mhurhangee/patent-ind-claim-en huggingface dataset:
An actuation device comprising: a housing configured to travel within a well tubing , wherein a plurality of seat structures are mounted in the well tubing, each one of the seat structures comprising a seat to seat the device thereon; a surface structure on an external surface of the housing , having an inactive state and an activated state, and being configured to (i) allow the device to travel through the seat structures when the surface structure is in the inactive state or (ii) to seat in a selected one of the seats in the well tubing when the surface structure is in the activated state, characterized in that , the device is configured to experience a physical impact having an impact level exceeding a threshold level when passing through each one of the plurality of seat structures , and further comprises: a sensor enclosed in the housing , configured to generate a signal in response to the physical impact experienced by the device ; a controller housed in the housing and in communication with the sensor to receive the signal from the sensor , wherein the controller is configured to determine, based on signals received from the sensor , a number of seat structures traversed by the device , and to activate the surface structure when the number of seat structures traversed by the device reaches a pre-selected value. a housing configured to travel within a well tubing , wherein a plurality of seat structures are mounted in the well tubing, each one of the seat structures comprising a seat to seat the device thereon; a surface structure on an external surface of the housing , having an inactive state and an activated state, and being configured to (i) allow the device to travel through the seat structures when the surface structure is in the inactive state or (ii) to seat in a selected one of the seats in the well tubing when the surface structure is in the activated state, characterized in that , the device is configured to experience a physical impact having an impact level exceeding a threshold level when passing through each one of the plurality of seat structures , and further comprises: a sensor enclosed in the housing , configured to generate a signal in response to the physical impact experienced by the device ; a controller housed in the housing and in communication with the sensor to receive the signal from the sensor , wherein the controller is configured to determine, based on signals received from the sensor , a number of seat structures traversed by the device , and to activate the surface structure when the number of seat structures traversed by the device reaches a pre-selected value. a sensor enclosed in the housing , configured to generate a signal in response to the physical impact experienced by the device ; a controller housed in the housing and in communication with the sensor to receive the signal from the sensor , wherein the controller is configured to determine, based on signals received from the sensor , a number of seat structures traversed by the device , and to activate the surface structure when the number of seat structures traversed by the device reaches a pre-selected value.
Electrical machine having a rotor which contains a shaft , which is at ambient temperature during operation, and a superconducting rotor winding , which is arranged fixed on the shaft and is cooled to a cryogenic temperature during operation, and having a cooling system for cooling the rotor winding , which cooling system comprises an equalization pressure container for cooling medium , wherein either the equalization pressure container is arranged in the cutout of the hollow region of the shaft characterized in that , at least in one subsection , the shaft is in the form of a hollow shaft with a cutout for the equalization pressure container , or the cutout forms the equalization pressure container .
A lubricating oil composition having a HTHS viscosity at 150°C in a range of 1.3 to 2.9 cP (0.0013Pa.s to 0.0029 Pa.s), comprising: a) a major amount of an oil of lubricating viscosity having a kinematic viscosity at 100°C in a range of 1.5 to 6.0 mm 2 /s; b) a dispersant polymethacrylate (DPMA) VII having a Mw of from 200,000 g/mol to 250,000 g/mol and a SSI of from 40 to 50, the dispersant polymethacrylate (DPMA) VII containing: 1 to 10 wt.% methyl methacrylate monomer; 0.5 to 3 wt.% N-vinyl pyrrolidone as the nitrogen-containing monomer; and the balance longer chain alkyl methacrylate monomers, in particular, lauryl methacrylate; c) a non-dispersant ethylene-based olefin copolymer viscosity index improver having a Mw of from 70,000 g/mol to 110,000 g/mol and a total ethylene content of 55 wt % to 65 wt %, wherein the non-di spersant ethylene-based olefin copolymer is an ethylene propylene copolymer; d) from 200 to 1000 ppm of magnesium from a magnesium containing detergent; and wherein the lubricating oil composition contains less than 10 ppm of a molybdenum containing element, wherein the HTHS viscosity at 150°C was determined in accordance with ASTM D4683. a) a major amount of an oil of lubricating viscosity having a kinematic viscosity at 100°C in a range of 1.5 to 6.0 mm 2 /s; b) a dispersant polymethacrylate (DPMA) VII having a Mw of from 200,000 g/mol to 250,000 g/mol and a SSI of from 40 to 50, the dispersant polymethacrylate (DPMA) VII containing: 1 to 10 wt.% methyl methacrylate monomer; 0.5 to 3 wt.% N-vinyl pyrrolidone as the nitrogen-containing monomer; and the balance longer chain alkyl methacrylate monomers, in particular, lauryl methacrylate; c) a non-dispersant ethylene-based olefin copolymer viscosity index improver having a Mw of from 70,000 g/mol to 110,000 g/mol and a total ethylene content of 55 wt % to 65 wt %, wherein the non-di spersant ethylene-based olefin copolymer is an ethylene propylene copolymer; d) from 200 to 1000 ppm of magnesium from a magnesium containing detergent; and wherein the lubricating oil composition contains less than 10 ppm of a molybdenum containing element, wherein the HTHS viscosity at 150°C was determined in accordance with ASTM D4683.
Method for preparing concrete granulate for subsequent recycling of the concrete granulate, comprising the following method steps: a. Filling an at least partially gas-tight container with concrete granulate ; b. Supplying a volume flow of gas comprising CO2 into the container as a function of a measure of CO2 absorption by the concrete granulate in the container determined by at least one sensor ; c. Determining whether a predetermined CO2 saturation of the concrete granulate between 5 kg CO2 per 1000 kg and 15 kg CO2 per 1000 kg has been reached, and otherwise continuing method step b; d. Removing the CO2-enriched concrete granulate . a. Filling an at least partially gas-tight container with concrete granulate ; b. Supplying a volume flow of gas comprising CO2 into the container as a function of a measure of CO2 absorption by the concrete granulate in the container determined by at least one sensor ; c. Determining whether a predetermined CO2 saturation of the concrete granulate between 5 kg CO2 per 1000 kg and 15 kg CO2 per 1000 kg has been reached, and otherwise continuing method step b; d. Removing the CO2-enriched concrete granulate .
A method for determining a carrier set, comprising: determining, by a device, a second carrier set for a user equipment, UE, performing a sidelink transmission, according to synchronization reference information used by a carrier, wherein the synchronization reference information comprises a synchronization configuration; determining, by the device, from the second carrier set, a first carrier set corresponding to a logical channel for the UE performing the sidelink transmission; and determining, by the device, from the first carrier set, a subset of the first carrier set according to priorities of data packets in the logical channel and channel busy ratios, CBRs, of carriers in the first carrier set. determining, by a device, a second carrier set for a user equipment, UE, performing a sidelink transmission, according to synchronization reference information used by a carrier, wherein the synchronization reference information comprises a synchronization configuration; determining, by the device, from the second carrier set, a first carrier set corresponding to a logical channel for the UE performing the sidelink transmission; and determining, by the device, from the first carrier set, a subset of the first carrier set according to priorities of data packets in the logical channel and channel busy ratios, CBRs, of carriers in the first carrier set.
A compressor , comprising: a compression part comprising a compression space (CS) in which introduced gas is accommodated, and configured to compress and discharge the gas in the compression space (CS); and a first gas moving part (50, 50-2) comprising a lower flange coupled to the compression part and a first gas flow path through which the gas discharged from the compression space (CS) moves, wherein the first gas moving part (50, 50-2) at the lower flange thereof is provided with a first resonator comprising a resonance space depressed upward with respect to a moving direction of the gas in the first gas flow path ; the compressor being characterised in that the first resonator further comprises an inlet part configured to communicate with the first gas flow path ; a neck part configured to extend from the inlet part ; and a chamber configured to extend from the neck part and comprising a larger diameter than the neck part , and wherein the inlet part comprises an inclined portion configured to be inclined with respect to a vertical axis of the moving direction of the gas to narrow toward the neck part . a compression part comprising a compression space (CS) in which introduced gas is accommodated, and configured to compress and discharge the gas in the compression space (CS); and a first gas moving part (50, 50-2) comprising a lower flange coupled to the compression part and a first gas flow path through which the gas discharged from the compression space (CS) moves, wherein the first gas moving part (50, 50-2) at the lower flange thereof is provided with a first resonator comprising a resonance space depressed upward with respect to a moving direction of the gas in the first gas flow path ; the compressor being characterised in that the first resonator further comprises an inlet part configured to communicate with the first gas flow path ; a neck part configured to extend from the inlet part ; and a chamber configured to extend from the neck part and comprising a larger diameter than the neck part , and wherein the inlet part comprises an inclined portion configured to be inclined with respect to a vertical axis of the moving direction of the gas to narrow toward the neck part .
A process of a polyvinyl chloride (PVC) cladding wood, comprising the following steps: step 1, putting a PVC mixture into a high-speed mixer to obtain a resulting PVC mixture, and then cooling the resulting PVC mixture through a rubber powder cooler to obtain a powder; step 2, adding the powder to a granulator for a granulation to produce PVC particles with uniform particle size; step 3, heating a profile to be cladded at an average speed in an extruder, adding with the PVC particles, and extruding out by a co-extrusion die to form a profile with a PVC material coating on a surface of the profile; and step 4, after cooling the profile with the PVC material coating on the surface by a cooling tank to obtain a first resulting profile, conducting a forming and a tracting on the first resulting profile to obtain a second resulting profile, and cutting the second resulting profile; the process of the PVC cladding wood is completed; characterized in that in step 2, a structure of each of the PVC particles is a cylinder, wherein a bottom area diameter of the cylinder is 2.5 mm-3.5 mm, and a height of the cylinder is 4 mm-6 mm. step 1, putting a PVC mixture into a high-speed mixer to obtain a resulting PVC mixture, and then cooling the resulting PVC mixture through a rubber powder cooler to obtain a powder; step 2, adding the powder to a granulator for a granulation to produce PVC particles with uniform particle size; step 3, heating a profile to be cladded at an average speed in an extruder, adding with the PVC particles, and extruding out by a co-extrusion die to form a profile with a PVC material coating on a surface of the profile; and step 4, after cooling the profile with the PVC material coating on the surface by a cooling tank to obtain a first resulting profile, conducting a forming and a tracting on the first resulting profile to obtain a second resulting profile, and cutting the second resulting profile; the process of the PVC cladding wood is completed; characterized in that in step 2, a structure of each of the PVC particles is a cylinder, wherein a bottom area diameter of the cylinder is 2.5 mm-3.5 mm, and a height of the cylinder is 4 mm-6 mm.
A refrigerator comprising: a main body having a storage chamber therein; and a door having an upper door and a lower door provided below the upper door and configured to open or close the storage chamber; characterised by : a speaker assembly disposed in the bottom of the upper door so as to face an upper surface of the lower door, and configured to output sound to the outside, wherein the speaker assembly comprises: a base unit forming at least a portion of a lower surface of the upper door, the base unit comprising a base portion forming the lower surface of the upper door and a unit installing portion recessed from the base portion and forming an installing space ; and a speaker disposed in the installing space . a main body having a storage chamber therein; and a door having an upper door and a lower door provided below the upper door and configured to open or close the storage chamber; characterised by : a speaker assembly disposed in the bottom of the upper door so as to face an upper surface of the lower door, and configured to output sound to the outside, wherein the speaker assembly comprises: a base unit forming at least a portion of a lower surface of the upper door, the base unit comprising a base portion forming the lower surface of the upper door and a unit installing portion recessed from the base portion and forming an installing space ; and a speaker disposed in the installing space . a base unit forming at least a portion of a lower surface of the upper door, the base unit comprising a base portion forming the lower surface of the upper door and a unit installing portion recessed from the base portion and forming an installing space ; and a speaker disposed in the installing space .
A Computer Aided Diagnosis (CAD) apparatus , comprising: a display; a memory configured to store instructions; and at least one processor, that upon executing the stored instructions, configured: to detect one or more regions of interest (ROIs) from the current image among sequentially received images; to determine whether at least one ROI, that is erroneously detected, from the one or more detected ROIs exists based on an ROI size transition model, in response to the one or more ROIs being detected from the current image; to predict at least one ROI in the current image using the ROI size transition model, in response to the ROI not being detected from the current image; and to control the display to output visual information indicating at least one remaining ROI except for the at least one erroneously detected ROI among the one or more detected ROIs, or indicating the at least one predicted ROI. a display; a memory configured to store instructions; and at least one processor, that upon executing the stored instructions, configured: to detect one or more regions of interest (ROIs) from the current image among sequentially received images; to determine whether at least one ROI, that is erroneously detected, from the one or more detected ROIs exists based on an ROI size transition model, in response to the one or more ROIs being detected from the current image; to predict at least one ROI in the current image using the ROI size transition model, in response to the ROI not being detected from the current image; and to control the display to output visual information indicating at least one remaining ROI except for the at least one erroneously detected ROI among the one or more detected ROIs, or indicating the at least one predicted ROI. to detect one or more regions of interest (ROIs) from the current image among sequentially received images; to determine whether at least one ROI, that is erroneously detected, from the one or more detected ROIs exists based on an ROI size transition model, in response to the one or more ROIs being detected from the current image; to predict at least one ROI in the current image using the ROI size transition model, in response to the ROI not being detected from the current image; and to control the display to output visual information indicating at least one remaining ROI except for the at least one erroneously detected ROI among the one or more detected ROIs, or indicating the at least one predicted ROI.
A humidifying apparatus comprising: a water tank configured to store water; an inlet hole provided in an upper surface of the water tank ; a filter assembly configured to filter the water stored in the water tank ; a humidifying assembly configured to perform humidification by absorbing and vaporizing the water filtered by the filter assembly ; a drain flow passage provided at a lower surface of the humidifying assembly , wherein residual water remaining after being absorbed in the humidifying assembly is recovered in the water tank via the drain flow passage ; and characterized in that a guide rib is provided in the water tank and is configured to extend obliquely from the inlet hole toward the bottom of the water tank , to guide the residual water recovered into the water tank , wherein the water recovered in the water tank by the drain flow passage is filtered by the filter assembly again with the water remaining in the water tank . a water tank configured to store water; an inlet hole provided in an upper surface of the water tank ; a filter assembly configured to filter the water stored in the water tank ; a humidifying assembly configured to perform humidification by absorbing and vaporizing the water filtered by the filter assembly ; a drain flow passage provided at a lower surface of the humidifying assembly , wherein residual water remaining after being absorbed in the humidifying assembly is recovered in the water tank via the drain flow passage ; and characterized in that a guide rib is provided in the water tank and is configured to extend obliquely from the inlet hole toward the bottom of the water tank , to guide the residual water recovered into the water tank , wherein the water recovered in the water tank by the drain flow passage is filtered by the filter assembly again with the water remaining in the water tank .
A system for breeding and stimulation of insects reproduction comprising modular lamp, which comprised lamp, characterized in that emits light in the range of about 400-800 nm and at least one lamp with a peak emission in range of 370-410 nm, wherein the light intensity measured at 50 cm from the light source is no less than 5000 Ix with irradiance in the spectral range of 350-1000 nm at the level of 35-50 W/m 2 , wherein no less than 95% of the irradiance is in the range of 350-700 nm, and wherein the irradiance in the spectral range of 370-410 nm is 25-80% of irradiance in the range of 350-700 nm and is no less than 10 W/m 2 .
Method for manufacturing a shoe , the shoe having an upper part which is connected to the sole by means of a separable zipper and can be removed from the sole by opening the zipper , characterized in that the zipper is connected to the sole by the sole being injection-molded or cast onto a part of the zipper , or by the sole being injection-molded around a part of the zipper , or by a part of the zipper being cast around the sole .
Locking device which can be switched between a locking state and a release state, comprising at least one switching device with a switching element displaceable between a locking position and a release position and an electromagnetic drive for displacing the switching element , so that the locking device is in the locking state, if the switching element is in the locking position, and the locking device is in the release state, if the switching element is in the release position, the electromagnetic drive having at least one excitation coil and a permanent magnetic armature that can be moved back and forth electromagnetically between two end positions by the action of the excitation coil , characterized in that the permanent magnetic armature interacts magnetically in both end positions with a ferromagnetic or permanent magnetic element, in order to hold the armature in the respective end position.
Method of producing an optical sensor at wafer-level, comprising the steps of: - providing a semiconductor wafer having a main top surface and a main back surface , - arranging at or near the top main surface of the semiconductor wafer at least one integrated circuit having a light sensitive component , - forming a light path blocking structure on the top main surface , - placing a first mold tool over the at least one integrated circuit such that at least one channel remains between the first mold tool and the top main surface and between the first mold tool and the light path blocking structure to enter a first transparent mold material, - forming a first mold structure by wafer-level molding the first transparent mold material via the at least one channel , wherein the first transparent mold material creates at least one runner structure flanking the first mold structure , wherein the first mold material is entered via the at least one channel and passed around the light path blocking structure such that the at least one runner structure gets a shape which is determined by the geometry of the light path blocking structure , - placing a second mold tool over the first mold structure and forming a second mold structure by wafer-level molding a second opaque mold material by means of the second mold tool , the second mold structure enclosing the first mold structure , wherein the light path blocking structure stops light entering the at least one runner structure from reaching the light sensitive component . - providing a semiconductor wafer having a main top surface and a main back surface , - arranging at or near the top main surface of the semiconductor wafer at least one integrated circuit having a light sensitive component , - forming a light path blocking structure on the top main surface , - placing a first mold tool over the at least one integrated circuit such that at least one channel remains between the first mold tool and the top main surface and between the first mold tool and the light path blocking structure to enter a first transparent mold material, - forming a first mold structure by wafer-level molding the first transparent mold material via the at least one channel , wherein the first transparent mold material creates at least one runner structure flanking the first mold structure , wherein the first mold material is entered via the at least one channel and passed around the light path blocking structure such that the at least one runner structure gets a shape which is determined by the geometry of the light path blocking structure , - placing a second mold tool over the first mold structure and forming a second mold structure by wafer-level molding a second opaque mold material by means of the second mold tool , the second mold structure enclosing the first mold structure , wherein the light path blocking structure stops light entering the at least one runner structure from reaching the light sensitive component .