal in the mixture, operating at a fixed voltage and frequency and transmitting same toward the target component within the mixture, wherein the acoustic signal is generated with a known power level; and a processor for measuring change in the power level of the at least one acoustic transducer that is required to maintain the at least one acoustic transducer at the fixed voltage and frequency as the acoustic signal is transmitted through the mixture, wherein the magnitude of the change in power level of the at least one acoustic transducer determines the concentration of the target component in the mixture.
Bacteroides cellulosilyticus for use in preventing and/or treating lipid metabolism related diseases in a subject, wherein the lipid metabolism related diseases are atherosclerosis or obesity.
An islanding detection method, wherein the method comprises: determining a harmonic amplitude growth rate and a frequency growth rate of alternating current electricity output by an alternating current port of a grid-tied inverter; determining an islanding disturbance coefficient corresponding to the harmonic amplitude growth rate, wherein the harmonic amplitude growth rate and the islanding disturbance coefficient are in a monotonically increasing relationship; determining an islanding injection amount based on the frequency growth rate and the islanding disturbance coefficient corresponding to the harmonic amplitude growth rate, wherein the islanding injection amount is a reactive power size or a reactive current size for performing reactive power disturbance; controlling , based on the islanding injection amount, the grid-tied inverter to output a reactive power or a reactive current over the alternating current port; and performing islanding detection based on a frequency of the alternating current electricity output by the alternating current port. determining a harmonic amplitude growth rate and a frequency growth rate of alternating current electricity output by an alternating current port of a grid-tied inverter; determining an islanding disturbance coefficient corresponding to the harmonic amplitude growth rate, wherein the harmonic amplitude growth rate and the islanding disturbance coefficient are in a monotonically increasing relationship; determining an islanding injection amount based on the frequency growth rate and the islanding disturbance coefficient corresponding to the harmonic amplitude growth rate, wherein the islanding injection amount is a reactive power size or a reactive current size for performing reactive power disturbance; controlling , based on the islanding injection amount, the grid-tied inverter to output a reactive power or a reactive current over the alternating current port; and performing islanding detection based on a frequency of the alternating current electricity output by the alternating current port.
Method for welding at least one welding sleeve to an electrical connection part , wherein: - the connection part has at least one recess , - the welding sleeve has an opening , in particular a through-hole, with an inner lateral surface, - the welding sleeve is slid onto an ultrasonic welding tool, - the welding sleeve is inserted into the recess and - at least a part of the welding sleeve is welded to the connection part using the ultrasonic welding tool , characterized in that, - the inner lateral surface of the welding sleeve is in contact with the ultrasonic welding tool . - the connection part has at least one recess , - the welding sleeve has an opening , in particular a through-hole, with an inner lateral surface, - the welding sleeve is slid onto an ultrasonic welding tool, - the welding sleeve is inserted into the recess and - at least a part of the welding sleeve is welded to the connection part using the ultrasonic welding tool , characterized in that, - the inner lateral surface of the welding sleeve is in contact with the ultrasonic welding tool .
A system for adjusting a tractor speed to avoid a plugging event in a baler , the system comprising: a load sensor configured to sense a load on a pickup of the baler and output a load signal with a level and/or data value that varies according to the load on the pickup ; a windrow sensor configured to monitor a ground area in front of the baler , determine a cross-sectional area of a windrow , and output a windrow signal with a level and/or data value that varies according to a cross-sectional area of the windrow ; a processing element configured or programmed to receive the load signal, receive the windrow signal, receive a crop moisture signal and/or data about a moisture level of a crop to be baled, and output a speed signal with a level and/or data value that varies according to values from the load signal, the windrow signal, and the crop moisture signal and/or data; and a tractor speed controller configured to receive the speed signal and adjust a speed of the tractor according to the level and/or data value of the speed signal. a load sensor configured to sense a load on a pickup of the baler and output a load signal with a level and/or data value that varies according to the load on the pickup ; a windrow sensor configured to monitor a ground area in front of the baler , determine a cross-sectional area of a windrow , and output a windrow signal with a level and/or data value that varies according to a cross-sectional area of the windrow ; a processing element configured or programmed to receive the load signal, receive the windrow signal, receive a crop moisture signal and/or data about a moisture level of a crop to be baled, and output a speed signal with a level and/or data value that varies according to values from the load signal, the windrow signal, and the crop moisture signal and/or data; and receive the load signal, receive the windrow signal, receive a crop moisture signal and/or data about a moisture level of a crop to be baled, and output a speed signal with a level and/or data value that varies according to values from the load signal, the windrow signal, and the crop moisture signal and/or data; and a tractor speed controller configured to receive the speed signal and adjust a speed of the tractor according to the level and/or data value of the speed signal.
A microscopic mirror imaging device , comprising: a motion actuator fixedly mounted on a microscope stage; a mirror image former support , wherein one end of the mirror image former support is connected to the motion actuator ; and a mirror image former comprising a plane mirror mounted on the other end of the mirror image former support , wherein an angle formed between a mirror surface of the plane mirror and a horizontal plane of the microscope stage is equal to 45°, and an angle formed between the mirror surface of the plane mirror and a coronal plane of the microscope stage is equal to 45°; wherein the motion actuator is configured to control, in an automatic manner using a driver or in a manual manner, the mirror image former support to move from an original position to a predetermined position to form a mirror image; characterized in that , the motion actuator is a displacement structure having a linear guide rail and a slider, wherein the linear guide rail is parallel to a sagittal plane of the microscope stage; and the mirror image former support is perpendicular to the linear guide rail; wherein the linear guide rail is fixedly mounted on the microscope stage in a Y-axis direction, and the mirror image former support is arranged in an X-axis direction. a motion actuator fixedly mounted on a microscope stage; a mirror image former support , wherein one end of the mirror image former support is connected to the motion actuator ; and a mirror image former comprising a plane mirror mounted on the other end of the mirror image former support , wherein an angle formed between a mirror surface of the plane mirror and a horizontal plane of the microscope stage is equal to 45°, and an angle formed between the mirror surface of the plane mirror and a coronal plane of the microscope stage is equal to 45°; wherein the motion actuator is configured to control, in an automatic manner using a driver or in a manual manner, the mirror image former support to move from an original position to a predetermined position to form a mirror image; characterized in that , the motion actuator is a displacement structure having a linear guide rail and a slider, wherein the linear guide rail is parallel to a sagittal plane of the microscope stage; and the mirror image former support is perpendicular to the linear guide rail; wherein the linear guide rail is fixedly mounted on the microscope stage in a Y-axis direction, and the mirror image former support is arranged in an X-axis direction.
A road structure configured such that an asphalt layer is peeled off by electromagnetic induction heating, wherein the road structure comprises: a non-thermoplastic base layer ; and an asphalt layer located above the base layer, characterized in that the base layer is a bad conductor of electricity; the road structure has, between the base layer and the asphalt layer , a corrosion-resistant conductive sheet which generates heat based on electromagnetic induction; a first bonding layer which functions to bond the corrosion-resistant conductive sheet and the base layer; and a second bonding layer which functions to bond the corrosion-resistant conductive sheet and the asphalt layer, and in that at least the first bonding layer is a thermoplastic bonding layer which softens by heat generated by the corrosion-resistant conductive sheet . a non-thermoplastic base layer ; and an asphalt layer located above the base layer, characterized in that the base layer is a bad conductor of electricity; the road structure has, between the base layer and the asphalt layer , a corrosion-resistant conductive sheet which generates heat based on electromagnetic induction; a first bonding layer which functions to bond the corrosion-resistant conductive sheet and the base layer; and a second bonding layer which functions to bond the corrosion-resistant conductive sheet and the asphalt layer, and in that at least the first bonding layer is a thermoplastic bonding layer which softens by heat generated by the corrosion-resistant conductive sheet .
A multi-phase soft gelatin capsule for oral administration, the soft gelatin capsule comprising: at least one preformed solid dosage form being a pharmaceutical grade finished dosage form being a tablet comprising a statin compound; and at least one liquid fill phase comprising omega-3 fatty acids; wherein the at least one solid dosage form and the at least one liquid fill phase are independently introduced in the soft gelatin capsule. at least one preformed solid dosage form being a pharmaceutical grade finished dosage form being a tablet comprising a statin compound; and at least one liquid fill phase comprising omega-3 fatty acids; wherein the at least one solid dosage form and the at least one liquid fill phase are independently introduced in the soft gelatin capsule.
A material comprising a transparent substrate coated with a stack of layers comprising at least one functional metal layer based on silver and at least two dielectric coatings, each dielectric coating having at least one dielectric layer, so that each functional metal layer is positioned between two dielectric coatings, the stack comprises at least one titanium oxide-based layer situated above and in contact with a silver-based functional metallic layer, characterized in that: - the titanium oxide-based layer has a thickness greater than or equal to 3 nm and is below and in contact with a tin oxide-based dielectric layer, this dielectric layer having a thickness greater than 10 nm, - at least one dielectric coating, preferably each dielectric coating, comprises at least one layer comprising silicon. - the titanium oxide-based layer has a thickness greater than or equal to 3 nm and is below and in contact with a tin oxide-based dielectric layer, this dielectric layer having a thickness greater than 10 nm, - at least one dielectric coating, preferably each dielectric coating, comprises at least one layer comprising silicon.
Method for determining the cooking state when cooking eggs, in which method at least one egg is positioned in a vessel, wherein a plurality of identical or different eggs can be situated in or outside the vessel so as to be next to, above or below one another, the vessel is then closed and the temperature is increased, at least inside the vessel, and maintained until the desired cooking state of the egg(s) is reached, and then the egg is cooled, wherein, in order to determine the cooking state of the egg(s) in the vessel, at least one light source having a wavelength between 400 nm and 1000 nm is placed on the egg or in the immediate vicinity of the egg or each of the eggs, from which light source light is transmitted through at least one cross section of the egg to a light measuring device, and the transmission of the light through the egg is determined at least during cooking, and in order to achieve a cooking state for a runny egg yolk a transmission of at least 96%, and in order to achieve a cooking state for a soft egg yolk a transmission of at least 94%, and in order to achieve a cooking state for a medium soft egg yolk a transmission of at least 90%, and in order to achieve a cooking state for a hard egg yolk a transmission of at least 85% of the maximum transmission degree of a raw egg is achieved.
A coking plant having devices for cyclically cleaning the doors of coking ovens, the devices being provided for producing a cleaning jet which includes solid particles and detaches deposits from the oven door and furthermore having devices for open- or closed-loop-controlled variation of cleaning jet parameters, characterised in that a structural unit which produces the cleaning jet is displaceable in the longitudinal and transverse directions of the door surface with variation of the position of impact of the cleaning jet on a door surface to be cleaned and is configured to fan out the cleaning jet in the transverse direction.
A system , comprising: a steam turbine system ; a main control system having one or more main valves coupled to the steam turbine system ; a bypass control system having one or more bypass valves coupled to the steam turbine system ; and a hydraulic power unit coupled to the main control system and the bypass control system , wherein the hydraulic power unit is configured to supply a hydraulic fluid at a pressure sufficient to operate the one or more main valves and the one or more bypass valves , the hydraulic fluid being common among the one or more main valves and the one or more bypass valves . a steam turbine system ; a main control system having one or more main valves coupled to the steam turbine system ; a bypass control system having one or more bypass valves coupled to the steam turbine system ; and a hydraulic power unit coupled to the main control system and the bypass control system , wherein the hydraulic power unit is configured to supply a hydraulic fluid at a pressure sufficient to operate the one or more main valves and the one or more bypass valves , the hydraulic fluid being common among the one or more main valves and the one or more bypass valves .
An endoscope system, comprising an object lens module, a relay module, an eye lens module, an optical interface light path module, and a digital ultra-high-definition camera, which are sequentially arranged along a light path direction, wherein the endoscope system is, according to an overall and integrated optimized resolution design, configured to project an image of an object at viewing distance formed by the object lens module to the optical interface light path module in a form of non-parallel light/divergent light after passing through the relay module and the eye lens module, and then to image it to a sensor plane of the digital ultra-high-definition camera.