mhurhangee/ep-ind-claims huggingface dataset:
A system for business process automation, the system comprising; a connect manager configured to register and manage connect information objects for coordination between the system and at least one service module, wherein the connect information objects comprise application programming interface, API, information for services provided by the at least one service module; a process execution engine configured to execute a target business process comprising a particular service task, which is a task using a particular service provided by the service module; and a connect broker configured to acquire the API information for the particular service, registered through the connect manager, during execution of the target business process in response to a request from the process execution engine, and process the particular service task by sending a request for the particular service to the service module using the acquired API information, wherein the connect manager manages the API information for the particular service using a management identifier, ID, assigned to a connect information object mapped to the particular service, the connect broker acquires the API information for the particular service using the management ID, and the management ID of the particular service is not changed when the API information for the particular service changes. a connect manager configured to register and manage connect information objects for coordination between the system and at least one service module, wherein the connect information objects comprise application programming interface, API, information for services provided by the at least one service module; a process execution engine configured to execute a target business process comprising a particular service task, which is a task using a particular service provided by the service module; and a connect broker configured to acquire the API information for the particular service, registered through the connect manager, during execution of the target business process in response to a request from the process execution engine, and process the particular service task by sending a request for the particular service to the service module using the acquired API information, wherein the connect manager manages the API information for the particular service using a management identifier, ID, assigned to a connect information object mapped to the particular service, the connect broker acquires the API information for the particular service using the management ID, and the management ID of the particular service is not changed when the API information for the particular service changes.
An optical zoom camera module, comprising: at least two camera module components (100, 200, 300) and a glue material (410, 420) located between the at least two camera module components; wherein each of the at least two camera module components has at least one lens group, and each of the lens groups includes at least one lens, and all of the lens groups of the at least two camera module components together constitute an imageable optical system, and at least two of the lens groups are a movable lens group, and the at least two movable lens groups are respectively fixed with different motor carriers (220, 230), so as to move separately under the driving of a motor; wherein, the cured glue material fixes and supports the at least two camera module components, so that relative positions of the at least two camera module components are maintained at relative positions determined by an active alignment, wherein the active alignment adjusts the relative position of the at least two camera module components based on an actual imaging result of the optical system; wherein the at least two camera module components include a first camera module component, wherein first camera module component includes a first lens group having an upper subgroup of first lens group and a lower subgroup of first lens group; characterized in that the glue material includes the first glue material, and the first glue material is located between the upper subgroup of first lens group and the lower subgroup of first lens group, and the cured first glue material fixes and supports the upper subgroup of first lens group and the lower subgroup of first lens group, so that relative positions of the two are maintained at the relative positions determined by the active alignment. wherein, the cured glue material fixes and supports the at least two camera module components, so that relative positions of the at least two camera module components are maintained at relative positions determined by an active alignment, wherein the active alignment adjusts the relative position of the at least two camera module components based on an actual imaging result of the optical system; wherein the at least two camera module components include a first camera module component, wherein first camera module component includes a first lens group having an upper subgroup of first lens group and a lower subgroup of first lens group; characterized in that the glue material includes the first glue material, and the first glue material is located between the upper subgroup of first lens group and the lower subgroup of first lens group, and the cured first glue material fixes and supports the upper subgroup of first lens group and the lower subgroup of first lens group, so that relative positions of the two are maintained at the relative positions determined by the active alignment.
An electronic device, in particular electronic circuit or electronic module, having at least one metal insulating layer substrate consisting of at least one insulating layer and at least one first metallization on a surface side of the insulating layer, the first metallization of which is structured to form metal regions (4.1, 4.2), the metal regions being connected to the insulating layer by means of DCB bonding, and having at least one electrical or electronic component generating heat loss at a first metal region (4.2) of the first metallization, the first metal region (4.2) consisting of a sub-region (4.2.1) having a layer thickness D, to which the component is at least thermally connected, and a sub-region having a smaller layer thickness d, which at least partially surrounds the sub-region having the layer thickness D, the first metal region being formed in one piece and including these subregions, the difference (b) in the layer thicknesses (D, d) being at least equal to or greater than half the layer thickness (d) which the first metal region (4.2) has outside the sub-region (4.2.1) having the layer thickness D, the distance, which the component has from an edge of the sub-region (4.2.1) having the layer thickness D, being equal to or greater than the difference (b) in the layer thicknesses (D, d), wherein in addition to the at least one first metal region (4.2) the first metallization has at least one second structured metal region (4.1) whose layer thickness is smaller than the layer thickness of the sub-region (4.2.1) having the layer thickness D or whose layer thickness is equal to the layer thickness (d) which the at least one first metal region (4.2.1) has outside the sub-region (4.2.1) having the layer thickness D, wherein the structured first metallization forms a sub-region having the layer thickness D only below the respective power component and at a distance a1 around the power component, wherein a lower metallization has a layer thickness which substantially corresponds to the layer thickness (d) in the sub-region having the layer thickness d.
A signal sampler, comprising: a column III-V semiconductor having formed therein a plurality of N, where N is an integer, transistor switches (26a-d) coupled to a common input of the sampler fed by a signal, each one of the plurality of N switches (26a-d) taking samples of the signal in response to a train of sampling signals fed to each one of the switches (26a-d); a column IV semiconductor having analog signal processing circuitry and a generator for generating a plurality of N trains of the sampling signals, each one of the plurality of N trains of sampling signals being fed to a corresponding one of the N switches (26a-d); wherein each one of the N trains of sampling signals is generated with a period T and a duty cycle T/N, the n-th train of sampling signals being delayed by a time equal to T/N with respect to the (n-1)th train of sampling signals, where n = 2,..., N. a column III-V semiconductor having formed therein a plurality of N, where N is an integer, transistor switches (26a-d) coupled to a common input of the sampler fed by a signal, each one of the plurality of N switches (26a-d) taking samples of the signal in response to a train of sampling signals fed to each one of the switches (26a-d); a column IV semiconductor having analog signal processing circuitry and a generator for generating a plurality of N trains of the sampling signals, each one of the plurality of N trains of sampling signals being fed to a corresponding one of the N switches (26a-d); wherein each one of the N trains of sampling signals is generated with a period T and a duty cycle T/N, the n-th train of sampling signals being delayed by a time equal to T/N with respect to the (n-1)th train of sampling signals, where n = 2,..., N.
Dispenser for spray delivery of a preparation, comprising: - a reservoir suitable for housing the preparation; - a pump - a load chamber - a nozzle having a delivery axis - a delivery cone having an axis ( X') wherein the pump is suitable, at each operation: - for drawing a predetermined quantity of preparation from the reservoir, - for supplying such quantity of preparation to the load chamber upstream the nozzle, and - for creating a delivery pressure in the load chamber, and wherein the nozzle is suitable for delivering said quantity of preparation in the form of an aerosol spray, wherein the delivery cone comprises a contact rim and, in the proximity of the nozzle, at least one through hole suitable for putting into communication the inside of the delivery cone with the surrounding environment, characterized in that the at least one through hole is positioned within 20% of the distance l between the nozzle and the contact rim. - a reservoir suitable for housing the preparation; - a pump - a load chamber - a nozzle having a delivery axis - a delivery cone having an axis ( X') - for drawing a predetermined quantity of preparation from the reservoir, - for supplying such quantity of preparation to the load chamber upstream the nozzle, and - for creating a delivery pressure in the load chamber,
Process for producing 2-propyl-1-heptanol comprising the steps of: a) providing an input mixture containing at least cis-2-butene and/or trans-2-butene; b) treating the input mixture with carbon monoxide and hydrogen in the presence of a homogeneous catalyst system comprising rhodium and at least one organophosphorus compound as a ligand at a temperature between 110°C and 150°C and a pressure between 10*10 5 Pa and 30*10 5 Pa to perform a hydroformylation to obtain a first reaction mixture containing at least n-pentanal and isopentanal; c) obtaining an aldehyde fraction containing n-pentanal and isopentanal from the first reaction mixture; d) subjecting the aldehyde fraction to an aldol condensation in the presence of an aqueous base to obtain a second reaction mixture comprising an aqueous phase and an organic phase, wherein the organic phase contains at least 2-propylhept-2-enal; e) separating the organic phase from the aqueous phase; f) treating the organic phase with hydrogen in the presence of a heterogeneous catalyst to perform a hydrogenation to obtain a third reaction mixture containing at least 2-propyl-1-heptanol; g) obtaining a target fraction containing 2-propyl-1-heptanol from the third reaction mixture; wherein the improvement consists in the homogeneous catalyst system comprising at least the organophosphorus compound according to formula as a ligand: a) providing an input mixture containing at least cis-2-butene and/or trans-2-butene; b) treating the input mixture with carbon monoxide and hydrogen in the presence of a homogeneous catalyst system comprising rhodium and at least one organophosphorus compound as a ligand at a temperature between 110°C and 150°C and a pressure between 10*10 5 Pa and 30*10 5 Pa to perform a hydroformylation to obtain a first reaction mixture containing at least n-pentanal and isopentanal; c) obtaining an aldehyde fraction containing n-pentanal and isopentanal from the first reaction mixture; d) subjecting the aldehyde fraction to an aldol condensation in the presence of an aqueous base to obtain a second reaction mixture comprising an aqueous phase and an organic phase, wherein the organic phase contains at least 2-propylhept-2-enal; e) separating the organic phase from the aqueous phase; f) treating the organic phase with hydrogen in the presence of a heterogeneous catalyst to perform a hydrogenation to obtain a third reaction mixture containing at least 2-propyl-1-heptanol; g) obtaining a target fraction containing 2-propyl-1-heptanol from the third reaction mixture;
A fiber waviness detection method for conductive composite materials used to detect waviness of conductive fibers of conductive fiber woven fabrics constituting a conductive composite material composed by laminating a plurality of prepregs (S 1 ∼ S n) prepared by impregnating the conductive fiber woven fabrics with resin, wherein a pair of electrodes (11, 12) is connected to the conductive composite material, in order to apply an AC electric current to the conductive composite material in the direction of conductive fibers of the conductive fiber woven fabrics of a plurality of prepregs (S 1 ∼ S n) as targets for verification of the presence or absence of waviness, among the plurality of prepregs (S 1 ∼ S n) constituting the conductive composite material, and then a magnetic field detection means is scanned relative to the conductive composite material, while applying an AC electric current between the pair of electrodes (11, 12), wherein the magneto-sensitive axis of the magnetic field detection means is oriented either in parallel or orthogonal to the orientation of the conductive fibers, to determine a portion of the conductive composite material where a magnetic field variation is detected by the scanning of the magnetic field detection means as a portion where waviness is present in the conductive fibers of the conductive fiber woven fabrics of the plurality of prepregs (S 1 ∼ S n) as targets for verification of the presence or absence of waviness.
A steam cycle system for use with a gas turbine, the steam cycle system comprising: a heat recovery steam generator (HRSG) configured to receive exhaust gases; a steam turbine fluidly coupled to the HRSG and configured to receive a first steam flow generated by the HRSG; a condenser configured to condense a second steam flow output by the steam turbine, wherein the condenser comprises a plurality of heat exchanger tubes, a fan, and a steam collection header; one or more sensors configured to measure one or more properties of the steam flow; a closed-loop controller communicatively coupled to the one or more sensors, characterized in that the controller is configured to: receive data from the one or more sensors; determine a flow rate of the second steam flow through the steam header using the one or more sensors; calculate whether the flow rate of the steam is within a threshold; and adjust one or more operating parameters of the fan based at least in part on the flow rate of the steam; the threshold being based in part on a load of a gas turbine. a heat recovery steam generator (HRSG) configured to receive exhaust gases; a steam turbine fluidly coupled to the HRSG and configured to receive a first steam flow generated by the HRSG; a condenser configured to condense a second steam flow output by the steam turbine, wherein the condenser comprises a plurality of heat exchanger tubes, a fan, and a steam collection header; one or more sensors configured to measure one or more properties of the steam flow; a closed-loop controller communicatively coupled to the one or more sensors, characterized in that the controller is configured to: receive data from the one or more sensors; determine a flow rate of the second steam flow through the steam header using the one or more sensors; calculate whether the flow rate of the steam is within a threshold; and adjust one or more operating parameters of the fan based at least in part on the flow rate of the steam; the threshold being based in part on a load of a gas turbine. receive data from the one or more sensors; determine a flow rate of the second steam flow through the steam header using the one or more sensors; calculate whether the flow rate of the steam is within a threshold; and adjust one or more operating parameters of the fan based at least in part on the flow rate of the steam; the threshold being based in part on a load of a gas turbine.
A low vibration collar system (300; 600) for vibration mitigation, said collar system being arranged to attach an ancillary device (310, 610) to a marine seismic streamer (201; 301; 601) towed underwater by a seismic vessel, the streamer comprising a plurality of sensors to record seismic data, said collar system comprising: a clamp (302; 602) attached to the marine seismic streamer (201; 301; 601); a collar (320; 620) configured to be attached to the clamp (302, 502, 602); and a connecting mechanism located on the collar (320; 620) and configured to attach the ancillary device (310, 610) to the collar (320, 620); wherein said collar system (300; 600) further comprises a vibration mitigation system (325; 625) configured to attenuate an amplitude of a vibration produced by the ancillary device which interferes with seismic data recorded by seismic sensors located on the streamer, characterized in that said vibration mitigation system (325; 625) including a suspension mechanism (330; 630) located between the clamp (302; 602) and the collar (320; 620) and having a series of flexible beams spaced around a circumference of the streamer, wherein the collar moves independent of the clamp due to the suspension mechanism. a clamp (302; 602) attached to the marine seismic streamer (201; 301; 601); a collar (320; 620) configured to be attached to the clamp (302, 502, 602); and a connecting mechanism located on the collar (320; 620) and configured to attach the ancillary device (310, 610) to the collar (320, 620); wherein said collar system (300; 600) further comprises a vibration mitigation system (325; 625) configured to attenuate an amplitude of a vibration produced by the ancillary device which interferes with seismic data recorded by seismic sensors located on the streamer, characterized in that said vibration mitigation system (325; 625) including a suspension mechanism (330; 630) located between the clamp (302; 602) and the collar (320; 620) and having a series of flexible beams spaced around a circumference of the streamer, wherein the collar moves independent of the clamp due to the suspension mechanism.
An electrode wire for electro-discharge machining, the electrode wire comprising: a core wire including a first metal; a first alloy layer formed at a boundary region between the core wire and a second metal plated on an outer surface of the core wire due to mutual diffusion between the core wire and the second metal; and a second alloy layer formed at an outer portion of the first alloy layer due to diffusion of the first metal to the second metal, wherein a core wire material is erupted onto a surface of the electrode wire for electro-discharge machining, which includes at least the core wire, the first alloy layer, and the second alloy layer, along cracks appearing on the second alloy layer, so that a plurality of grains are formed on the surface of the electrode wire, and wherein the grain including at least the core wire material and a second alloy material is distributed onto the surface of the electrode wire for electro-discharge machining. characterized in that the grain including the core wire material is arranged in a direction substantially perpendicular to a longitudinal direction of the electrode wire for electro-discharge machining, and has a length twice to ten times greater than a width of the grain. a core wire including a first metal; a first alloy layer formed at a boundary region between the core wire and a second metal plated on an outer surface of the core wire due to mutual diffusion between the core wire and the second metal; and a second alloy layer formed at an outer portion of the first alloy layer due to diffusion of the first metal to the second metal, wherein a core wire material is erupted onto a surface of the electrode wire for electro-discharge machining, which includes at least the core wire, the first alloy layer, and the second alloy layer, along cracks appearing on the second alloy layer, so that a plurality of grains are formed on the surface of the electrode wire, and wherein the grain including at least the core wire material and a second alloy material is distributed onto the surface of the electrode wire for electro-discharge machining. characterized in that the grain including the core wire material is arranged in a direction substantially perpendicular to a longitudinal direction of the electrode wire for electro-discharge machining, and has a length twice to ten times greater than a width of the grain.