mhurhangee/patent-ind-claim-en huggingface dataset:
A dual generator system includes a main generator that generates at least a first phase main output and a second phase main output; a flux regulated permanent magnet generator FRPMG that generates at least a first phase auxiliary output and a second phase auxiliary output, wherein the first phase main output is combined with the first phase auxiliary output to generate a first phase combined output and the second phase main output is combined with the second phase auxiliary output to generate a second phase combined output, and an auxiliary generator control unit AGCU , the dual generator system characterized by : wherein the FRPMG includes at least a first control winding (LA) and a second control winding (LB), wherein the AGCU provides a first control signal to the first control winding to regulate the first phase auxiliary output and provide a second control signal to the second control winding to regulate the second phase auxiliary output; and wherein the AGCU comprises: a first control loop that includes an outer control loop that compares the first phase combined output with a first phase reference value to generate a first command signal and an inner loop that compares the first command signal with the first control signal and generates in response control signals to regulate the first control signal to increase or decrease the first phase combined output; and a second control loop that monitors the second phase combined output and in response regulates the second control signal to increase or decrease the second phase combined output. wherein the FRPMG includes at least a first control winding (LA) and a second control winding (LB), wherein the AGCU provides a first control signal to the first control winding to regulate the first phase auxiliary output and provide a second control signal to the second control winding to regulate the second phase auxiliary output; and wherein the AGCU comprises: a first control loop that includes an outer control loop that compares the first phase combined output with a first phase reference value to generate a first command signal and an inner loop that compares the first command signal with the first control signal and generates in response control signals to regulate the first control signal to increase or decrease the first phase combined output; and a second control loop that monitors the second phase combined output and in response regulates the second control signal to increase or decrease the second phase combined output. a first control loop that includes an outer control loop that compares the first phase combined output with a first phase reference value to generate a first command signal and an inner loop that compares the first command signal with the first control signal and generates in response control signals to regulate the first control signal to increase or decrease the first phase combined output; and a second control loop that monitors the second phase combined output and in response regulates the second control signal to increase or decrease the second phase combined output.
A method for manufacturing an additively-manufactured object, the method comprising: radiating a laser beam in a weaving manner to a powdered material containing a first powder containing precipitation hardening stainless steel alloy and a second powder containing titanium carbide to melt and solidify the powdered material; and depositing at least one layer of a cladding layer on a base metal, wherein the step of depositing the cladding layer is a step satisfying the following conditional expressions , , and : 20 ≤ A ≤ 35 1.1 ≤ B ≤ 1.3 and 40 mass% ≤ R2 ≤ 65 mass% where A = P × α/β [kJ/cm]: Laser heat input index, B = Q × α/β [g/cm]: Powder feeding rate index, P [W]: Heat input from laser beam, Q [g/min]: Feeding rate of powdered material, α = W/V1 , β = V2 × t , W [cm]: Scanning width of beam spot caused by weaving operation, V1 [cm/min]: Scanning speed of laser beam caused by weaving operation, V2 [cm/min]: Advancing speed in welding direction, t [sec]: Time of one weaving cycle, and R2 [mass%]: Ratio of second powder contained in powdered material, wherein the precipitation hardening stainless steel alloy is an SUS630 alloy or an SUS631 alloy, and wherein the base material is selected from the group consisting of steel, cobalt-based alloys, and nickel-based alloys. radiating a laser beam in a weaving manner to a powdered material containing a first powder containing precipitation hardening stainless steel alloy and a second powder containing titanium carbide to melt and solidify the powdered material; and depositing at least one layer of a cladding layer on a base metal, wherein the step of depositing the cladding layer is a step satisfying the following conditional expressions , , and : 20 ≤ A ≤ 35 1.1 ≤ B ≤ 1.3 and 40 mass% ≤ R2 ≤ 65 mass% where A = P × α/β [kJ/cm]: Laser heat input index, B = Q × α/β [g/cm]: Powder feeding rate index, P [W]: Heat input from laser beam, Q [g/min]: Feeding rate of powdered material, α = W/V1 , β = V2 × t , W [cm]: Scanning width of beam spot caused by weaving operation, V1 [cm/min]: Scanning speed of laser beam caused by weaving operation, V2 [cm/min]: Advancing speed in welding direction, t [sec]: Time of one weaving cycle, and R2 [mass%]: Ratio of second powder contained in powdered material, A = P × α/β [kJ/cm]: Laser heat input index, B = Q × α/β [g/cm]: Powder feeding rate index, P [W]: Heat input from laser beam, Q [g/min]: Feeding rate of powdered material, α = W/V1 , β = V2 × t , W [cm]: Scanning width of beam spot caused by weaving operation, V1 [cm/min]: Scanning speed of laser beam caused by weaving operation, V2 [cm/min]: Advancing speed in welding direction, t [sec]: Time of one weaving cycle, and R2 [mass%]: Ratio of second powder contained in powdered material, wherein the precipitation hardening stainless steel alloy is an SUS630 alloy or an SUS631 alloy, and wherein the base material is selected from the group consisting of steel, cobalt-based alloys, and nickel-based alloys.
A case , comprising: a main body ; a cover rotatably mounted to the main body at one end of the cover adjacent to the main body , said one end defining a groove at a certain portion of the cover ; and an elastic assembly received in the main body , the elastic assembly being arranged in alignment with the groove , the elastic assembly being stretchable and having a top portion corresponding to the groove , and the top portion being configured to insert into the groove so that during rotation of the cover the top portion elastically abuts against the certain portion of the cover corresponding to the groove and the elastic assembly is stretched to pull on the cover. a main body ; a cover rotatably mounted to the main body at one end of the cover adjacent to the main body , said one end defining a groove at a certain portion of the cover ; and an elastic assembly received in the main body , the elastic assembly being arranged in alignment with the groove , the elastic assembly being stretchable and having a top portion corresponding to the groove , and the top portion being configured to insert into the groove so that during rotation of the cover the top portion elastically abuts against the certain portion of the cover corresponding to the groove and the elastic assembly is stretched to pull on the cover.
An apparatus comprising: an impressions monitor to: receive a first network communication from a client device , the first network communication including a first characteristic corresponding to a collector media object presented at the client device , and including second characteristics (210b-d) respectively corresponding to a plurality of second media objects (104b-d) concurrently presented with the collector media object at the client device , the first characteristic and the second characteristics (210b-d) collected at the client device for transmission in the first network communication based on an instruction in the collector media object ; and log impressions corresponding to the collector media object and the second media objects (104b-d) based on the first and second characteristics (210a-d); a demographics collector to receive a second network communication from a database proprietor , the second network communication including demographic information ; and an attributor to associate the demographic information with the logged impressions. an impressions monitor to: receive a first network communication from a client device , the first network communication including a first characteristic corresponding to a collector media object presented at the client device , and including second characteristics (210b-d) respectively corresponding to a plurality of second media objects (104b-d) concurrently presented with the collector media object at the client device , the first characteristic and the second characteristics (210b-d) collected at the client device for transmission in the first network communication based on an instruction in the collector media object ; and log impressions corresponding to the collector media object and the second media objects (104b-d) based on the first and second characteristics (210a-d); receive a first network communication from a client device , the first network communication including a first characteristic corresponding to a collector media object presented at the client device , and including second characteristics (210b-d) respectively corresponding to a plurality of second media objects (104b-d) concurrently presented with the collector media object at the client device , the first characteristic and the second characteristics (210b-d) collected at the client device for transmission in the first network communication based on an instruction in the collector media object ; and log impressions corresponding to the collector media object and the second media objects (104b-d) based on the first and second characteristics (210a-d); a demographics collector to receive a second network communication from a database proprietor , the second network communication including demographic information ; and an attributor to associate the demographic information with the logged impressions.
An animal watering valve comprising: a housing having an outlet , an inlet , and a bore formed therein and extending from the outlet to the inlet ; a valve element located in the bore ; a stem disposed within the housing in a cooperating relationship with the valve element and extending through the outlet of the housing ; a stem hat coupled to a downstream end of the stem , wherein the stem hat has a cap and a disk extending radially from the stem at a location adjacent an upstream side of the outlet ; characterized in that the stem hat is an unitary element forming the cap and the disk . a housing having an outlet , an inlet , and a bore formed therein and extending from the outlet to the inlet ; a valve element located in the bore ; a stem disposed within the housing in a cooperating relationship with the valve element and extending through the outlet of the housing ; a stem hat coupled to a downstream end of the stem , wherein the stem hat has a cap and a disk extending radially from the stem at a location adjacent an upstream side of the outlet ; characterized in that the stem hat is an unitary element forming the cap and the disk .
A vertical stabilizer , comprising: an airfoil structure configured to be mounted to a rotorcraft at a vertical orientation, wherein: the airfoil structure comprises a leading edge and a trailing edge , wherein the trailing edge is configured to form a blunt shaped edge; the airfoil structure further comprises a root end and a tip end, wherein the airfoil structure is tapered from the root end to the tip end; the airfoil structure is cambered; the airfoil structure is further configured to be mounted with a tail rotor , the tail rotor being mountable on the airfoil structure proximate the tip end of the airfoil structure so that the tail rotor supports rotor blades that rotate in a vertical plane of rotation exterior to the airfoil structure ; the airfoil structure is further configured to house one or more internal components associated with the aircraft; and the airfoil structure is configured as a fixed structure with no adjustable control surfaces. the airfoil structure comprises a leading edge and a trailing edge , wherein the trailing edge is configured to form a blunt shaped edge; the airfoil structure further comprises a root end and a tip end, wherein the airfoil structure is tapered from the root end to the tip end; the airfoil structure is cambered; the airfoil structure is further configured to be mounted with a tail rotor , the tail rotor being mountable on the airfoil structure proximate the tip end of the airfoil structure so that the tail rotor supports rotor blades that rotate in a vertical plane of rotation exterior to the airfoil structure ; the airfoil structure is further configured to house one or more internal components associated with the aircraft; and the airfoil structure is configured as a fixed structure with no adjustable control surfaces.
Sanitary appliance comprising: - a receptacle provided with a flow surface and at least one outlet provided with a valve , - a sensor for sensing liquid flow at a sensing location of the flow surface , which sensor is arranged in proximity to said sensing location, - a controller for receiving a sensor signal and controlling opening and/or closing the valve on the basis of the sensor signal, wherein the sensor comprises a resonant circuit . - a receptacle provided with a flow surface and at least one outlet provided with a valve , - a sensor for sensing liquid flow at a sensing location of the flow surface , which sensor is arranged in proximity to said sensing location, - a controller for receiving a sensor signal and controlling opening and/or closing the valve on the basis of the sensor signal,
Method for avoiding odour pollution from a sewer system in the vicinity of a shaft of the sewer system which is open to the ambient air, whereby water droplets are sprayed into the air in the shaft , whereby the water is released through hydrostatic pressure from a pressure vessel into the shaft , whereby the pressure in the pressure vessel is at least 2 bar, whereby the water is moved out of the pressure vessel through one or more fine nozzles , whereby the openings of the one or more nozzles have a diameter of less than 130 micrometres.
A hydraulic construction unit with a centrifugal pump assembly which comprises an electrical drive motor as well as at least one impeller which is driven by this, as well as with at least one valve element which is arranged in a manner such that it is movable by way of a fluid flow which is created by the impeller , wherein at least one section (18; 78) of a wall delimiting a flow path in the hydraulic construction unit is designed in a movable manner, this movable section (18; 78; 86) of the wall is part of the valve element or is connected to the valve element for its movement, and this movable section (18; 78; 86) is movable in a manner at least partly effected by friction forces of the fluid flow running along the wall, characterised by a movable separating element (18; 78) which separates a suction chamber in the inside of a pump casing of the centrifugal pump assembly from a delivery chamber which surrounds the impeller , wherein a surface of the separating element (18; 78) which faces the delivery chamber and/or a surface of the separating element which faces the suction chamber forms the at least one movable section of the wall.
An earth working machine , for example a road milling machine or a surface miner, having - a machine frame ; - a milling unit that is carried on the machine frame and encompasses a milling tool and a milling tool housing that shields the milling tool with respect to the external environment of the earth working machine ; and - a receiving conveying device that is operationally embodied to convey earth material, removed by the milling tool , away from the milling unit ; wherein the receiving conveying device , both in an operationally ready operating state and in a non-operationally-ready installation state, is supported on the earth working machine movably relative to the machine frame ; wherein in the operating state of the receiving conveying device , a portion of the receiving conveying device which is located closer to the milling tool is coupled by means of a first motion coupling for motion together with a part of the milling tool housing which is movable relative to the machine frame ; wherein, in order to establish the installation state: i) the first motion coupling is disengageable, and ii) the earth working machine comprises a suspension means , by which the portion of the receiving conveying device which is located closer to the milling tool is swingably suspendable on the machine frame , characterized in that the earth working machine comprises a second motion coupling , being different from the first one, said second motion coupling comprising pulling means and/or pushing means couplable to the receiving conveying device as well as to a component arrangement of the earth working machine , which is drivable to move relative to the machine frame , by which the receiving conveying device , in addition to the swingable suspension at the machine frame is couplable to the component arrangement in such a way that a driven motion of the component arrangement , from an initial position into a final position different therefrom, brings about a displacement of the swingably suspended receiving conveying device away from the milling unit . - a machine frame ; - a milling unit that is carried on the machine frame and encompasses a milling tool and a milling tool housing that shields the milling tool with respect to the external environment of the earth working machine ; and - a receiving conveying device that is operationally embodied to convey earth material, removed by the milling tool , away from the milling unit ; i) the first motion coupling is disengageable, and ii) the earth working machine comprises a suspension means , by which the portion of the receiving conveying device which is located closer to the milling tool is swingably suspendable on the machine frame ,
A computer-implemented method, implemented by one or more digital data processors, for displaying viewer-related content along a given view direction of a MultiView Display (MVD) , the MVD , operable to display distinct viewer-related content in two or more distinct viewing directions relative to the display, the method comprising: emitting respective encoded time-variable emissions , wherein each of said encoded time-variable emissions is substantially aligned with and encodes a corresponding viewing direction of the MVD ; capturing via an optical sensor of a portable communication device located within a given view direction a corresponding encoded time-variable emission ; extracting a direction-related identifier from said corresponding encoded time-variable emission ; communicating, via said portable communication device, viewer-related data, and a direction-related identifier identifiable from said corresponding encoded time-variable emission , to a network-interfacing content controller communicatively linked to the MVD ; selecting, via said content controller , viewer-related content based on said viewer-related data; and displaying, via said content controller and the MVD , said viewer-related content in said given view direction corresponding to said direction-related identifier. emitting respective encoded time-variable emissions , wherein each of said encoded time-variable emissions is substantially aligned with and encodes a corresponding viewing direction of the MVD ; capturing via an optical sensor of a portable communication device located within a given view direction a corresponding encoded time-variable emission ; extracting a direction-related identifier from said corresponding encoded time-variable emission ; communicating, via said portable communication device, viewer-related data, and a direction-related identifier identifiable from said corresponding encoded time-variable emission , to a network-interfacing content controller communicatively linked to the MVD ; selecting, via said content controller , viewer-related content based on said viewer-related data; and displaying, via said content controller and the MVD , said viewer-related content in said given view direction corresponding to said direction-related identifier.
A combination comprising 3-(2-(5-chloro-1H-pyrrolo[2,3-b]pyridin-3-yl)-5-fluoro-7H-pyrrolo[2,3-d]pyrimidin-7-yl)bicyclo[2.2.2]octane-2-carboxylic acid or a pharmaceutically acceptable salt or solvate thereof and a second antiviral agent.
An apparatus comprising: a transceiver configured to communicate via a wireless network; and computer processing circuitry configured to: obtain a set of users as a function of profile records regarding a plurality of users; define a subset of the users as a peer group based on peer group formation features by applying a clustering algorithm to profile records of the set of users; calculate a peer group metric value for the peer group based on behaviors for which a metric of the subset of users in the peer group is measured; calculate a user metric value for a target-user included in the subset based on behavior for which a metric of the target-user is measured; and construct a message relating the user metric value to the peer group metric value; wherein the clustering algorithm is based on a metric-space distance obtained by a closeness of the profile records of the set of users, wherein the metric-space distance is determined based on differences between each attribute value of the profile records. a transceiver configured to communicate via a wireless network; and computer processing circuitry configured to: obtain a set of users as a function of profile records regarding a plurality of users; define a subset of the users as a peer group based on peer group formation features by applying a clustering algorithm to profile records of the set of users; calculate a peer group metric value for the peer group based on behaviors for which a metric of the subset of users in the peer group is measured; calculate a user metric value for a target-user included in the subset based on behavior for which a metric of the target-user is measured; and construct a message relating the user metric value to the peer group metric value; obtain a set of users as a function of profile records regarding a plurality of users; define a subset of the users as a peer group based on peer group formation features by applying a clustering algorithm to profile records of the set of users; calculate a peer group metric value for the peer group based on behaviors for which a metric of the subset of users in the peer group is measured; calculate a user metric value for a target-user included in the subset based on behavior for which a metric of the target-user is measured; and construct a message relating the user metric value to the peer group metric value; wherein the clustering algorithm is based on a metric-space distance obtained by a closeness of the profile records of the set of users, wherein the metric-space distance is determined based on differences between each attribute value of the profile records.