mhurhangee/ep-ind-claims huggingface dataset:
A method of authenticating via a computer server, comprising: the computer server receiving via a first communications channel an authentication token from a first authentication client, wherein the authentication token is generated by a hardware token; the computer server determining an authenticity of the authentication token, wherein the authenticity determining comprises the computer server verifying that the authentication token was generated by the hardware token; and in accordance with an outcome of the authenticity determining, the computer server transmitting a payload to a second authentication client via a second communications channel distinct from the first communications channel, wherein the payload transmitting comprises the computer server transmitting a session token to the first authentication client, receiving a payload request comprising the session token from the second authentication client, and transmitting the payload to the second authentication client via the second communications channel in accordance with a correlation between the payload request and the session token, wherein the payload comprises a command for execution by the second authentication client, and wherein the command comprises a form-fill command. the computer server receiving via a first communications channel an authentication token from a first authentication client, wherein the authentication token is generated by a hardware token; the computer server determining an authenticity of the authentication token, wherein the authenticity determining comprises the computer server verifying that the authentication token was generated by the hardware token; and in accordance with an outcome of the authenticity determining, the computer server transmitting a payload to a second authentication client via a second communications channel distinct from the first communications channel, wherein the payload transmitting comprises the computer server transmitting a session token to the first authentication client, receiving a payload request comprising the session token from the second authentication client, and transmitting the payload to the second authentication client via the second communications channel in accordance with a correlation between the payload request and the session token, wherein the payload comprises a command for execution by the second authentication client, and wherein the command comprises a form-fill command.
Electrical energy supply network, in particular island network, comprising a first energy store and a second energy store, wherein the electrical energy supply network comprises an electric machine comprising a first winding system and a second winding system, wherein the first winding system can be electrically connected to the first energy store and wherein the second winding system can be electrically connected to the second energy store, and comprising a balancing device for changing the energy store states of the first energy store and/or of the second energy store, characterized in that the balancing device comprises a balancing controller, wherein an output signal of the balancing controller is coupled to a rotational-speed-dependent output signal of a further controller of the energy supply network and the coupled value is supplied to a control system for energizing the first winding system and/or the second winding system.
A separator element for use in a gas compression system to separate at least a portion of a lubricant from a mixed flow of lubricant and a gas, the separator element configured to be positioned within a separator tank having a lid, the separator element comprising: a housing; a screen supported by the housing and arranged in a substantially cylindrical shape, the screen including a plurality of apertures; a filtering material disposed in a hollow cylindrical space within the screen and supported by the housing; a disk portion formed as part of the housing; a one piece seal member coupled to the disc portion, the seal member having a U-shaped cross section that defines a first leg portion and a second leg portion, the first leg portion configured to define an airtight seal between the disk portion and the lid and the second leg portion configured to define an airtight seal between the disk portion and the separator tank; the separator element being characterised by: a tab portion extending from the seal member; and a metallic grounding element extending through the tab portion being engageable with the disk portion and the lid to provide an electrical connection therebetween. a housing; a screen supported by the housing and arranged in a substantially cylindrical shape, the screen including a plurality of apertures; a filtering material disposed in a hollow cylindrical space within the screen and supported by the housing; a disk portion formed as part of the housing; a one piece seal member coupled to the disc portion, the seal member having a U-shaped cross section that defines a first leg portion and a second leg portion, the first leg portion configured to define an airtight seal between the disk portion and the lid and the second leg portion configured to define an airtight seal between the disk portion and the separator tank; a tab portion extending from the seal member; and a metallic grounding element extending through the tab portion being engageable with the disk portion and the lid to provide an electrical connection therebetween.
A powder spraycoating equipment's powder feed apparatus comprising a dense phase powder pump fitted with at least one feed chamber (12, 14), said at least one feed chamber (12, 14) comprising at one chamber end a powder intake valve (Q1, Q2) and at the opposite chamber end a powder outlet valve (Q3, Q4), said at least one feed chamber (12, 14) being fitted with at least one air exchange aperture (12.3, 14.3), said at least one air exchange aperture (12.3, 14.3) being alternatingly connectable by a first control valve (1.5, 1.6) with a compressed air source or a vacuum source to alternatingly apply compressed conveying air or vacuum to the feed chamber (12, 14), wherein the powder feed apparatus comprises an integral structural block, wherein the at least one feed chamber (12, 14) is constituted in the structural block, and wherein the first control valve (1.5, 1.6), which is connected in fluid communication with the at least one feed chamber (12, 14) for applying compressed conveying air or vacuum, is arranged at the structural block and is directly connected, in fluid communication and by means of ducts constituted in the structural block, to the at least one feed chamber (12, 14), wherein the integral structural block is a structural block made continuously of the same material and without internal interfaces. characterised in that the powder intake valve (Q1, Q2) and the powder outlet valve (Q3, Q4) are configured at the structural block, and wherein third control valves (1.1, 1.2, 1.3, 1.4) are directly connected, in fluid communication and by means of ducts constituted in the structural block, to the powder intake valve (Q1, Q2) and the powder outlet valve (Q3, Q4) for the purpose of applying and evacuating drive air.
A service data processing method for an optical transport network, comprising: encapsulating service data into an optical payload unit; mapping the optical payload unit to an optical channel data unit; mapping the optical channel data unit to a payload area of an optical burst transport unit, wherein the optical burst transport unit is used in an optical burst timeslot switching network; performing electrical-optical conversion on the optical burst transport unit to form an optical burst optical signal; carrying the optical burst optical signal onto an optical timeslot of an optical burst channel; and transmitting the optical burst channel to a line; wherein the mapping the optical channel data unit to a payload area of an optical burst transport unit is specifically: mapping the optical channel data unit, whose signal time length is less than or equal to a frame period of the optical burst transport unit, to the payload area of the optical burst transport unit. encapsulating service data into an optical payload unit; mapping the optical payload unit to an optical channel data unit; mapping the optical channel data unit to a payload area of an optical burst transport unit, wherein the optical burst transport unit is used in an optical burst timeslot switching network; performing electrical-optical conversion on the optical burst transport unit to form an optical burst optical signal; carrying the optical burst optical signal onto an optical timeslot of an optical burst channel; and transmitting the optical burst channel to a line; wherein the mapping the optical channel data unit to a payload area of an optical burst transport unit is specifically: mapping the optical channel data unit, whose signal time length is less than or equal to a frame period of the optical burst transport unit, to the payload area of the optical burst transport unit. mapping the optical channel data unit, whose signal time length is less than or equal to a frame period of the optical burst transport unit, to the payload area of the optical burst transport unit.
A pharmaceutical composition comprising a therapeutically effective amount of a purified peptide and a pharmaceutically acceptable carrier, wherein the purified peptide consists of the amino acid sequence UEQLERALNSS, wherein U is pyroglutamate.
An integrated hydrocarbon recovery system, comprising: a first hydrocarbon recovery reservoir configured to produce a first mixed fluid hydrocarbon mixture; a first hydrocarbon separation unit configured to receive the first mixed fluid hydrocarbon mixture, separate at least liquid hydrocarbons from the first mixed fluid hydrocarbon mixture, and produce a first liquid hydrocarbon stream and a secondary gas stream comprising carbon dioxide and gaseous hydrocarbons; an air separation unit configured to produce a high purity oxygen stream and a high purity nitrogen stream; a gaseous control fuel stream; a combustion unit configured to combust at least the gaseous control fuel stream, the high purity oxygen stream, and a low energy stream to produce a gaseous combustion stream having carbon dioxide and water, wherein the low energy stream comprises from 60 vol% to 95 vol% carbon dioxide; a power generation system configured to receive the gaseous combustion stream having carbon dioxide and water and produce at least water, power, and a compressed gaseous substantially carbon dioxide stream (160, 162), wherein the low energy stream comprises at least a portion of the compressed gaseous substantially carbon dioxide stream and at least a portion of the secondary gas stream; a first injector unit configured to inject at least a portion of the compressed gaseous substantially carbon dioxide stream into an enhanced oil recovery reservoir; and a second injector unit configured to inject at least a portion of the high purity nitrogen stream into a pressure maintenance reservoir. a first hydrocarbon recovery reservoir configured to produce a first mixed fluid hydrocarbon mixture; a first hydrocarbon separation unit configured to receive the first mixed fluid hydrocarbon mixture, separate at least liquid hydrocarbons from the first mixed fluid hydrocarbon mixture, and produce a first liquid hydrocarbon stream and a secondary gas stream comprising carbon dioxide and gaseous hydrocarbons; an air separation unit configured to produce a high purity oxygen stream and a high purity nitrogen stream; a gaseous control fuel stream; a combustion unit configured to combust at least the gaseous control fuel stream, the high purity oxygen stream, and a low energy stream to produce a gaseous combustion stream having carbon dioxide and water, wherein the low energy stream comprises from 60 vol% to 95 vol% carbon dioxide; a power generation system configured to receive the gaseous combustion stream having carbon dioxide and water and produce at least water, power, and a compressed gaseous substantially carbon dioxide stream (160, 162), wherein the low energy stream comprises at least a portion of the compressed gaseous substantially carbon dioxide stream and at least a portion of the secondary gas stream; a first injector unit configured to inject at least a portion of the compressed gaseous substantially carbon dioxide stream into an enhanced oil recovery reservoir; and a second injector unit configured to inject at least a portion of the high purity nitrogen stream into a pressure maintenance reservoir.
An address compression method, wherein the method comprises: receiving (301; 501) multiple operation request messages that are sent by a first processor, wherein each operation request message carries stream number information of a stream to which the operation request message belongs and information about an address at which an operation is performed for the operation request messages, wherein the stream number information is used to identify a source that initiates the operation request message; determining (302; 505), according to an address feature formed by address information carried in all operation request messages that have a same stream number, a compression algorithm corresponding to the operation request messages that have a same stream number; and compressing (303; 506), according to the determined compression algorithm, addresses carried in the operation request messages that have a same stream number. receiving (301; 501) multiple operation request messages that are sent by a first processor, wherein each operation request message carries stream number information of a stream to which the operation request message belongs and information about an address at which an operation is performed for the operation request messages, wherein the stream number information is used to identify a source that initiates the operation request message; determining (302; 505), according to an address feature formed by address information carried in all operation request messages that have a same stream number, a compression algorithm corresponding to the operation request messages that have a same stream number; and compressing (303; 506), according to the determined compression algorithm, addresses carried in the operation request messages that have a same stream number.
An antimicrobial coating comprising: a hydrogel layer comprising a three-dimensional hydrophilic polymer network; and a bioactive agent comprising at least one substantially water-insoluble antimicrobial metallic material that is solubilized within the hydrogel layer so that the water-insoluble antimicrobial metallic material is homogenously dispersed in the antimicrobial coating and remains solubilized within the antimicrobial coating, characterised in that the at least one substantially water-insoluble antimicrobial metallic material is selected from the group consisting of silver halides, silver sulfazines, silver sulfadiazines, silver sulfonamides, silver sulfonylureas, and combinations thereof. a hydrogel layer comprising a three-dimensional hydrophilic polymer network; and a bioactive agent comprising at least one substantially water-insoluble antimicrobial metallic material that is solubilized within the hydrogel layer so that the water-insoluble antimicrobial metallic material is homogenously dispersed in the antimicrobial coating and remains solubilized within the antimicrobial coating, characterised in that the at least one substantially water-insoluble antimicrobial metallic material is selected from the group consisting of silver halides, silver sulfazines, silver sulfadiazines, silver sulfonamides, silver sulfonylureas, and combinations thereof.
A sensor module configured to be worn by a subject, the sensor module comprising: a housing; at least one optical emitter (14, 16, 212, 214) and at least one optical detector (18, 24, 216) supported by the housing; and a stabilizer member (22, 232, 234) movably supported by the housing, wherein the stabilizer member (22, 232, 234) comprises a portion that extends through a first aperture in the housing and that is configured to engage the body of the subject; wherein the at least one optical emitter (14, 16, 212, 214) is configured to direct light through a second aperture in the housing and into the body of the subject via a first optical pathway and to direct light at a portion of the stabilizer member (22, 232, 234) within the housing along a second optical pathway, and wherein the at least one optical detector (18, 24, 216) is configured to detect light from the body of the subject via a third aperture in the housing and generate a first signal comprising subject physiological information; wherein the at least one optical detector (18, 24, 216) is configured to detect light scattered by the stabilizer member (22, 232, 234) and generate a second signal comprising subject motion information; and the sensor module further comprising at least one signal processor configured to process the first and second signals so as to remove motion artifacts from the first signal. a housing; at least one optical emitter (14, 16, 212, 214) and at least one optical detector (18, 24, 216) supported by the housing; and a stabilizer member (22, 232, 234) movably supported by the housing, wherein the stabilizer member (22, 232, 234) comprises a portion that extends through a first aperture in the housing and that is configured to engage the body of the subject; wherein the at least one optical emitter (14, 16, 212, 214) is configured to direct light through a second aperture in the housing and into the body of the subject via a first optical pathway and to direct light at a portion of the stabilizer member (22, 232, 234) within the housing along a second optical pathway, and wherein the at least one optical detector (18, 24, 216) is configured to detect light from the body of the subject via a third aperture in the housing and generate a first signal comprising subject physiological information; wherein the at least one optical detector (18, 24, 216) is configured to detect light scattered by the stabilizer member (22, 232, 234) and generate a second signal comprising subject motion information; and
A reactor for liberating hydrogen from a hydrogen-carrying, liquid compound, comprising a reactor vessel, which contains bodies having a metallic carrier structure, to which a solid, highly porous coating is applied, which contains catalytically acting substances for the liberation of hydrogen from the liquid, hydrogen-carrying compound, wherein the reactor vessel is a tube bundle, which is formed of tubes connected in parallel and of which the individual tubes held at a distance from one another each contain at least one body, around which the hydrogen-carrying compound can flow in the relevant tube and which can be brought to a reaction temperature by means of a heat exchange process between the tube bundle and the surrounding environment thereof, in that an outer surface of the tube bundle can be exposed to a heating medium (11, 12), in a housing that is tight to the heating medium (11, 12) and that has at least one feed opening, a discharge opening, and a feed collection chamber for the heating medium (11, 12), by means of a conducting device for the heating medium (11, 12) outside the tube bundle, and the flow direction of the heating medium (11, 12) can be deflected in the housing, in the region of the tube bundle, such that the flow of the heating medium (11, 12) acts on each of the tubes of the tube bundle over part of the length thereof with a different flow direction, characterised in that the tubes of the tube bundle run vertically and are connected by heat transfer lamellas (13, 13') that are impermeable for a heating gas as heating medium, and penetrate through these lamellas, and the conducting device connects certain heat transfer lamellas outside the tube bundle in a manner reversing the flow direction.
Ball conveyer table system consisting of a ball plate with a support flat at least in sections, wherein recesses through which balls at least partly engage are present in the ball plate, wherein at least one drive motor drives the balls and thus moves an article located on the support, wherein the ball conveyer table system has a gear plate which is arranged below the ball plate and in that rotatably driven gears, which are in frictional contact with the balls and drive them, are arranged on the gear plate, wherein the balls are moved on an end face-side annulus and in that the gears are arranged lying on the gear plate and the annulus end-face sides point in the direction of the ball plate or in the direction of the gear plate, characterised in that the recesses in the ball plate are configured to be at least partly angular, whereby the balls can be guided point-wise on at least one side edge of the recess.
A sheet-type medium separating device, comprising: a pickup roller assembly configured to frictionally convey one sheet of sheet type medium, in contact with the pickup roller assembly, in a whole stack of sheet-type media; a reverse roller assembly configured to block the whole stack of sheet-type media to prevent more than one sheet of the sheet-type media from being frictionally conveyed; and a separating roller assembly arranged opposite to the reverse roller assembly with a clearance passage being formed between the separating roller assembly and the reverse roller assembly and configured to convey a single sheet of the sheet-type media, and the separating roller assembly configured to provide a conveying power for a single sheet of the sheet-type media conveyed frictionally by the pickup roller assembly; wherein the reverse roller assembly comprises a reverse roller, the reverse roller is assembled onto a reverse roller shaft through a one-way bearing, and the reverse roller comprises an inner sleeve fixed to the one-way bearing and a reverse roller jacket (125, 126) sleeved on the inner sleeve and movable axially and elastically, and characterised in that an accommodating groove is provided in an outer surface of the inner sleeve in an axial direction, a protruding strip corresponding to the accommodating groove is provided on an inner surface of the reverse roller jacket, and elastic components are respectively provided at two axial ends of the protruding strip to abut against the protruding strip in the case that the protruding strip is accommodated in the accommodating groove. a pickup roller assembly configured to frictionally convey one sheet of sheet type medium, in contact with the pickup roller assembly, in a whole stack of sheet-type media; a reverse roller assembly configured to block the whole stack of sheet-type media to prevent more than one sheet of the sheet-type media from being frictionally conveyed; and a separating roller assembly arranged opposite to the reverse roller assembly with a clearance passage being formed between the separating roller assembly and the reverse roller assembly and configured to convey a single sheet of the sheet-type media, and the separating roller assembly configured to provide a conveying power for a single sheet of the sheet-type media conveyed frictionally by the pickup roller assembly; wherein the reverse roller assembly comprises a reverse roller, the reverse roller is assembled onto a reverse roller shaft through a one-way bearing, and the reverse roller comprises an inner sleeve fixed to the one-way bearing and a reverse roller jacket (125, 126) sleeved on the inner sleeve and movable axially and elastically, and characterised in that an accommodating groove is provided in an outer surface of the inner sleeve in an axial direction, a protruding strip corresponding to the accommodating groove is provided on an inner surface of the reverse roller jacket, and elastic components are respectively provided at two axial ends of the protruding strip to abut against the protruding strip in the case that the protruding strip is accommodated in the accommodating groove.