mhurhangee/ep-ind-claims huggingface dataset:
A roller including a transfer bracket 120, at an upper part of which an object or equipment can be installed, and a rolling wheel 110, wherein a rotational shaft 112 is integrated with the rolling wheel 110 at an upper part of the rolling wheel 110, the rolling wheel 110 further having a slanted surface 114, which is formed on a circumference of an outer diametral surface and, when mounted, rolling-contacts a guide rail 130, the rotational shaft 112 being inserted into one or more coupling groove(s) 122 formed in the transfer bracket 120 and furthermore including a thrust member and a radial member characterized in that the thrust member 150 is installed at the upper part of the rotational shaft 112 to allow a thrust load to concentrate at the top of the rotational shaft 112 or the thrust member 150 and whereby the radial member 140 is installed on an outer cylindrical surface of the rotational shaft 112 and inner surfaces of the coupling groove 122 positioned at the lower part of the thrust member 150 to support a radial load, and wherein an upper race 152 of the thrust member 150 is closely attached or coupled onto the bottom of the coupling groove 122 and a rotation hole 154a of a lower race 154 of the thrust member 150 is inserted into a vertical step portion 116b formed on the top of the rotational shaft 112 to slip while maintaining a contact or inserted and thereafter, coupled and fixed and the lower race 154 of the thrust member 150 is seated on a horizontal step portion 116a.
A system for detecting host cell contaminants in a protein biotherapeutic product using sequential windowed acquisition tandem mass spectrometry, the system comprising: a tandem mass spectrometer that is configured to perform sequential windowed acquisition on a protein biotherapeutic product sample without any information about contaminating proteins before data acquisition and without pre-acquisition method development by sequentially stepping a precursor mass window across a mass range, fragmenting transmitted precursor ions of each stepped precursor mass window, and analyzing product ions produced from the fragmented transmitted precursor ions, wherein the sequential windowed acquisition is configured to produce a plurality of product ion spectra for the mass range; and a processor in communication with the tandem mass spectrometer that is configured to: receive one or more measured product ion spectra of the plurality of product ion spectra from the tandem mass spectrometer, compare the one or more measured product ion spectra to a library of host cell proteins, and detect one or more host cell contaminants by reporting host cell proteins from the library that match the one or more measured product ion spectra. a tandem mass spectrometer that is configured to perform sequential windowed acquisition on a protein biotherapeutic product sample without any information about contaminating proteins before data acquisition and without pre-acquisition method development by sequentially stepping a precursor mass window across a mass range, fragmenting transmitted precursor ions of each stepped precursor mass window, and analyzing product ions produced from the fragmented transmitted precursor ions, wherein the sequential windowed acquisition is configured to produce a plurality of product ion spectra for the mass range; and a processor in communication with the tandem mass spectrometer that is configured to: receive one or more measured product ion spectra of the plurality of product ion spectra from the tandem mass spectrometer, compare the one or more measured product ion spectra to a library of host cell proteins, and detect one or more host cell contaminants by reporting host cell proteins from the library that match the one or more measured product ion spectra. receive one or more measured product ion spectra of the plurality of product ion spectra from the tandem mass spectrometer, compare the one or more measured product ion spectra to a library of host cell proteins, and detect one or more host cell contaminants by reporting host cell proteins from the library that match the one or more measured product ion spectra.
A refrigerator comprising a heat insulating box including an outer box, an inner box provided in the outer box, a plurality of vacuum insulation panels (130,131,132,133) provided between the outer box and the inner box and bonded to the outer box and the inner box, wherein the vacuum insulation panels (130,131,132,133) adjacent to each other are disposed to be in contact with each other at each corner of the heat insulating box, wherein each of the vacuum insulation panels (130,131,132,133) have a core, a film covering the insulation panels (130,131,132,133), and a recess (130N,132M,130H,132J), characterised in that the recess (130N,132M,130H,132J) is formed at an inner surface (114A,116A) side of the outer box, and wherein the film has a seal-off part (172,173) which is folded to the inner surface (114A,116A) side of the outer box thereby to be disposed in the recess (130N, 132M).
A fluid dispenser for administering a fluid, comprising: a dispenser case; a reservoir (34, 20) suitable for holding a plurality of doses of the fluid; a tube enclosed in the dispenser case, the tube having a first fold point, a second fold point, an inlet end and an outlet end, the inlet end being disposed in the reservoir, the outlet end being connected to an outlet orifice, wherein the tube is made from compliant materials, the tube is foldable along its length at each of the first and second fold points (13, 14), the first fold point being a first articulating point, the second fold point being a second articulating point, the angle of the folds being operable to constrict the tube bore and thereby prevent fluid flow, and a segment of the tube between the first fold point and the second fold point is a squeezing section housing a dosing chamber; and an actuating assembly, which when actuated presses against the squeezing section, causing a dose of a fluid housed in the dosing chamber to be dispensed. a dispenser case; a reservoir (34, 20) suitable for holding a plurality of doses of the fluid; a tube enclosed in the dispenser case, the tube having a first fold point, a second fold point, an inlet end and an outlet end, the inlet end being disposed in the reservoir, the outlet end being connected to an outlet orifice, wherein the tube is made from compliant materials, the tube is foldable along its length at each of the first and second fold points (13, 14), the first fold point being a first articulating point, the second fold point being a second articulating point, the angle of the folds being operable to constrict the tube bore and thereby prevent fluid flow, and a segment of the tube between the first fold point and the second fold point is a squeezing section housing a dosing chamber; and wherein the tube is made from compliant materials, the tube is foldable along its length at each of the first and second fold points (13, 14), the first fold point being a first articulating point, the second fold point being a second articulating point, the angle of the folds being operable to constrict the tube bore and thereby prevent fluid flow, and a segment of the tube between the first fold point and the second fold point is a squeezing section housing a dosing chamber; and an actuating assembly, which when actuated presses against the squeezing section, causing a dose of a fluid housed in the dosing chamber to be dispensed.
Drive system for a vehicle, comprising a first subsystem (MV-SYS) having a first electrical energy store and a first DC link (DC-ZK), a second subsystem (LV-SYS) having a second electrical energy store and a second DC link (DC-ZK), wherein each DC link (DC-ZK) respectively supplies power to at least one traction motor (M1, M2, M3, M4), wherein the motors are connected to the DC links by means of converters, wherein the voltage level of the two DC links (DC-ZK) differs from one to the other and the first subsystem (MV-SYS) can provide a higher power than the second subsystem (LV-SYS), wherein the first DC link (DC-ZK) is connected to the first energy store via a battery actuator (BAT-STELL) in such a way that the voltage level of the first DC link (DC-ZK) is higher than that of the first energy store, and the voltage level of the second DC link (DC-ZK) is equal to that of the second energy store. a first subsystem (MV-SYS) having a first electrical energy store and a first DC link (DC-ZK), a second subsystem (LV-SYS) having a second electrical energy store and a second DC link (DC-ZK), wherein each DC link (DC-ZK) respectively supplies power to at least one traction motor (M1, M2, M3, M4), wherein the motors are connected to the DC links by means of converters, wherein the voltage level of the two DC links (DC-ZK) differs from one to the other and the first subsystem (MV-SYS) can provide a higher power than the second subsystem (LV-SYS), wherein the first DC link (DC-ZK) is connected to the first energy store via a battery actuator (BAT-STELL) in such a way that the voltage level of the first DC link (DC-ZK) is higher than that of the first energy store, and the voltage level of the second DC link (DC-ZK) is equal to that of the second energy store.
A device for feeding refuse-derived fuels, or RDF, to combustion apparatuses, comprising a motorized screw feeder inserted in a diverging conical seal tube, a supply hopper, a mixing chamber associated with the larger end of said diverging tube, a port for compressed air and a pneumatic conveyance outlet associated with said mixing chamber, wherein said RDF can be fed into said diverging tube through said supply hopper, said mixing chamber can be fed with said RDF by means of said screw, said mixing chamber can also be fed with compressed air that mixes with said RDF and said compressed air may exit and convey said RDF through said outlet, characterized in that said diverging tube is inclined at 30° with respect to the horizontal and in that the surface of said frustum-shaped sealing tube is mirror-finished, so as to facilitate the flow of the material compressed by the air toward said mixing chamber.
A system for controlling harvesting implement height of an agricultural harvester, the system comprising: a harvesting implement; first and second actuators (102, 108) configured to adjust first and second operating parameters respectively associated with a height or an orientation of the harvesting implement relative to a field surface, respectively; a sensor configured to capture data indicative of the height of the harvesting implement relative to the field surface; and a computing system communicatively coupled to the sensor, the computing system configured to: monitor the height of the harvesting implement relative to the field surface based on the data captured by the sensor; determine an implement height error signal by comparing the monitored height of the harvesting implement to a predetermined target height; characterized in that, the computing system is further configured to divide the determined implement height error signal into a first frequency portion and a second frequency portion, the second frequency portion having a higher frequency than the first frequency portion; control an operation of the first actuator based on the first frequency portion of the implement height error signal; and control an operation of the second actuator based on the second frequency portion of the implement height error signal. a harvesting implement; first and second actuators (102, 108) configured to adjust first and second operating parameters respectively associated with a height or an orientation of the harvesting implement relative to a field surface, respectively; a sensor configured to capture data indicative of the height of the harvesting implement relative to the field surface; and a computing system communicatively coupled to the sensor, the computing system configured to: monitor the height of the harvesting implement relative to the field surface based on the data captured by the sensor; determine an implement height error signal by comparing the monitored height of the harvesting implement to a predetermined target height; monitor the height of the harvesting implement relative to the field surface based on the data captured by the sensor; determine an implement height error signal by comparing the monitored height of the harvesting implement to a predetermined target height; divide the determined implement height error signal into a first frequency portion and a second frequency portion, the second frequency portion having a higher frequency than the first frequency portion; control an operation of the first actuator based on the first frequency portion of the implement height error signal; and control an operation of the second actuator based on the second frequency portion of the implement height error signal.
A countermeasure system, comprising: an interceptor vehicle comprising a propulsion system and a countermeasure compartment, the interceptor vehicle configured for launch from a countermeasure launcher; and a countermeasure comprising a flexible receiving body and configured for detachable stowage within the countermeasure compartment of the interceptor vehicle, wherein the countermeasure system comprises a threat detection and launch control system operative to detect an incoming threat and to launch the interceptor vehicle to intercept the incoming threat, wherein the threat detection and launch control system comprises a detection system operative to detect the incoming threat and a controller operative to guide the interceptor vehicle to the incoming threat; wherein the interceptor vehicle comprises a plurality of detachable panels encompassing the countermeasure compartment and an electronics system operative to release the detachable panels to deploy the countermeasure, wherein the controller is further operative to provide countermeasure deployment information to the electronics system corresponding to the release of the plurality of detachable panels from the interceptor vehicle, characterized in that the countermeasure deployment information comprises instructions to the electronics system to release the plurality of detachable panels after a determined number of rotations of the interceptor vehicle after launch. an interceptor vehicle comprising a propulsion system and a countermeasure compartment, the interceptor vehicle configured for launch from a countermeasure launcher; and a countermeasure comprising a flexible receiving body and configured for detachable stowage within the countermeasure compartment of the interceptor vehicle, wherein the countermeasure system comprises a threat detection and launch control system operative to detect an incoming threat and to launch the interceptor vehicle to intercept the incoming threat, wherein the threat detection and launch control system comprises a detection system operative to detect the incoming threat and a controller operative to guide the interceptor vehicle to the incoming threat; wherein the interceptor vehicle comprises a plurality of detachable panels encompassing the countermeasure compartment and an electronics system operative to release the detachable panels to deploy the countermeasure, wherein the controller is further operative to provide countermeasure deployment information to the electronics system corresponding to the release of the plurality of detachable panels from the interceptor vehicle, characterized in that the countermeasure deployment information comprises instructions to the electronics system to release the plurality of detachable panels after a determined number of rotations of the interceptor vehicle after launch.
A combustion type water heater configured to heat water by burning fuel, the water heater comprising: a burner configured to generate combustion gas by burning the fuel; a heat exchanger configured to exchange heat between the water passing through on an inside of the heat exchanger and the combustion gas flowing on an outside of the heat exchanger; an exhaust pipe configured to discharge the combustion gas after the heat exchange in the heat exchanger as exhaust gas; characterized in that the combustion type water heater further comprises an exhaust gas temperature detector configured to detect a temperature of the exhaust gas flowing in the exhaust pipe as an exhaust gas temperature; a clog degree detector configured to detect a degree of clog in the exhaust pipe; and a scale buildup determiner configured to determine whether or not scale has built up inside the heat exchanger based on the exhaust gas temperature and the degree of clog in the exhaust pipe. a burner configured to generate combustion gas by burning the fuel; a heat exchanger configured to exchange heat between the water passing through on an inside of the heat exchanger and the combustion gas flowing on an outside of the heat exchanger; an exhaust pipe configured to discharge the combustion gas after the heat exchange in the heat exchanger as exhaust gas; characterized in that the combustion type water heater further comprises an exhaust gas temperature detector configured to detect a temperature of the exhaust gas flowing in the exhaust pipe as an exhaust gas temperature; a clog degree detector configured to detect a degree of clog in the exhaust pipe; and a scale buildup determiner configured to determine whether or not scale has built up inside the heat exchanger based on the exhaust gas temperature and the degree of clog in the exhaust pipe.
A method for screening a subject for the risk of chronic kidney disease, comprising - receiving marker data indicative for a plurality of marker parameters for a subject, such plurality of marker parameters indicating, for the subject for a measurement period, an age value, a sample level of creatinine, and a sample level of albumin; and - determining a risk factor indicative of the risk of suffering CKD for the subject from the plurality of marker parameters, wherein the determining comprises - weighting the age value higher than the sample level of albumin, and - weighting the sample level of creatinine higher than the sample level of albumin. - receiving marker data indicative for a plurality of marker parameters for a subject, such plurality of marker parameters indicating, for the subject for a measurement period, an age value, a sample level of creatinine, and a sample level of albumin; and - determining a risk factor indicative of the risk of suffering CKD for the subject from the plurality of marker parameters, wherein the determining comprises - weighting the age value higher than the sample level of albumin, and - weighting the sample level of creatinine higher than the sample level of albumin. - weighting the age value higher than the sample level of albumin, and - weighting the sample level of creatinine higher than the sample level of albumin.
Fuel cell system, having at least one fuel cell and a circulation guide means of anode exhaust gases of the fuel cell around an anode region, and having a drain line for feeding liquid and gas out of the region of the circulation guide means into a process air flow to a cathode region of the fuel cell, characterised in that the drain line opens into a line element for the process air flow, which extends from a lower position into a position that is arranged, with proper use, higher in the direction of gravity, wherein the flow of the process air takes place from the lower position to the upper position.
A sensor comprising: a signal generation module including a first magnetic sensor to generate a first waveform in the form of a sine wave and a second magnetic sensor to generate a second waveform in the form of a cosine wave, the first and second waveforms (200,202) containing angular position information of a magnet in relation to the first and second magnetic sensors (154,156); a signal inversion module coupled to the signal generation module for inverting the first waveform to provide a first inverted waveform and for inverting the second waveform to provide a second inverted waveform; and an analog signal processing module coupled to the signal inversion module and arranged to receive an output from the signal inversion module, the analog signal processing module configured to provide an algebraic manipulation of the output from the signal inversion module to generate a position output voltage signal; wherein the signal inversion module is configured to output the first and second waveforms (200,202) in a first region spanning a first range of angular position of the magnet and to output the first and second inverted waveforms in a second region spanning a second range of angular position of the magnet, the first and second regions selected so that the position output voltage signal is linear across a period; wherein an output of the sensor is defined by: output = A sin θ A cos θ ± Ab wherein A is an amplitude of the first and second waveforms (200,202), b is a constant and θ indicates an angle of a rotating magnet in the magnetic sensor. a signal generation module including a first magnetic sensor to generate a first waveform in the form of a sine wave and a second magnetic sensor to generate a second waveform in the form of a cosine wave, the first and second waveforms (200,202) containing angular position information of a magnet in relation to the first and second magnetic sensors (154,156); a signal inversion module coupled to the signal generation module for inverting the first waveform to provide a first inverted waveform and for inverting the second waveform to provide a second inverted waveform; and an analog signal processing module coupled to the signal inversion module and arranged to receive an output from the signal inversion module, the analog signal processing module configured to provide an algebraic manipulation of the output from the signal inversion module to generate a position output voltage signal; wherein the signal inversion module is configured to output the first and second waveforms (200,202) in a first region spanning a first range of angular position of the magnet and to output the first and second inverted waveforms in a second region spanning a second range of angular position of the magnet, the first and second regions selected so that the position output voltage signal is linear across a period; wherein an output of the sensor is defined by: output = A sin θ A cos θ ± Ab wherein A is an amplitude of the first and second waveforms (200,202), b is a constant and θ indicates an angle of a rotating magnet in the magnetic sensor.
A method of operating an air conditioning system performing the steps of: operating a refrigeration unit to cool a volume of refrigerant; circulating the refrigerant to a heat exchanger; cooling a serviced space via a thermal energy exchange between the serviced space and the refrigerant at the heat exchanger; the method characterized by performing the steps of: during daytime, storing thermal energy generated by operation of the refrigeration unit at a thermal energy storage system, and during nighttime, expelling the stored thermal energy from the thermal energy storage system into the nighttime ambient air. operating a refrigeration unit to cool a volume of refrigerant; circulating the refrigerant to a heat exchanger; cooling a serviced space via a thermal energy exchange between the serviced space and the refrigerant at the heat exchanger; the method characterized by performing the steps of: during daytime, storing thermal energy generated by operation of the refrigeration unit at a thermal energy storage system, and during nighttime, expelling the stored thermal energy from the thermal energy storage system into the nighttime ambient air. during daytime, storing thermal energy generated by operation of the refrigeration unit at a thermal energy storage system, and during nighttime, expelling the stored thermal energy from the thermal energy storage system into the nighttime ambient air.