mhurhangee/ep-ind-claims huggingface dataset:
A method in a self-organizing network, SON, manager node of providing scalable radio resource management, RRM, in a wireless local area network, WLAN, the method comprising: receiving radio frequency, RF, scan data and predicted network load values, from each of wireless access points, APs, wherein the predicted network load values are determined based on collection of network load information from the APs for each RRM time slot associated with an RRM period, and prediction of network load values for the same RRM time slot for a next RRM period, and wherein each RRM time slot associated with each RRM period is defined as time over which an RRM optimization algorithm can be executed; creating network segments of limited sizes based on the RF scan data associated with each AP; scheduling, based on the received RF scan data and the predicted network load values, periodic execution of the RRM optimization algorithm in RRM time slots in successive RRM periods; and periodically executing the RRM optimization algorithm over each of the network segments during a scheduled RRM time slot in each of the successive RRM periods. receiving radio frequency, RF, scan data and predicted network load values, from each of wireless access points, APs, wherein the predicted network load values are determined based on collection of network load information from the APs for each RRM time slot associated with an RRM period, and prediction of network load values for the same RRM time slot for a next RRM period, and wherein each RRM time slot associated with each RRM period is defined as time over which an RRM optimization algorithm can be executed; creating network segments of limited sizes based on the RF scan data associated with each AP; scheduling, based on the received RF scan data and the predicted network load values, periodic execution of the RRM optimization algorithm in RRM time slots in successive RRM periods; and periodically executing the RRM optimization algorithm over each of the network segments during a scheduled RRM time slot in each of the successive RRM periods.
A method of detecting colorectal cancer, the method comprising the steps of: (a) isolating a genomic DNA from a clinical sample from a patient; (b) isolating a genomic DNA from a clinical sample from a normal person; (c) detecting the level of methylation in the CpG island of a promoter or a first intron of GPM6A (glycoprotein M6A) gene from genomic DNA in the sample from the patient; (d) detecting the level of methylation in the CpG island of a promoter or a first intron of GPM6A (glycoprotein M6A) gene from genomic DNA in the sample from the normal person; (e) determining a higher degree of methylation in the sample from the patient compared to the sample from the normal person; and (f) identifying the patient methylation in promoter or a first intron of GPM6A (glycoprotein M6A) gene with a higher degree as having a likelihood of colorectal cancer. (a) isolating a genomic DNA from a clinical sample from a patient; (b) isolating a genomic DNA from a clinical sample from a normal person; (c) detecting the level of methylation in the CpG island of a promoter or a first intron of GPM6A (glycoprotein M6A) gene from genomic DNA in the sample from the patient; (d) detecting the level of methylation in the CpG island of a promoter or a first intron of GPM6A (glycoprotein M6A) gene from genomic DNA in the sample from the normal person; (e) determining a higher degree of methylation in the sample from the patient compared to the sample from the normal person; and (f) identifying the patient methylation in promoter or a first intron of GPM6A (glycoprotein M6A) gene with a higher degree as having a likelihood of colorectal cancer.
A system for managing multiple power assets, said system comprising: at least one volatile asset; at least one deterministic asset; and a controller communicatively coupled to said at least one volatile asset and said at least one deterministic asset, said controller configured to: receive data from said at least one volatile asset; predict a change in power output for said at least one volatile asset based on the received data; control operation of said at least one deterministic asset to compensate for the predicted change in power output collect operating data for a power asset, wherein the power asset is one of said at least one deterministic asset; determine an operating mode of the power asset; analyze historical data to determine an average state for assets previously operating in the operating mode; analyze the historical data to identify a problem run for an asset previously operating in the operating mode; and cause the operating data, determined average state, and identified problem run to be displayed to a human operator. at least one volatile asset; at least one deterministic asset; and a controller communicatively coupled to said at least one volatile asset and said at least one deterministic asset, said controller configured to: receive data from said at least one volatile asset; predict a change in power output for said at least one volatile asset based on the received data; control operation of said at least one deterministic asset to compensate for the predicted change in power output collect operating data for a power asset, wherein the power asset is one of said at least one deterministic asset; determine an operating mode of the power asset; analyze historical data to determine an average state for assets previously operating in the operating mode; analyze the historical data to identify a problem run for an asset previously operating in the operating mode; and cause the operating data, determined average state, and identified problem run to be displayed to a human operator. receive data from said at least one volatile asset; predict a change in power output for said at least one volatile asset based on the received data; control operation of said at least one deterministic asset to compensate for the predicted change in power output collect operating data for a power asset, wherein the power asset is one of said at least one deterministic asset; determine an operating mode of the power asset; analyze historical data to determine an average state for assets previously operating in the operating mode; analyze the historical data to identify a problem run for an asset previously operating in the operating mode; and cause the operating data, determined average state, and identified problem run to be displayed to a human operator.
Use of an electronic document template for a value or security document for production of the value or security document, wherein the electronic document template for the value or security document is generated by a method comprising the following steps: - providing a database, in which different types of optical security features are each assigned one or more channels for optical sensing of the security feature in question by means of an optical reading device, wherein the optical reading device is configured for separation of the channels, - selecting a plurality of types of the optical security features from the database and instantiating the selected types in each case by placing and scaling security features of the selected types on an electronic representation of a document substrate layer of the value or security document in order to generate a layout draft, - checking the layout draft, wherein, for spatially overlapping or mutually adjoining instantiated types of security features, it is checked whether these occupy a common channel, and - if this is the case, outputting a signal and inputting a correction of the layout draft as a response to the signal, and - storing the resulting corrected layout draft as the electronic document template. - providing a database, in which different types of optical security features are each assigned one or more channels for optical sensing of the security feature in question by means of an optical reading device, wherein the optical reading device is configured for separation of the channels, - selecting a plurality of types of the optical security features from the database and instantiating the selected types in each case by placing and scaling security features of the selected types on an electronic representation of a document substrate layer of the value or security document in order to generate a layout draft, - checking the layout draft, wherein, for spatially overlapping or mutually adjoining instantiated types of security features, it is checked whether these occupy a common channel, and - if this is the case, outputting a signal and inputting a correction of the layout draft as a response to the signal, and - storing the resulting corrected layout draft as the electronic document template.
Membrane plate for a filter press, wherein the membrane plate has a base member having two side faces (32a, 32b) and an edge, wherein a membrane (33a, 33b) of a flexible material is arranged on the base member at both sides, characterised in that the membrane plate is provided on both side faces (32a, 32b) over the membrane (33a, 33b) with a filter element, wherein the membrane plate has with spacing from the edge retention elements to which the filter elements are releasably secured, wherein the retention elements are secured directly to the base member.
A moldable, malleable, kneadable, and/or injectable ceramic material comprising porous calcium phosphate having a crystal size between 0.1 and 1.5 μm and a surface-microstructure, particularly a surface-microporosity, and a water-free carrier, which is a carbohydrate selected from the group consisting of saccharides, CMC, hydroxyethyl cellulose, alginates, chitosan, dextran, guar, glucose, sucrose, sorbitol, mannitol, fructose, pectin, starch, xanthan, xylan, and mannan, a protein selected from the group consisting of fibrin, gelatine, and collagen, a lipid selected from the group consisting of fatty acids, glycerolipids, glycerophospholipids, sphingolipids, sterol lipids, prenol lipids, saccharolipids, and soya lecithin, a polyol selected from the group consisting of glycerol, 1, 2-propylene glycol, 1, 3-propylene glycol, butylene glycol, and hexylene glycol, a synthetic organic polymer selected from the group consisting of a polyethylene glycol, a poloxamer including P65, P84, P85, F87, F88, F98 and F127, and a surfactant/emulsifier which is polyethylenglycol-660-12-hydroxystearate, or a blend or mixture thereof, wherein the calcium phosphate comprises macropores and micropores, wherein the macropores are interconnected and the micropores are present in the surface of the macropores.
Rear spoiler device for a vehicle with at least one rear door (8, 9), wherein the rear spoiler device has at least one side spoiler (16, 17) with at least one side air guide element which can be moved between a driving position for contour extension and aerodynamic air guidance when the rear door (8, 9) is closed, and a base position when the rear door (8, 9) is open, wherein the side spoiler (16, 17) has a swing arm with a first pivot joint for pivotable fixing on the rear door (8, 9), the side air guide element is mounted adjustably via the swing arm on the rear door (8, 9), and characterized in that the side air guide element has a locking means on its front end region for releasable and lockable fixing to the truck, wherein the side air guide element is mounted pivotably on the swing arm by means of at least one second pivot joint, wherein the at least one second pivot joint is provided on or between a rear end of the side air guide element and a rear end of the swing arm.
A process for curing an elastomer composition in the presence of oxygen, the process comprising the steps of: A) mixing at least one elastomer which is a saturated ethylene-propylene terpolymer, at least one non-elastomeric polymer comprising at least two different monomers in polymerized form, wherein the elastomer and the copolymer are present in the elastomer composition at a weight ratio from 50:50 to 75:25, and at least one organic peroxide formulation to provide a mixture, wherein the non-elastomeric polymer is saturated or unsaturated, and said polymer does not comprise chlorinated polyethylene or chlorosulfonated polyethylene; and wherein the organic peroxide formulation comprises i) at least one organic peroxide, ii) at least one moiety chosen from bis-, tri- and higher poly-maleimides, bis-, tri- and higher poly-citraconimides, and p-phenylenediamine based antiozonants, and iii) at least one sulfur accelerator; B) curing said mixture in the presence of oxygen. A) mixing at least one elastomer which is a saturated ethylene-propylene terpolymer, at least one non-elastomeric polymer comprising at least two different monomers in polymerized form, wherein the elastomer and the copolymer are present in the elastomer composition at a weight ratio from 50:50 to 75:25, and at least one organic peroxide formulation to provide a mixture, wherein the non-elastomeric polymer is saturated or unsaturated, and said polymer does not comprise chlorinated polyethylene or chlorosulfonated polyethylene; and wherein the organic peroxide formulation comprises i) at least one organic peroxide, ii) at least one moiety chosen from bis-, tri- and higher poly-maleimides, bis-, tri- and higher poly-citraconimides, and p-phenylenediamine based antiozonants, and iii) at least one sulfur accelerator; B) curing said mixture in the presence of oxygen.
A communication control device which is capable of connecting to an access network according to Internet protocol and which controls a terminating call to a mobile station configured to execute registration to an IP multimedia subsystem according to the Internet protocol, wherein the communication control device implements P-CSCF, the communication control device comprising: a bearer state detection unit configured to detect a state of a bearer which is a logical communication path between the mobile station and a gateway device included in the access network; and a terminating call control unit configured to transmit a rejection response to a source making the terminating call when the bearer state detection unit detects loss of the bearer which has been established, the rej ection response rejecting a terminating call to the mobile station, wherein the terminating call control unit cancels the transmission of the rejection response when receiving a signal from the mobile station and re-establishment of the bearer is detected by the bearer state detection unit, the signal being related to an originating call to the IP multimedia subsystem and other than registration to the IP multimedia subsystem. a bearer state detection unit configured to detect a state of a bearer which is a logical communication path between the mobile station and a gateway device included in the access network; and a terminating call control unit configured to transmit a rejection response to a source making the terminating call when the bearer state detection unit detects loss of the bearer which has been established, the rej ection response rejecting a terminating call to the mobile station, wherein the terminating call control unit cancels the transmission of the rejection response when receiving a signal from the mobile station and re-establishment of the bearer is detected by the bearer state detection unit, the signal being related to an originating call to the IP multimedia subsystem and other than registration to the IP multimedia subsystem.
A sanitary napkin having a longitudinal axis defining a longitudinal orientation and longitudinally-oriented side edges, a transverse axis orthogonal to said longitudinal axis, a thickness measured orthogonal to a plane defined by said longitudinal axis and said transverse axis, said sanitary napkin comprising: a facing layer joined to a backsheet, and an absorbent core disposed between said facing layer and said backsheet; said facing layer comprising a plurality of out-of plane deformations, said out-of-plane deformations being a plurality of soft, resilient, rib-like elements, wherein all individual rib-like elements have a length of between 1% and 50% of the length of said sanitary napkin; and said sanitary napkin comprising at least one deep-embossed channel defining an interior portion of said sanitary napkin. a facing layer joined to a backsheet, and an absorbent core disposed between said facing layer and said backsheet; said facing layer comprising a plurality of out-of plane deformations, said out-of-plane deformations being a plurality of soft, resilient, rib-like elements, wherein all individual rib-like elements have a length of between 1% and 50% of the length of said sanitary napkin; and said sanitary napkin comprising at least one deep-embossed channel defining an interior portion of said sanitary napkin.
A method for displaying a predicted path on a vertical profile to operate an aircraft (100, 414, 434), the method comprising: responding to an in-flight event occurring indicative of a turn of the aircraft (100, 414, 434) by predicting a path (412, 432) for the aircraft (100, 414, 434), wherein the event is identified by sensor data that identifies that the aircraft is turning or by a user input that indicates that a turn will begin after a predetermined period of time, wherein the path (412, 432) has a turning section (416, 436) and a straight section (418, 438) after the turning section (416, 436) and wherein the duration and angle of the turning section are identified based on at least one of the particular type of the aircraft, the speed at which the aircraft is travelling and user input; identifying a portion of terrain under the path (412, 432) predicted for the aircraft (100, 414, 434); and displaying a vertical profile view of a terrain including the portion of the terrain under the path (412, 432) predicted for the aircraft (100, 414, 434). responding to an in-flight event occurring indicative of a turn of the aircraft (100, 414, 434) by predicting a path (412, 432) for the aircraft (100, 414, 434), wherein the event is identified by sensor data that identifies that the aircraft is turning or by a user input that indicates that a turn will begin after a predetermined period of time, wherein the path (412, 432) has a turning section (416, 436) and a straight section (418, 438) after the turning section (416, 436) and wherein the duration and angle of the turning section are identified based on at least one of the particular type of the aircraft, the speed at which the aircraft is travelling and user input; identifying a portion of terrain under the path (412, 432) predicted for the aircraft (100, 414, 434); and displaying a vertical profile view of a terrain including the portion of the terrain under the path (412, 432) predicted for the aircraft (100, 414, 434).
A gas turbine engine, comprising: a bearing compartment; a scavenge line coupled to the bearing compartment at a first end (328a-1) of the scavenge line that receives a fluid via the first end (328a-1) of the scavenge line; a fluid pump coupled to the scavenge line at a second end (328a-2) of the scavenge line to receive the fluid; a flow control valve having a variable flow area and disposed in the scavenge line to control flow of the fluid in the scavenge line and the fluid pump; and a seal (210a,b), wherein the seal (210a,b) provides air to the bearing compartment during a steady state condition associated with an operation of the engine; characterised in that the flow control valve includes at least one bypass orifice that provides at least a portion of the fluid through the flow control valve during the steady state condition. a bearing compartment; a scavenge line coupled to the bearing compartment at a first end (328a-1) of the scavenge line that receives a fluid via the first end (328a-1) of the scavenge line; a fluid pump coupled to the scavenge line at a second end (328a-2) of the scavenge line to receive the fluid; a flow control valve having a variable flow area and disposed in the scavenge line to control flow of the fluid in the scavenge line and the fluid pump; and a seal (210a,b), wherein the seal (210a,b) provides air to the bearing compartment during a steady state condition associated with an operation of the engine; characterised in that the flow control valve includes at least one bypass orifice that provides at least a portion of the fluid through the flow control valve during the steady state condition.
Device for separating water for a motor vehicle, with a first water box comprising an inner wall which delimits an inner space, at least one first fresh air inlet opening, in order to let fresh air stream into the inner space, at least one air outlet opening, in order to let air stream out of the inner space, at least one first water exit opening, which serves to discharge water from the inner space, at least one pressure lossy structure (17,18) arranged in the inner space, which effects a pressure loss between the first fresh air inlet opening and the air outlet opening with respect to the air streaming through the inner space, and at least one second fresh air inlet opening, in order to let fresh air stream into the inner space, wherein the second fresh air inlet opening is arranged such air-downstream of the at least one pressure lossy structure (17, 18) that the air, when streaming into the inner space, streams through the second fresh air inlet opening essentially in the direction towards the air outlet opening, characterized in that the device for separating water additionally comprises a second water box which is larger as compared to the first water box, and in the interior of which the first water box is arranged, the second water box comprising an outer wall which delimits a hollow space, wherein the outer wall and the hollow space surround the inner wall and the inner space of the first water box, at least one air entry opening which is arranged in the outer wall and through which air can stream into the hollow space, at least one deflection element which is arranged in the hollow space and which serves to separate water from the air streaming through the hollow space, and at least one second water exit opening which is adapted to discharge water from the hollow space, and that the second fresh air inlet opening connects the inner space of the first water box and the hollow space of the second water box such with each other, that air can stream from the hollow space through the second fresh air inlet opening into the inner space.