mhurhangee/ep-ind-claims huggingface dataset:
A power and data connectivity micro grid, comprising: a local power supply; a first power sourcing equipment device having a first power port, a second power port, a first data port and a second data port, the first power sourcing equipment device coupled to the local power supply and configured to deliver respective direct current, DC, power signals to the first power port and the second power port; a first remote distribution node; a second remote distribution node; a first splice enclosure having a power input port, a data input port, a power tap port, a data tap port, a power output port and a data output port; a second splice enclosure having a power input port, a data input port, a power tap port, a data tap port, a power output port and a data output port; a first composite power-data cable coupled between the first power port and the first data port of the first power sourcing equipment device and the power input port and the data input port of the first splice enclosure; and a second composite power-data cable coupled between the second power port and the second data port of the first power sourcing equipment device and the power input port and the data input port of the second splice enclosure; wherein the power tap port and the data tap port of the first splice enclosure are coupled to a power input port and a data input port of the first remote distribution node, respectively, and wherein the power tap port and the data tap port of the second splice enclosure are coupled to a power input port and a data input port of the second remote distribution node, respectively. a local power supply; a first power sourcing equipment device having a first power port, a second power port, a first data port and a second data port, the first power sourcing equipment device coupled to the local power supply and configured to deliver respective direct current, DC, power signals to the first power port and the second power port; a first remote distribution node; a second remote distribution node; a first splice enclosure having a power input port, a data input port, a power tap port, a data tap port, a power output port and a data output port; a second splice enclosure having a power input port, a data input port, a power tap port, a data tap port, a power output port and a data output port; a first composite power-data cable coupled between the first power port and the first data port of the first power sourcing equipment device and the power input port and the data input port of the first splice enclosure; and a second composite power-data cable coupled between the second power port and the second data port of the first power sourcing equipment device and the power input port and the data input port of the second splice enclosure; wherein the power tap port and the data tap port of the first splice enclosure are coupled to a power input port and a data input port of the first remote distribution node, respectively, and wherein the power tap port and the data tap port of the second splice enclosure are coupled to a power input port and a data input port of the second remote distribution node, respectively.
Vehicle comprising a frame comprising a rebate defining a lateral passage whose access is on dock through a lateral gate and a rechargeable battery coupled to an electrical cable comprising an electrical socket intended to be connected to an external power supply socket, said frame also comprising an internal housing communicating with the outside through an opening defined in said rebate and housing at least a part of said electrical cable with its electrical socket in a row position while allowing its extraction with a view to connecting said electrical socket to said power supply socket, characterised in that said internal housing is defined below a recess of said structure, defined partially in said rebate, partially masked by an actuating handle of said side door when the latter is closed, and allowing the passage of said electrical cable, closed side door, when said electrical socket is connected to said power supply socket.
A method for implementing an incentivized-based intrusion detection system, comprising: configuring a repository in a digital environment; identifying an asset available when accessing the repository by one or more devices; generating a smart contract associated with the asset deployed in the repository, the smart contract associated with the asset based on metadata in the asset; deploying the smart contract on a distributed ledger system; obtaining at least a portion of the metadata to initiate the smart contract to provide an incentive associated with the asset based on accessing of the repository; detecting an intrusion of the digital environment based on the smart contract being triggered. configuring a repository in a digital environment; identifying an asset available when accessing the repository by one or more devices; generating a smart contract associated with the asset deployed in the repository, the smart contract associated with the asset based on metadata in the asset; deploying the smart contract on a distributed ledger system; obtaining at least a portion of the metadata to initiate the smart contract to provide an incentive associated with the asset based on accessing of the repository; detecting an intrusion of the digital environment based on the smart contract being triggered.
A method to couple fluid-flow model (102, 302) and geomechanical model (104, 308) for integrated petroleum systems, comprising: analyzing historical data associated with a reservoir to determine one or more triggering events that trigger abrupt changes exceeding a change threshold in a state of stress of the reservoir solid framework and/or in pore pressure; defining one or more time steps of coupling or tighter coupling based on the determined triggering events; coupling or tighter coupling, by a processor, the fluid-flow model (102, 302) and the geomechanical model (104, 308) at the one or more defined time steps of coupling while keeping uncoupled or looser coupled the fluid-flow model (102, 302) and the geomechanical model (104, 308) in the remaining time steps; and calculating automatically a number of iterations for the coupling or tighter coupling to converge. analyzing historical data associated with a reservoir to determine one or more triggering events that trigger abrupt changes exceeding a change threshold in a state of stress of the reservoir solid framework and/or in pore pressure; defining one or more time steps of coupling or tighter coupling based on the determined triggering events; coupling or tighter coupling, by a processor, the fluid-flow model (102, 302) and the geomechanical model (104, 308) at the one or more defined time steps of coupling while keeping uncoupled or looser coupled the fluid-flow model (102, 302) and the geomechanical model (104, 308) in the remaining time steps; and calculating automatically a number of iterations for the coupling or tighter coupling to converge.
A method for gaining access to a communication medium in a carrier sense multiple access contention-based network, said method comprising: determining a slot count, C 0, based on a number of stations in an address queue in said contention-based network, wherein said slot count is greater than or equal to said number of stations, said slot count being set greater than said number of stations in order to accommodate a priority scheme; adjusting said slot count by one of incrementing said slot count and decrementing said slot count; initiating a frame transmission when said slot count reaches a predetermined value; calibrating said slot count upon completion of said frame transmission, said calibration being accomplished by using slot(i) = (seq(i) - seq (j)) mod (C 1) where seq(i) and seq(j) denote a relative position of addresses of station i and station j in an address sequence and where C 1 is the slot count for a station to start a new backoff round; and wherein a station address of a station is inserted into said address queue multiple times responsive to a priority of said station and wherein said station whose address is in said address queue multiple times has an increased priority, wherein said priority is one of a station priority and a traffic priority, said increased priority allows said station multiple opportunities for frame transmissions in a backoff round. determining a slot count, C 0, based on a number of stations in an address queue in said contention-based network, wherein said slot count is greater than or equal to said number of stations, said slot count being set greater than said number of stations in order to accommodate a priority scheme; adjusting said slot count by one of incrementing said slot count and decrementing said slot count; initiating a frame transmission when said slot count reaches a predetermined value; calibrating said slot count upon completion of said frame transmission, said calibration being accomplished by using slot(i) = (seq(i) - seq (j)) mod (C 1) where seq(i) and seq(j) denote a relative position of addresses of station i and station j in an address sequence and where C 1 is the slot count for a station to start a new backoff round; and wherein a station address of a station is inserted into said address queue multiple times responsive to a priority of said station and wherein said station whose address is in said address queue multiple times has an increased priority, wherein said priority is one of a station priority and a traffic priority, said increased priority allows said station multiple opportunities for frame transmissions in a backoff round.
Cylinder for a piston type air compressor, wherein - a cavity is defined in a cylinder block of the cylinder, - a liner is attached to an inner sidewall of the cavity, - the liner is securely bonded to the inner sidewall, and - the liner defines a compression cavity of the air compressor, characterized in that - the liner is a deep drawn tube made of aluminum or aluminum alloy, and - the cylinder is formed by zinc or zinc alloy and is die-cast with the liner. - a cavity is defined in a cylinder block of the cylinder, - a liner is attached to an inner sidewall of the cavity, - the liner is securely bonded to the inner sidewall, and - the liner defines a compression cavity of the air compressor, characterized in that - the liner is a deep drawn tube made of aluminum or aluminum alloy, and - the cylinder is formed by zinc or zinc alloy and is die-cast with the liner.
A method for allocating a User Equipment, UE, identifier, characterized by comprising: allocating, by a preset function entity or module, a UE Identification, UE ID; wherein the UE ID is associated with an identifier of a UE in a radio network system and used for information interaction between a network device and the preset function entity or module, the identifier of the UE in the radio network system comprises any UE ID or identifier defined in a 3th-Generation, 3G, network system, a 4th-Generation, 4G, network system, a 5th-Generation, 5G, network system and subsequent generations of network systems, wherein the identifier of the UE in the radio network system is changed according to a change of the radio network system; wherein the preset function entity or module at least comprises at least one of: a near Real Time Radio Intelligent Controller, nRT RIC, or a non Real Time Radio Intelligent Controller, NRT RIC. allocating, by a preset function entity or module, a UE Identification, UE ID; wherein the UE ID is associated with an identifier of a UE in a radio network system and used for information interaction between a network device and the preset function entity or module, the identifier of the UE in the radio network system comprises any UE ID or identifier defined in a 3th-Generation, 3G, network system, a 4th-Generation, 4G, network system, a 5th-Generation, 5G, network system and subsequent generations of network systems, wherein the identifier of the UE in the radio network system is changed according to a change of the radio network system; wherein the preset function entity or module at least comprises at least one of: a near Real Time Radio Intelligent Controller, nRT RIC, or a non Real Time Radio Intelligent Controller, NRT RIC. a near Real Time Radio Intelligent Controller, nRT RIC, or a non Real Time Radio Intelligent Controller, NRT RIC.
A termination circuit comprising: a pMOS transistor configured to have a source connected with a signal terminal outputting or inputting a transmission signal (RF, RFOUT), a drain connected with a grounding line, and a gate receiving a control signal that enables a characteristic impedance matching function by turning on the pMOS transistor, or disables the characteristic impedance matching function by turning off the pMOS transistor; and an inductor (L1a) and a capacitor (C1, C2a) configured to be connected with the signal terminal for matching characteristic impedance, wherein an on-resistance between the source and the drain of the pMOS transistor, generated when the pMOS transistor is turned on, implements a state equivalent to a state where a termination resistor is connected with an output terminal of the termination circuit, without actually connecting the termination resistor with the output terminal. a pMOS transistor configured to have a source connected with a signal terminal outputting or inputting a transmission signal (RF, RFOUT), a drain connected with a grounding line, and a gate receiving a control signal that enables a characteristic impedance matching function by turning on the pMOS transistor, or disables the characteristic impedance matching function by turning off the pMOS transistor; and an inductor (L1a) and a capacitor (C1, C2a) configured to be connected with the signal terminal for matching characteristic impedance, wherein an on-resistance between the source and the drain of the pMOS transistor, generated when the pMOS transistor is turned on, implements a state equivalent to a state where a termination resistor is connected with an output terminal of the termination circuit, without actually connecting the termination resistor with the output terminal.
A light emitting device comprising: a light emitting structure including a first semiconductor layer, an active layer, and a second semiconductor layer; a first electrode on the first semiconductor layer; and a second electrode on the second semiconductor layer, wherein a top surface of the second semiconductor layer includes a first roughness structure, and characterized in that said light emitting device comprises a nano-tube layer including carbon nano tubes on a top surface of the second semiconductor layer and wherein the nano-tube layer has a pattern according to the shape of the first roughness structure of the second semiconductor layer. a light emitting structure including a first semiconductor layer, an active layer, and a second semiconductor layer; a first electrode on the first semiconductor layer; and a second electrode on the second semiconductor layer,
A reinforced transformer core frame, comprising: a transformer core frame; and a reinforcement structure (31, 32), characterised in that the reinforcement structure comprises one or several reinforcement panels (31, 32) comprising a honeycomb structure and affixed to the transformer core frame. a transformer core frame; and a reinforcement structure (31, 32), characterised in that the reinforcement structure comprises one or several reinforcement panels (31, 32) comprising a honeycomb structure and affixed to the transformer core frame.
A method of conveying feedback reports in a single subframe from a data receiving party for data received in multiple subframes from a data sending party in a wireless connection, wherein each feedback report includes an ACK message, indicating that data sent in a subframe was correctly received, or a NACK message, indicating that data sent in a subframe was not correctly received, comprising the following steps executed by the data receiving party: - obtaining allocation information about a plurality of feedback resources available for transmitting feedback reports, wherein said feedback resources are associated with different feedback information codes that the data receiving party can use to convey implicit feedback information on received data, wherein such feedback information code indicates in a predetermined manner whether data has been received successfully or not, - selecting a feedback resource (FR 2) from the obtained feedback resources, which is assigned to a feedback information code that corresponds to one or more feedback reports on said received data, and - sending explicit feedback information on the selected feedback resource to the data sending party, such that the selected feedback resource indicates the implicit feedback information. - obtaining allocation information about a plurality of feedback resources available for transmitting feedback reports, wherein said feedback resources are associated with different feedback information codes that the data receiving party can use to convey implicit feedback information on received data, wherein such feedback information code indicates in a predetermined manner whether data has been received successfully or not, - selecting a feedback resource (FR 2) from the obtained feedback resources, which is assigned to a feedback information code that corresponds to one or more feedback reports on said received data, and - sending explicit feedback information on the selected feedback resource to the data sending party, such that the selected feedback resource indicates the implicit feedback information.
A process for producing food ice, comprising the following steps of: A. storing a predetermined quantity of water in the liquid state within a first tank having a first predetermined volume; B. passing the water contained in the first tank at least through at least one reverse osmosis membrane to reduce the electrical conductivity of the water and transferring the treated water to a second tank; C. adding hydrogen peroxide to the second tank and mixing it as a disinfectant with the treated water from step B to a predetermined hydrogen peroxide concentration in ice; D. at least partially freezing the mixture from step C for producing first ice elements; E. recycling the water formed in step D. to step C. A. storing a predetermined quantity of water in the liquid state within a first tank having a first predetermined volume; B. passing the water contained in the first tank at least through at least one reverse osmosis membrane to reduce the electrical conductivity of the water and transferring the treated water to a second tank; C. adding hydrogen peroxide to the second tank and mixing it as a disinfectant with the treated water from step B to a predetermined hydrogen peroxide concentration in ice; D. at least partially freezing the mixture from step C for producing first ice elements; E. recycling the water formed in step D. to step C.
A cooling device comprising a body, wherein foods and beverages are placed, a door that separates the body from the outer environment so as providing sealing and that allows access to the inside, a crisper disposed into the body, a cover disposed on the crisper that separates the crisper from the inner volume of the body, a lid that located between the cover and the crisper, covers top of the crisper, a plurality of small holes allowing the air that comes from a cold air blow opening to enter into the crisper, disposed on the lid and one or more outlets allowing the exit of the air from the crisper, the lid closed onto the crisper such that it will allow air intake into the crisper only from the holes and no air leakage will occur from its edges, characterized by- more than one funnel, one end of which opens into the crisper and the other end opens to the outside of the crisper into the inner volume of the body, the funnels being disposed into the volume between the cover and the lid such that the funnels will not hinder the air passing through this volume, the funnels providing the air in the crisper to be evacuated out of the crisper and - channels located between the funnels, through which the air coming from the top of the lid passes. - channels located between the funnels, through which the air coming from the top of the lid passes.
A hernia repair device, comprising: a mesh configured to extend across a tissue defect; and a plurality of filaments extending from a central portion of the mesh, each filament including a plurality of barbs disposed along at least a portion of the length thereof and having a needle disposed at a free end thereof, characterised in that the plurality of filaments are coupled to the mesh in proximity of an outer periphery thereof. a mesh configured to extend across a tissue defect; and a plurality of filaments extending from a central portion of the mesh, each filament including a plurality of barbs disposed along at least a portion of the length thereof and having a needle disposed at a free end thereof, characterised in that the plurality of filaments are coupled to the mesh in proximity of an outer periphery thereof.
Use as electrode active material of a compound comprising at least one entity of formula: in which the phenyl group is substituted by one to four substituent(s) R, which are identical or different, chosen from a hydrogen atom, a halogen atom chosen from fluorine, chlorine, bromine or iodine, a -C(=S)-S - C + group, an -O - C + group, an -S - C + group, with C + being an alkali metal cation chosen from Li +, Na + and K +, preferably Li +; a (C 1 -C 12)alkyl radical, a (C 2 -C 12)alkenyl radical or a (C 6 -C 14)aryl or heteroaryl radical; or it being possible for two vicinal substituents R, if appropriate, to be bonded to one another in order to together form a 3- to 7-membered ring; in the base or salt state; and also its tautomeric forms, wherein in the present invention an alkyl denotes a saturated and linear, branched or cyclic aliphatic group; an alkenyl denotes a mono- or polyunsaturated and linear, branched or cyclic aliphatic group comprising one or more ethylenic unsaturations; an aryl denotes a mono-, bi- or tricyclic aromatic group; a heteroaryl denotes a 5- to 14-membered mono-, bi- or tricyclic aromatic heterocyclic group containing from 1 to 8 heteroatoms chosen from oxygen, sulfur and nitrogen; a 3- to 7-membered ring denotes an unsaturated or saturated, nonaromatic, cyclic group optionally comprising one or more heteroatoms chosen from oxygen, sulfur and nitrogen.
A vehicle comprising: an air-breathing engine having a nozzle where engine exhaust flow exits the air-breathing engine through the nozzle; a nozzle cooling system including a first cooling subsystem coupled to the nozzle so as to transfer heat from the nozzle to a cooling fluid flowing from a fluid reservoir to at least a power extraction device; and wherein the cooling fluid, after flowing through the power extraction device, is ejected from the nozzle cooling system downstream from the power extraction device to an atmosphere exterior to the vehicle. an air-breathing engine having a nozzle where engine exhaust flow exits the air-breathing engine through the nozzle; a nozzle cooling system including a first cooling subsystem coupled to the nozzle so as to transfer heat from the nozzle to a cooling fluid flowing from a fluid reservoir to at least a power extraction device; and wherein the cooling fluid, after flowing through the power extraction device, is ejected from the nozzle cooling system downstream from the power extraction device to an atmosphere exterior to the vehicle.