mhurhangee/patent-ind-claim-en huggingface dataset:
Harvesting machine , in particular a forage wagon or baling press, comprising a pick-up unit , preferably a pick-up roller, comprising a conveying channel downstream of the pick-up unit in the conveying direction of the harvested crop and comprising a conveying rotor which has a large number of conveying elements , for example conveying tines, which project into the conveying channel and have a conveying tip at their outer end, and a large number of conveying spaces located, in each case, between two conveying elements which are adjacent in the conveying direction, and comprising a plurality of cutting blades which optionally project into the conveying channel and interact with the conveying elements of the conveying rotor in order to comminute the harvested crop, the conveying rotor having conveying spaces of different sizes in the longitudinal direction at least in part, characterised in that the sizes of the conveying spaces are smaller in edge regions of the conveying rotor than in central regions.
Method for contactless characterization of a substance (A) using waves (W), wherein the substance (A) has a spectral structure (a( ẽ i )) as a characteristic field (KF) which is qualitatively dependent on at least one property (e i ) of the substance (A), wherein the spectral structure (a( ẽ i )) is determined by at least two different measurements (x j ), and wherein the at least two different measurements (x j ) include disturbance structures (s j ) which depend on the measurement circumstances, wherein in a step 1) the at least two different measurements (x j ) are carried out under different measurement circumstances which have quantitatively and/or qualitatively different disturbance structures (s j ) and possibly quantitatively different spectral structures (g j · a ), and in a step 2) coefficients (c j ) of a linear combination ( ∑ j = 1 M c j x j ) of the different measurements (x j ) and the value ( ẽ i ) of the at least one property (e i ) of the substance (A) are optimized so that the deviation between the linear combination ( ∑ j = 1 M c j x j ) and the spectral structure (a( ẽ i )) is minimized. wherein the substance (A) has a spectral structure (a( ẽ i )) as a characteristic field (KF) which is qualitatively dependent on at least one property (e i ) of the substance (A), wherein the spectral structure (a( ẽ i )) is determined by at least two different measurements (x j ), and wherein the at least two different measurements (x j ) include disturbance structures (s j ) which depend on the measurement circumstances, wherein in a step 1) the at least two different measurements (x j ) are carried out under different measurement circumstances which have quantitatively and/or qualitatively different disturbance structures (s j ) and possibly quantitatively different spectral structures (g j · a ), and in a step 2) coefficients (c j ) of a linear combination ( ∑ j = 1 M c j x j ) of the different measurements (x j ) and the value ( ẽ i ) of the at least one property (e i ) of the substance (A) are optimized so that the deviation between the linear combination ( ∑ j = 1 M c j x j ) and the spectral structure (a( ẽ i )) is minimized.
A surface cleaning apparatus , comprising: a two-stage collection system, comprising: a mechanical collection stage comprising an agitator rotatably driven about a rotational axis, characterized in that the mechanical collection stage also includes a scraper interfacing with a first portion of the agitator , and a first collection area configured to collect debris and liquid mechanically propelled into the first collection area by the agitator and mechanically scraped off the agitator by the scraper ; and a suction collection stage comprising a suction nozzle proximate the agitator and a suction source in fluid communication with the suction nozzle to recover debris and liquid on the agitator in a second collection area wherein the suction nozzle confronts a second portion of the agitator , the second portion of the agitator being disposed past the first portion of the agitator in a direction of rotation of the agitator about the rotational axis. a mechanical collection stage comprising an agitator rotatably driven about a rotational axis, characterized in that the mechanical collection stage also includes a scraper interfacing with a first portion of the agitator , and a first collection area configured to collect debris and liquid mechanically propelled into the first collection area by the agitator and mechanically scraped off the agitator by the scraper ; and a suction collection stage comprising a suction nozzle proximate the agitator and a suction source in fluid communication with the suction nozzle to recover debris and liquid on the agitator in a second collection area wherein the suction nozzle confronts a second portion of the agitator , the second portion of the agitator being disposed past the first portion of the agitator in a direction of rotation of the agitator about the rotational axis.
A method performed by a terminal in a wireless communication system, the method comprising: detecting downlink control information, DCI, including first transmission timing information for feedback; detecting second DCI including second transmission timing information for feedback; the method being characterized by : creating feedback information for data scheduled by the first DCI and data scheduled by the second DCI based on a time resource indicated by the first transmission timing information identical to a time resource indicated by the second transmission timing information; and transmitting the feedback information based on first and second information, wherein the first information associated with a first bitmap index included in the first DCI is different from the second information associated with a second bitmap index included in the second DCI. detecting downlink control information, DCI, including first transmission timing information for feedback; detecting second DCI including second transmission timing information for feedback; the method being characterized by : creating feedback information for data scheduled by the first DCI and data scheduled by the second DCI based on a time resource indicated by the first transmission timing information identical to a time resource indicated by the second transmission timing information; and transmitting the feedback information based on first and second information, wherein the first information associated with a first bitmap index included in the first DCI is different from the second information associated with a second bitmap index included in the second DCI. creating feedback information for data scheduled by the first DCI and data scheduled by the second DCI based on a time resource indicated by the first transmission timing information identical to a time resource indicated by the second transmission timing information; and transmitting the feedback information based on first and second information, wherein the first information associated with a first bitmap index included in the first DCI is different from the second information associated with a second bitmap index included in the second DCI.
A fuel supply system for a gas turbine engine comprising: a fuel tank ; a pumping unit downstream of the fuel tank and configured to receive fuel from the fuel tank, the pumping unit comprising: a boost pump ; an actuation pump downstream of the boost pump and configured to be in fluid communication with at least one actuator of the gas turbine engine; and a cruise pump downstream of the boost pump and configured to be in fluid communication with nozzles of a gas generator of the gas turbine engine; and a sharing valve downstream of the pumping unit and configured to receive fuel from the cruise pump of the pumping unit during a first operating condition. an augmentor pump downstream of the fuel tank and configured to receive fuel from the fuel tank during a second operating condition. a fuel tank ; a pumping unit downstream of the fuel tank and configured to receive fuel from the fuel tank, the pumping unit comprising: a boost pump ; an actuation pump downstream of the boost pump and configured to be in fluid communication with at least one actuator of the gas turbine engine; and a cruise pump downstream of the boost pump and configured to be in fluid communication with nozzles of a gas generator of the gas turbine engine; and a boost pump ; an actuation pump downstream of the boost pump and configured to be in fluid communication with at least one actuator of the gas turbine engine; and a cruise pump downstream of the boost pump and configured to be in fluid communication with nozzles of a gas generator of the gas turbine engine; and a sharing valve downstream of the pumping unit and configured to receive fuel from the cruise pump of the pumping unit during a first operating condition. an augmentor pump downstream of the fuel tank and configured to receive fuel from the fuel tank during a second operating condition.
Supercritical CO 2 arrangement for the utilization of waste heat comprising at least a waste heat exchanger (3, 3', 3"), at least two turbines (6, 6', 6"), at least two recuperators , and at least a cooler unit (8, 9, 8', 9', 8", 9") in at least one fluid circuit, characterized in that a pump and compressor (10, 10', 10") in one device is comprised, switchable between a pump and compressor function by a change of the rotational frequency of a rotor of the device.
A DC motor control device that controls a DC motor (2-1, 2-2, 125), comprising: a communication unit that receives a control command specifying a target rotation amount for the DC motor (2-1, 2-2, 125); a sensor interface unit that receives a detection signal from a rotational angle sensor that outputs the detection signal every time the DC motor (2-1, 2-2, 125) rotates by a certain rotational angle; a step counter unit that outputs a count signal every time the detection signal has been received a certain number of times; a control unit that, based on the number of times the count signal is received, determines a step count indicating the total amount of rotation from the start of the rotation of the DC motor (2-1, 2-2, 125), and generates a control signal that controls the DC motor (2-1, 2-2, 125) in accordance with the step count and the target rotation amount; and a drive signal generation unit that generates a drive signal that rotates the DC motor (2-1, 2-2, 125) in accordance with the control signal and outputs the drive signal, characterized in that the control command includes information indicating the certain number of times, and the step counter unit sets the certain number of times based on the information. a communication unit that receives a control command specifying a target rotation amount for the DC motor (2-1, 2-2, 125); a sensor interface unit that receives a detection signal from a rotational angle sensor that outputs the detection signal every time the DC motor (2-1, 2-2, 125) rotates by a certain rotational angle; a step counter unit that outputs a count signal every time the detection signal has been received a certain number of times; a control unit that, based on the number of times the count signal is received, determines a step count indicating the total amount of rotation from the start of the rotation of the DC motor (2-1, 2-2, 125), and generates a control signal that controls the DC motor (2-1, 2-2, 125) in accordance with the step count and the target rotation amount; and a drive signal generation unit that generates a drive signal that rotates the DC motor (2-1, 2-2, 125) in accordance with the control signal and outputs the drive signal, characterized in that the control command includes information indicating the certain number of times, and the step counter unit sets the certain number of times based on the information.
A system for recording an encrypted data stream, the encrypted data comprising a contact center interaction data, the system comprising: a control protocol switch interface configured to interface with a protocol switch and receive an interaction setup signal, the interaction setup signal including an exchange of encryption key information associated with an interaction ; an encryption key information buffer coupled to the control protocol switch interface, the encryption key information buffer being configured to receive the encryption key information and hold the encryption key information; a data switch interface configured to interface with a data switch and receive an encrypted data stream associated with the interaction, the encrypted data stream being encrypted such that devices that do not have an encryption key associated with the encrypted data stream are inhibited from reviewing the interaction data; a recording module configured to record the interaction based on an event detected in the interaction; wherein the system is operable to subsequently decrypt the encrypted data stream using associated encryption key information held in the encryption key information buffer, wherein the system is not a party to the interaction, and wherein the recording module receives a duplicate media stream representing the interaction, and the encryption key information is received from a source of the duplicate media stream. a control protocol switch interface configured to interface with a protocol switch and receive an interaction setup signal, the interaction setup signal including an exchange of encryption key information associated with an interaction ; an encryption key information buffer coupled to the control protocol switch interface, the encryption key information buffer being configured to receive the encryption key information and hold the encryption key information; a data switch interface configured to interface with a data switch and receive an encrypted data stream associated with the interaction, the encrypted data stream being encrypted such that devices that do not have an encryption key associated with the encrypted data stream are inhibited from reviewing the interaction data; a recording module configured to record the interaction based on an event detected in the interaction; wherein the system is operable to subsequently decrypt the encrypted data stream using associated encryption key information held in the encryption key information buffer, wherein the system is not a party to the interaction, and wherein the recording module receives a duplicate media stream representing the interaction, and the encryption key information is received from a source of the duplicate media stream.
A method comprising: a) forming a layered tubular member by placing one or more outer layers about an inner layer and joining at one or more seams along a length of the layered tubular member , wherein the one or more outer layers include a first resin impregnated therein; b) applying the first resin or a second resin at the one or more seams ; c) creating one or more fillets along the one or more seams with the first resin, the second resin, or an adhesive, wherein the one or more fillets are formed between an edge of the one or more outer layers and a surface of the one or more outer layers ; and d) curing the first resin, the second resin, and the adhesive so that the layered tubular member , the first resin, the second resin, and the adhesive form a composite structure having a tubular shape. a) forming a layered tubular member by placing one or more outer layers about an inner layer and joining at one or more seams along a length of the layered tubular member , wherein the one or more outer layers include a first resin impregnated therein; b) applying the first resin or a second resin at the one or more seams ; c) creating one or more fillets along the one or more seams with the first resin, the second resin, or an adhesive, wherein the one or more fillets are formed between an edge of the one or more outer layers and a surface of the one or more outer layers ; and d) curing the first resin, the second resin, and the adhesive so that the layered tubular member , the first resin, the second resin, and the adhesive form a composite structure having a tubular shape.
A microfluidic device comprising: a substrate having at least one electrode configured to be connected to a voltage source; a cover having at least one electrode configured to be connected to the voltage source; and at least one spacing element , wherein the substrate and the cover are substantially parallel to one another and joined together by the spacing element so as to define an enclosure configured to hold a liquid, wherein the substrate has a droplet actuation surface that defines, in part, the enclosure, the droplet actuation surface having an inner dielectric layer and an outer hydrophobic layer , wherein the inner dielectric layer of the droplet actuation surface of the substrate comprises a first layer and a second layer of dielectric material, wherein the first layer of dielectric material comprises an oxide, wherein the outer hydrophobic layer comprises self-associating molecules covalently bonded to a surface of the first layer of dielectric material of the inner dielectric layer, to thereby form a densely packed hydrophobic monolayer thereon, and wherein, when the at least one electrode of the substrate and the at least one electrode of the cover are connected to opposing terminals of the voltage source, the substrate is capable of applying an electrowetting force to aqueous droplets in contact with the droplet actuating surface of the substrate. a substrate having at least one electrode configured to be connected to a voltage source; a cover having at least one electrode configured to be connected to the voltage source; and at least one spacing element , wherein the substrate and the cover are substantially parallel to one another and joined together by the spacing element so as to define an enclosure configured to hold a liquid, wherein the substrate has a droplet actuation surface that defines, in part, the enclosure, the droplet actuation surface having an inner dielectric layer and an outer hydrophobic layer , wherein the inner dielectric layer of the droplet actuation surface of the substrate comprises a first layer and a second layer of dielectric material, wherein the first layer of dielectric material comprises an oxide, wherein the outer hydrophobic layer comprises self-associating molecules covalently bonded to a surface of the first layer of dielectric material of the inner dielectric layer, to thereby form a densely packed hydrophobic monolayer thereon, and wherein, when the at least one electrode of the substrate and the at least one electrode of the cover are connected to opposing terminals of the voltage source, the substrate is capable of applying an electrowetting force to aqueous droplets in contact with the droplet actuating surface of the substrate.
A treatment planning apparatus , comprising: a quality metric generator configured to electronically generate a first quality metric based on input received via a user interface; an optimizer configured to determine treatment parameters for a treatment plan that is executable by a processing unit of a treatment machine to operate the treatment machine, wherein the optimizer is configured to determine the treatment parameters for the treatment plan based on the first quality metric; and a controller configured to influence how the optimizer performs optimization, wherein the controller is configured to provide a first continuous function for the first quality metric; characterized in that : the first continuous function associates values of the first quality metric with respective prioritization metric values. a quality metric generator configured to electronically generate a first quality metric based on input received via a user interface; an optimizer configured to determine treatment parameters for a treatment plan that is executable by a processing unit of a treatment machine to operate the treatment machine, wherein the optimizer is configured to determine the treatment parameters for the treatment plan based on the first quality metric; and a controller configured to influence how the optimizer performs optimization, wherein the controller is configured to provide a first continuous function for the first quality metric; characterized in that : the first continuous function associates values of the first quality metric with respective prioritization metric values.
A connection member for a rechargeable battery, comprising: a guide plate , two first connection plates and a second connection plate ; wherein the two first connection plates respectively connects to two sides of the guide plate in a width direction and are arranged bendably with respect to the guide plate , the second connection plate connects to an upper end of the guide plate ; characterized in that : the guide plate comprises a main plate and an epitaxial plate , the two first connection plates are connected to the main plate , the epitaxial plate is spaced above one of the two first connection plates and extends towards an outside of the main plate along the width direction; wherein, top ends of the two first connection plates are at different heights. a guide plate , two first connection plates and a second connection plate ; wherein the two first connection plates respectively connects to two sides of the guide plate in a width direction and are arranged bendably with respect to the guide plate , the second connection plate connects to an upper end of the guide plate ; characterized in that : the guide plate comprises a main plate and an epitaxial plate , the two first connection plates are connected to the main plate , the epitaxial plate is spaced above one of the two first connection plates and extends towards an outside of the main plate along the width direction; wherein, top ends of the two first connection plates are at different heights. the guide plate comprises a main plate and an epitaxial plate , the two first connection plates are connected to the main plate , the epitaxial plate is spaced above one of the two first connection plates and extends towards an outside of the main plate along the width direction; wherein, top ends of the two first connection plates are at different heights.
A steel sheet for hot stamping, comprising a composition containing: in mass%, C: 0.100% to 0.600%; Si: 0.50% to 3.00%; Mn: 1.20% to 4.00%; Ti: 0.005% to 0.100%; B: 0.0005% to 0.0100%; P: 0.100% or less; S: 0.0001% to 0.0100%; Al: 0.005% to 1.000%; N: 0.0100% or less; Ni: 0% to 2.00%; Cu: 0% to 2.00%; Cr: 0% to 2.00%; Mo: 0% to 2.00%; Nb: 0% to 0.100%; V: 0% to 0.100%; W: 0% to 0.100%, and a total of one kind or two or more kinds selected from a group consisting of REM, Ca, Ce and Mg: 0% to 0.0300%, with a balance being Fe and impurities, wherein surface roughness of the steel sheet satisfies 8.0 μm > Rz >2.5 μm, and coating oil in an amount of 50 mg/m 2 to 1500 mg/m 2 is applied onto a surface, and wherein an amount of S contained in the coating oil which is applied onto the steel sheet is 5% or less in mass%, wherein the Rz was determined by measuring the region of a length of 10 mm with n=3, with use of a contact surface roughness measuring instrument (SURFCOM2000DX/SD3 made by TOKYO SEIMITSU CO., LTD) with a probe point angle of 60°, and a point R of 2 μm and determining the average value as the surface roughness Rz of each of the steel sheets. in mass%, C: 0.100% to 0.600%; Si: 0.50% to 3.00%; Mn: 1.20% to 4.00%; Ti: 0.005% to 0.100%; B: 0.0005% to 0.0100%; P: 0.100% or less; S: 0.0001% to 0.0100%; Al: 0.005% to 1.000%; N: 0.0100% or less; Ni: 0% to 2.00%; Cu: 0% to 2.00%; Cr: 0% to 2.00%; Mo: 0% to 2.00%; Nb: 0% to 0.100%; V: 0% to 0.100%; W: 0% to 0.100%, and a total of one kind or two or more kinds selected from a group consisting of REM, Ca, Ce and Mg: 0% to 0.0300%, with a balance being Fe and impurities, wherein surface roughness of the steel sheet satisfies 8.0 μm > Rz >2.5 μm, and coating oil in an amount of 50 mg/m 2 to 1500 mg/m 2 is applied onto a surface, and wherein an amount of S contained in the coating oil which is applied onto the steel sheet is 5% or less in mass%, wherein