mhurhangee/ep-ind-claims huggingface dataset:
A method for acquiring information, the method comprising: Determining (201, 301), in response to receiving an instruction used to indicate to acquire configuration information, for each physical machine of a plurality of physical machines, a set of candidate processes of the physical machine; acquiring a first key value, and determining a target candidate process of the physical machine from the set of candidate processes based on the first key value; acquiring (203, 305) a second key value, and determining, based on the second key value, a target process from a plurality of target candidate processes determined based on the plurality of physical machines; and acquiring (204, 306) the configuration information using the target process; wherein the configuration information comprises at least one of: an operation instruction, an access path of a data source, or data stored in a data source; wherein the determining a set of candidate processes of the physical machine, comprises: acquiring operating status information of a process in the physical machine; and determining, in response to determining that the operating status information satisfies a preset condition, the process corresponding to the operating status information as a process in the set of candidate processes, wherein the preset condition is that operating performance of the process satisfies a preset performance requirement. Determining (201, 301), in response to receiving an instruction used to indicate to acquire configuration information, for each physical machine of a plurality of physical machines, a set of candidate processes of the physical machine; acquiring a first key value, and determining a target candidate process of the physical machine from the set of candidate processes based on the first key value; acquiring (203, 305) a second key value, and determining, based on the second key value, a target process from a plurality of target candidate processes determined based on the plurality of physical machines; and acquiring (204, 306) the configuration information using the target process; wherein the configuration information comprises at least one of: an operation instruction, an access path of a data source, or data stored in a data source; wherein the determining a set of candidate processes of the physical machine, comprises: acquiring operating status information of a process in the physical machine; and determining, in response to determining that the operating status information satisfies a preset condition, the process corresponding to the operating status information as a process in the set of candidate processes, wherein the preset condition is that operating performance of the process satisfies a preset performance requirement. acquiring operating status information of a process in the physical machine; and determining, in response to determining that the operating status information satisfies a preset condition, the process corresponding to the operating status information as a process in the set of candidate processes, wherein the preset condition is that operating performance of the process satisfies a preset performance requirement.
An arrangement for limiting NOx emissions of a supercharged engine that can use gas as fuel., which arrangement comprises an engine control unit, which engine control unit comprises a processing unit for forming control signals for the pilot fuel injectors, and the control unit, is connectable with pilot fuel injectors for controlling pilot fuel injection, characterized in that, the engine control unit further comprises an adjustment unit that is arranged to receive reference data signals and signals from a charge air pressure sensor and also to form an adjustment signal by comparing the reference data signals and said signals from the sensor, which reference signals and signals from the sensor correlate with fluctuation of the NOx emissions, and which adjustment signal is arranged to adjust the control of the pilot fuel injectors to reduce the NOx fluctuation at exhaust gases for limiting the NOx emissions.
A luminaire comprising: a plastic heat sink body that defines a first end, and a second end opposite the first end along a central axis, a first driver cover that at least substantially closes the first end; a driver configured to receive input electrical power from an electrical power source, and output electrical power; a second driver cover attached to the heat sink body, such that the driver is contained between the first driver cover and the second driver cover; and an LED panel including a substrate supported by the heat sink body at a location such that the first driver cover is disposed between the LED panel and the driver, and at least one LED carried by the substrate, wherein the at least one LED is in electrical communication with the driver so as to receive the output electrical power and, in response, produce illumination; and a lens assembly supported by the heat sink body at the second end so as to at least substantially close the second end, such that at least a portion of the illumination passes through the lens assembly and out the luminaire wherein the lens assembly further comprises a diffuser and a bezel that is supported by the heat sink body at the second end, wherein an outer periphery of the diffuser is supported by bezel, and the diffuser is monolithic with the bezel, wherein one of the first driver cover and the lens assembly is monolithic with the heat sink body at a respective one of the first and second ends (32a, 32b), such that the LED panel is configured for insertion into the heat sink body at the other of the first and second ends (32b, 32a). a plastic heat sink body that defines a first end, and a second end opposite the first end along a central axis, a first driver cover that at least substantially closes the first end; a driver configured to receive input electrical power from an electrical power source, and output electrical power; a second driver cover attached to the heat sink body, such that the driver is contained between the first driver cover and the second driver cover; and an LED panel including a substrate supported by the heat sink body at a location such that the first driver cover is disposed between the LED panel and the driver, and at least one LED carried by the substrate, wherein the at least one LED is in electrical communication with the driver so as to receive the output electrical power and, in response, produce illumination; and a lens assembly supported by the heat sink body at the second end so as to at least substantially close the second end, such that at least a portion of the illumination passes through the lens assembly and out the luminaire wherein the lens assembly further comprises a diffuser and a bezel that is supported by the heat sink body at the second end, wherein an outer periphery of the diffuser is supported by bezel, and the diffuser is monolithic with the bezel, wherein one of the first driver cover and the lens assembly is monolithic with the heat sink body at a respective one of the first and second ends (32a, 32b), such that the LED panel is configured for insertion into the heat sink body at the other of the first and second ends (32b, 32a).
A method comprising: determining a size of a transport block based on criteria comprising a size of at least one data block to be transmitted, wherein the transport block size is determined such that the transport block will include at least one segment of a data block of the at least one data block; segmenting the data block of the at least one data block into a plurality of segments comprising the at least one segment, wherein each segment of the plurality of segments comprises a data block identifier, a length value field and an offset value field, wherein the data block identifier comprises an identification of the segmented data block, wherein a length value of the length value field indicates a length of the segment, characterized by an offset value of the offset value field indicates a starting position of the segment relative to the segmented data block; and populating the transport block with at least the at least one segment. determining a size of a transport block based on criteria comprising a size of at least one data block to be transmitted, wherein the transport block size is determined such that the transport block will include at least one segment of a data block of the at least one data block; segmenting the data block of the at least one data block into a plurality of segments comprising the at least one segment, wherein each segment of the plurality of segments comprises a data block identifier, a length value field and an offset value field, wherein the data block identifier comprises an identification of the segmented data block, wherein a length value of the length value field indicates a length of the segment, characterized by an offset value of the offset value field indicates a starting position of the segment relative to the segmented data block; and populating the transport block with at least the at least one segment.
An information interaction method, characterized by comprising: receiving (S110, S210, S310, S410, S510, S610), by an electronic device, a mail-based collaboration request sent by an inviter party based on a target mail, wherein the target mail comprises a plurality of associated mails having same feature information, and the same feature information comprises at least one of: a same subject, a sending time being within a preset time range, a same sender, a same recipient, a reply reference relationship or a forwarding reference relationship; creating (S120, S220, S320, S420), by the electronic device, a collaboration group comprising the inviter party and an invitee party according to the mail-based collaboration request, wherein in the collaboration group, the inviter party and the invitee party are able to perform information interaction, and wherein the information interaction comprises at least one of text interaction, voice interaction, video interaction and collaborative editing; receiving (S230, S330), by the electronic device, an operation instruction for the collaboration group from the inviter party, wherein the operation instruction comprises one of: group disbanding, group attribute setting, group function implementation, privilege revoking during the group disbanding and privilege transfer when a group owner drops out of the group; and performing (S240, S340), by the electronic device, an operation on the collaboration group according to the operation instruction. receiving (S110, S210, S310, S410, S510, S610), by an electronic device, a mail-based collaboration request sent by an inviter party based on a target mail, wherein the target mail comprises a plurality of associated mails having same feature information, and the same feature information comprises at least one of: a same subject, a sending time being within a preset time range, a same sender, a same recipient, a reply reference relationship or a forwarding reference relationship; creating (S120, S220, S320, S420), by the electronic device, a collaboration group comprising the inviter party and an invitee party according to the mail-based collaboration request, wherein in the collaboration group, the inviter party and the invitee party are able to perform information interaction, and wherein the information interaction comprises at least one of text interaction, voice interaction, video interaction and collaborative editing; receiving (S230, S330), by the electronic device, an operation instruction for the collaboration group from the inviter party, wherein the operation instruction comprises one of: group disbanding, group attribute setting, group function implementation, privilege revoking during the group disbanding and privilege transfer when a group owner drops out of the group; and performing (S240, S340), by the electronic device, an operation on the collaboration group according to the operation instruction.
A star, dendrimer or hyper-branched flowable prepolymer composition comprising the reaction product of isocyanate and low molecular weight multifunctional core molecules having three or more functional groups that react with said isocyanate to form urethane or urea groups, wherein the viscosity of the prepolymer composition on preparation is 15,000-200,000 mm 2 /s (cSt) at room temperature, measured as indicated in the specification, and wherein the low molecular weight multifunctional core molecules have a molecular weight of 400 or less.
An electrochemical cell comprising: at least one electrode comprising a magnesium intercalation compound, and an electrolyte comprising a fluorinated imide salt substantially dissolved in an oxidatively stable solvent, wherein the fluorinated imide salt comprises magnesium [bis(trifluoromethanesulfonyl)imide] 2 and the oxidatively stable solvent comprises at least one of acetonitrile or adiponitrile, characterized in that the magnesium intercalation compound comprises a magnesium molybdenum sulfide having a chevrel phase. at least one electrode comprising a magnesium intercalation compound, and an electrolyte comprising a fluorinated imide salt substantially dissolved in an oxidatively stable solvent, wherein the fluorinated imide salt comprises magnesium [bis(trifluoromethanesulfonyl)imide] 2 and the oxidatively stable solvent comprises at least one of acetonitrile or adiponitrile,
An endovascular prosthesis suitable for chimney-grafting, comprising a tubular sheath and framework-stent defining an lumen; the prosthesis comprises, at one end of the sheath, at least one godet formed toward said end so as to form a depression in the lumen, a depression able to mate with a collateral stent, characterized in that the godet is held by default in a folded position in the form of a pleat held by removable fastening means.
Pressure regulator (107, 300, 400, 500, 600, 800, 810, 820, 901, 911) for a fuel supply apparatus, comprising: at least two flow paths (306, 306a, 406, 406a) between a high-pressure space (303, 403, 501) and a low-pressure space (305, 405, 502), the pressure regulator further comprising an electromagnetic device for opening and closing the at least two flow paths (306, 306a, 406, 406a), which includes a magnetic coil (321, 427) and a closure unit (309, 415) for screwing into a housing (301, 401) with a magnetic anchor (323, 428), wherein, in a de-energized and unexcited state of the magnetic coil (321, 427), a sealing surface (327, 430) of the magnetic anchor (323, 428) is supported on a first sealing surface (328, 431) of a one-piece closing body (326, 409) and thus closes a first flow path (306a, 406a) of the at least two flow paths (306, 306a, 406, 406a), and a second sealing surface (332, 433) of said one-piece closure body (326, 409) is supported on a sealing seat (307, 407) in said housing (301, 401) and thus closes a second flow path (306, 406) of said at least two flow paths (306, 306a, 406, 406a), wherein said magnetic coil is controllable and energizable to move said magnetic anchor to unblock one of said at least two flow paths, and characterized in that an increase in energization of the magnetic coil additionally clears a second of the at least two flow paths. at least two flow paths (306, 306a, 406, 406a) between a high-pressure space (303, 403, 501) and a low-pressure space (305, 405, 502), the pressure regulator further comprising an electromagnetic device for opening and closing the at least two flow paths (306, 306a, 406, 406a), which includes a magnetic coil (321, 427) and a closure unit (309, 415) for screwing into a housing (301, 401) with a magnetic anchor (323, 428), wherein, in a de-energized and unexcited state of the magnetic coil (321, 427), a sealing surface (327, 430) of the magnetic anchor (323, 428) is supported on a first sealing surface (328, 431) of a one-piece closing body (326, 409) and thus closes a first flow path (306a, 406a) of the at least two flow paths (306, 306a, 406, 406a), and a second sealing surface (332, 433) of said one-piece closure body (326, 409) is supported on a sealing seat (307, 407) in said housing (301, 401) and thus closes a second flow path (306, 406) of said at least two flow paths (306, 306a, 406, 406a), wherein said magnetic coil is controllable and energizable to move said magnetic anchor to unblock one of said at least two flow paths, and characterized in that an increase in energization of the magnetic coil additionally clears a second of the at least two flow paths.
A three-phase current inverter comprising two three-phase switching units, each unit being formed of three identical switching cells (3h-1, 3h-2, 3h-3; 3l-1, 3l-2, 3l-3), each comprising at least one first electrically-controlled switch in series with at least one second spontaneous conduction switch, wherein the cells of a same unit are arranged, with a symmetry of revolution of order 3, around a conductive central area (53h; 53l; 53; 53'; 53") of a substrate (51l, 51h), defining an input terminal (11, 12) of the three-phase current inverter to which are interconnected the three cells of a same unit; and wherein the cells (3h-1, 3h-2, 3h-3l-3) of the first unit and the cells (3l-2, 3l-3) of the second unit are electrically connected two by two, the interconnecting nodes defining three phase terminal (15, 16, 17).
Magnetic track for a transport device for moving a traveller along the magnetic track, the magnetic track being built up from multiple linear sections each having an even number of magnets of alternating polarity arranged on a support, the polarity of two adjacent magnets of different sections being the same in curved regions of the magnetic track, characterized in that in the curved regions of the magnetic track, V-shaped gaps between the linear sections are filled with ferromagnetic spacers, wherein the spacers comprise a V-shaped ferromagnetic baseplate and a ferromagnetic tooth arranged thereon, which itself is not a magnet.
An apparatus comprising: at least one memory configured to store at least one model, the at least one model associated with manipulated variables and controlled variables, the manipulated variables and the controlled variables associated with multiple sugar dryers (200a, 200b) that are configured to operate using different fuels and that are configured to operate in parallel such that each sugar dryer can process wet material independent of one or more other sugar dryers; and at least one processor configured to determine how to adjust the manipulated variables using the at least one model; wherein the controlled variables include outfall temperatures associated with the sugar dryers; wherein the manipulated variables include rates at which the wet material is provided to the sugar dryers; wherein the at least one processor is configured to control the outfall temperature of each sugar dryer based on the rate at which the wet material is provided to that sugar dryer; and wherein the at least one processor is configured to use an optimization to optimize operation of the sugar dryers based on different costs associated with the different fuels. at least one memory configured to store at least one model, the at least one model associated with manipulated variables and controlled variables, the manipulated variables and the controlled variables associated with multiple sugar dryers (200a, 200b) that are configured to operate using different fuels and that are configured to operate in parallel such that each sugar dryer can process wet material independent of one or more other sugar dryers; and at least one processor configured to determine how to adjust the manipulated variables using the at least one model; wherein the controlled variables include outfall temperatures associated with the sugar dryers; wherein the manipulated variables include rates at which the wet material is provided to the sugar dryers; wherein the at least one processor is configured to control the outfall temperature of each sugar dryer based on the rate at which the wet material is provided to that sugar dryer; and wherein the at least one processor is configured to use an optimization to optimize operation of the sugar dryers based on different costs associated with the different fuels.
A tire comprising: a tread portion for which an intended tire rotational direction is specified, wherein the tread portion comprises block rows composed of blocks circumferentially divided by lateral grooves and arranged circumferentially of the tire, the blocks each have a ground contacting top surface, a first side wall surface located on a heel-side in the intended tire rotational direction of the ground contacting top surface, and a second side wall surface located on a toe-side in the intended tire rotational direction of the ground contacting top surface, the first side wall surface and the second side wall surface are both inclined so that the distance therebetween measured in parallel with the ground contacting top surface becomes decreased toward the radially outside of the tire, and in a cross section of each of the blocks which cross section is parallel with the tire equatorial plane, an angle θ2 with respect to a tire radial direction of the second side wall surface is larger than an angle θ1 with respect to a tire radial direction of the first side wall surface, the angle difference θ2-θ1 between said angle θ2 and said angle θ1 increases toward one side in the tire axial direction, and the block rows include axially outermost shoulder block rows composed of shoulder blocks circumferentially divided by shoulder lateral grooves, and axially inner middle block rows composed of middle blocks circumferentially divided by middle lateral grooves and arranged between the shoulder block rows, characterized in that the groove volume of the shoulder lateral grooves is larger than the groove volume of the middle lateral grooves. a tread portion for which an intended tire rotational direction is specified, wherein the tread portion comprises block rows composed of blocks circumferentially divided by lateral grooves and arranged circumferentially of the tire, the blocks each have a ground contacting top surface, a first side wall surface located on a heel-side in the intended tire rotational direction of the ground contacting top surface, and a second side wall surface located on a toe-side in the intended tire rotational direction of the ground contacting top surface, the first side wall surface and the second side wall surface are both inclined so that the distance therebetween measured in parallel with the ground contacting top surface becomes decreased toward the radially outside of the tire, and in a cross section of each of the blocks which cross section is parallel with the tire equatorial plane, an angle θ2 with respect to a tire radial direction of the second side wall surface is larger than an angle θ1 with respect to a tire radial direction of the first side wall surface, the angle difference θ2-θ1 between said angle θ2 and said angle θ1 increases toward one side in the tire axial direction, and the block rows include axially outermost shoulder block rows composed of shoulder blocks circumferentially divided by shoulder lateral grooves, and axially inner middle block rows composed of middle blocks circumferentially divided by middle lateral grooves and arranged between the shoulder block rows,