mhurhangee/ep-ind-claims huggingface dataset:
Method to distribute energy to delivery points of an energy supplying grid comprising: a) collecting energy demands from each one of a plurality of consumers connected to an energy supplying grid, the energy demands including requirements data, b) collecting specification data of the origin of the energy supplied by each one of a plurality of energy supply units connected to said energy supplying grid, c) keeping up to date an energy ledger with - quantities of energy consumed by each consumer, - quantities of energy supplied by each energy supply unit, - the collected requirement data, and - the collected specification data, d) allocating quantities of current energy supplied by energy supply units to the energy demands of the consumers in function of the updated energy ledger, e) distributing the energy provided by the energy supply units to the consumers through the energy supplying grid and according to the allocated quantities, characterized in that the collecting specification data of the origin of the energy supplied by each one of a plurality of energy supply units connected to said energy supplying grid is made via respective validation apparatus arranged to certify a quantity and a quality of energy provided by the corresponding energy supply unit to the grid, each of said validation apparatus being associated to at least one of the plurality of energy supply units, each of said validation apparatus comprising a multi-flow meter able to precisely measure the injected current of the associated energy supply units, including different energy generation types and/or multiple sources of each energy generation type, said multi-flow meter being adapted to perform distinct measurements for at least said different energy generation types of the associated energy supply units, the collected specification data being formed based on at least a reporting of said distinct measurements from the respective validation apparatus. a) collecting energy demands from each one of a plurality of consumers connected to an energy supplying grid, the energy demands including requirements data, b) collecting specification data of the origin of the energy supplied by each one of a plurality of energy supply units connected to said energy supplying grid, c) keeping up to date an energy ledger with - quantities of energy consumed by each consumer, - quantities of energy supplied by each energy supply unit, - the collected requirement data, and - the collected specification data, - quantities of energy consumed by each consumer, - quantities of energy supplied by each energy supply unit, - the collected requirement data, and - the collected specification data, d) allocating quantities of current energy supplied by energy supply units to the energy demands of the consumers in function of the updated energy ledger, e) distributing the energy provided by the energy supply units to the consumers through the energy supplying grid and according to the allocated quantities,
A battery assembly for an electronic cigarette comprises a threaded sleeve arranged on an upper end thereof, wherein the battery assembly further comprises an electrode ring arranged in the threaded sleeve, wherein the electrode ring has a lower end extending out from a through hole defined at the bottom of the threaded sleeve, the battery assembly further comprises an insulating ring arranged between the electrode ring and the threaded sleeve; characterized in that the battery assembly further comprises an elastic sealing ring arranged between the electrode ring and the insulating ring.
A beer maker comprising: a fermentation tank having an opening formed therein, the fermentation tank having a space formed therein; and a fermentation tank cover covering the opening; at least one material accommodation part formed in a supplier; wherein the fermentation tank cover includes: an outer body; an inner body rotatably disposed in the outer body; a main tube; and a lower body assembly coupled to a lower portion of the inner body, wherein the lower body assembly includes a main flow path part connected to the main tube, wherein an inner space in which at least one portion of the main tube is accommodated is formed in at least one of the inner body and the lower body assembly, and wherein the main tube is connected to the main flow path part in the inner space; wherein the beer maker further comprises: a main flow path connected to the main tube and to the supplier; a beer extraction flow path connected to the main flow path; and a beer extraction valve connected to the beer extraction flow path. a fermentation tank having an opening formed therein, the fermentation tank having a space formed therein; and a fermentation tank cover covering the opening; at least one material accommodation part formed in a supplier; wherein the fermentation tank cover includes: an outer body; an inner body rotatably disposed in the outer body; a main tube; and a lower body assembly coupled to a lower portion of the inner body, wherein the lower body assembly includes a main flow path part connected to the main tube, wherein an inner space in which at least one portion of the main tube is accommodated is formed in at least one of the inner body and the lower body assembly, and wherein the main tube is connected to the main flow path part in the inner space; wherein the beer maker further comprises: a main flow path connected to the main tube and to the supplier; a beer extraction flow path connected to the main flow path; and a beer extraction valve connected to the beer extraction flow path. an outer body; an inner body rotatably disposed in the outer body; a main tube; and a lower body assembly coupled to a lower portion of the inner body, wherein the lower body assembly includes a main flow path part connected to the main tube, wherein an inner space in which at least one portion of the main tube is accommodated is formed in at least one of the inner body and the lower body assembly, and wherein the main tube is connected to the main flow path part in the inner space; wherein the beer maker further comprises: a main flow path connected to the main tube and to the supplier; a beer extraction flow path connected to the main flow path; and a beer extraction valve connected to the beer extraction flow path. a main flow path connected to the main tube and to the supplier; a beer extraction flow path connected to the main flow path; and a beer extraction valve connected to the beer extraction flow path.
Cylindrical chamber for crushing machines, of the type composed of an opposite pair of circular flanges (10a, 10b) and a grid perimeter wall through which the product is expelled after being smashed by a series of hammers that brush the internal surface of said perimeter wall and are supported by a circular plate housed into said cylindrical chamber, where said plate rotates, the chamber being dragged into rotation by a corresponding shaft and being characterised by the fact that the grid perimeter wall is obtained by means of a regularly spaced series of bars, each bar having a polygonal cross-section with more than three sides wherein the sharp profile of each bar is represented by one of the sharp corners and each bar transversally extending between the two flanges (10a, 10b) with parallel direction to the rotation axis of the chamber.
Process for obtaining a stratified agglomerated artificial stone tile and/or slab, consisting of different strati made of pastes of different petrous and artificial materials in different proportions, compositions and granulometry characterised in that it comprises the following steps: a) Crushing step of the different materials with varied granulometry making up the fillers; b) Obtaining of the additivated resin by the addition and mix of the resin with the catalyser, the accelerant, the binding material and, optionally the colouring agent; c) Mix of the products of the steps a) and b) until the homogenization to achieve the paste for a stratus in the final product. d) Independently repeating the process steps a to c to obtain different pastes as many times as number of different strati are to be achieved in the final product. e) Transportation of the different pastes by a conveyor belt to the feeding or distribution mechanism. f) Download of the pastes placed in an ordered manner, in the previous stage, from the distributor to the compressing mould that creates the design and dimension of the slab. g) Protecting the pastes that make up the slabs with Kraft-type paper, or an elastomer, similar to a rubber coating h) Moulding and pressing of the pastes in each mould by vacuum vibro-compression; i) Hardening by polymerization of the resin by heating; j) Finish with a cooling, sizing, polishing and cutting stage: a) Crushing step of the different materials with varied granulometry making up the fillers; b) Obtaining of the additivated resin by the addition and mix of the resin with the catalyser, the accelerant, the binding material and, optionally the colouring agent; c) Mix of the products of the steps a) and b) until the homogenization to achieve the paste for a stratus in the final product. d) Independently repeating the process steps a to c to obtain different pastes as many times as number of different strati are to be achieved in the final product. e) Transportation of the different pastes by a conveyor belt to the feeding or distribution mechanism. f) Download of the pastes placed in an ordered manner, in the previous stage, from the distributor to the compressing mould that creates the design and dimension of the slab. g) Protecting the pastes that make up the slabs with Kraft-type paper, or an elastomer, similar to a rubber coating h) Moulding and pressing of the pastes in each mould by vacuum vibro-compression; i) Hardening by polymerization of the resin by heating; j) Finish with a cooling, sizing, polishing and cutting stage:
A method for sampling streaming data, which includes periodically updated information items, for real-time distribution on a network comprising: receiving the streaming data from a streaming data source; sampling the periodically updated information items of the streaming data using a sampling process based on update rates of the information items of the streaming data and a capacity of the network into which the data is to be distributed, thereby creating a sampled data stream; and distributing the sampled data stream on the network. receiving the streaming data from a streaming data source; sampling the periodically updated information items of the streaming data using a sampling process based on update rates of the information items of the streaming data and a capacity of the network into which the data is to be distributed, thereby creating a sampled data stream; and distributing the sampled data stream on the network.
Method for operating a broadband lambda probe, in which a Nernst cell and a pump cell are electrically connected in series via a first circuit node, wherein the method comprises: determining a voltage drop (Up) across the pump cell, determining a first setpoint value for the electrical potential of the first circuit node as a function of the voltage drop (Up) across the pump cell, applying the first setpoint value to the first circuit node, wherein a constant first value is assigned to the first setpoint value for a first value range of the voltage drop (Up) across the pump cell, wherein a second value is assigned to the first setpoint value for a second value range (WB2a, WB2b) of the voltage drop (Up) across the pump cell, said second value varying as a function of the value of the voltage drop (Up).
A filter element, comprising: a filter media having first and second filter ends (18, 20); a first end cap attached to the first filter end; a second end cap attached to the second filter end, the second end cap formed from a molded material and including a handle structure unitarily molded therein, the handle structure including a flange with a void formed at least partially transversely therethrough, characterized in that the void in the flange is surrounded by a grommet and the grommet is molded into the flange such that the void is molded without a mold split and no mold split parting line is formed on the second end cap. a filter media having first and second filter ends (18, 20); a first end cap attached to the first filter end; a second end cap attached to the second filter end, the second end cap formed from a molded material and including a handle structure unitarily molded therein, the handle structure including a flange with a void formed at least partially transversely therethrough,
A network configuration method, comprising: receiving, by a session management function network element, a first request message from a terminal device, wherein the first request message is used to obtain information about a configuration serving network element, the information about the configuration serving network element comprises address information of the configuration serving network element, the terminal device is a residential gateway; sending, by the session management function network element, a second request message to a data management network element, wherein the second request message is a request message for obtaining subscription data of the terminal device; receiving, by the session management function network element, a second response message from the data management network element, wherein the second response message comprises the information about the configuration serving network element and the subscription data of the terminal device; and sending, by the session management function network element, a first response message to the terminal device, wherein the first response message comprises the information about the configuration serving network element. receiving, by a session management function network element, a first request message from a terminal device, wherein the first request message is used to obtain information about a configuration serving network element, the information about the configuration serving network element comprises address information of the configuration serving network element, the terminal device is a residential gateway; sending, by the session management function network element, a second request message to a data management network element, wherein the second request message is a request message for obtaining subscription data of the terminal device; receiving, by the session management function network element, a second response message from the data management network element, wherein the second response message comprises the information about the configuration serving network element and the subscription data of the terminal device; and sending, by the session management function network element, a first response message to the terminal device, wherein the first response message comprises the information about the configuration serving network element.
An external fixator device (1, 2, 3, 4, 5, 1000) for fixating bone parts comprising: one or more bone fixation pins (5a, 5b, 700, 701, 702, 703, 704) suitable for engaging a bone piece; a fixator body (110, 10) having a first end (117, 1012, 17) and a second end (118, 18) and an internally threaded bore extending longitudinally therethrough; a pair of opposed longitudinally extending slots (116; 126; 1116; 1126) provided in the fixator body (110, 10); a pin-holder (143, 243, 1143) received within the fixator body (110, 10) and configured to removably hold a first set of the one or more bone fixation pins (5a, 5b, 700, 701, 702, 703, 704), said fixation pins (5a, 5b, 700, 701, 702, 703, 704) extending through said pair of slots (116; 126; 1116; 1126) opposed from one another via said pin-holder (143, 243, 1143), wherein said pin-holder (143, 243, 1143) is longitudinally movable within the fixator body (110, 10), whereby the position of the first set of bone fixation pins along the fixator body's longitudinal axis is controlled, wherein said pin-holder (143, 243, 1143) is rotatably engaged to a driving screw (155, 1125), said driving screw threadably engaging the internally threaded bore of the fixator body (110, 10), whereby the pin-holder (143, 243, 1143) is longitudinally moved within the fixator body (110, 10) by threading and unthreading said driving screw (155, 1125).
Electromagnetic contactor comprising a movable magnetic core/contact assembly, a coil assembly for magnetically actuating the magnetic core/contact assembly, a fixed magnetic core, and fixed contact elements, wherein the coil assembly is connected with a DC coil control circuit for controlling a current flowing through the coil of the electromagnetic contactor, wherein the DC coil control circuit comprises: a first input terminal to be connected with a direct current voltage of a first polarity, and a second input terminal to be connected with a direct current voltage of a second polarity, and a first output terminal to be connected with a first terminal of the actuator coil and a second output terminal to be connected to a second terminal of the actuator coil, and characterised by a first diode having an anode and a cathode, wherein the cathode of the first diode is connected to said first output terminal and to said first input terminal, a second diode having an anode and a cathode, wherein the anode of the second diode is connected to said second output terminal, a filter capacitor which is connected between said second input terminal and to a first node (Vco) which interconnects the anode of said first diode and the cathode of said second diode, a switching device that is connected between said second input terminal and said second output terminal, and has a control input terminal for receiving a control signal that controls opening and closing of the switching device, and a control unit that is operable for generating said control signal. a first input terminal to be connected with a direct current voltage of a first polarity, and a second input terminal to be connected with a direct current voltage of a second polarity, and a first output terminal to be connected with a first terminal of the actuator coil and a second output terminal to be connected to a second terminal of the actuator coil, and characterised by a first diode having an anode and a cathode, wherein the cathode of the first diode is connected to said first output terminal and to said first input terminal, a second diode having an anode and a cathode, wherein the anode of the second diode is connected to said second output terminal, a filter capacitor which is connected between said second input terminal and to a first node (Vco) which interconnects the anode of said first diode and the cathode of said second diode, a switching device that is connected between said second input terminal and said second output terminal, and has a control input terminal for receiving a control signal that controls opening and closing of the switching device, and a control unit that is operable for generating said control signal.
An image scanning apparatus, comprising: a lighting unit to irradiate light onto paper using an LED light source; a scan unit to generate a scan image by scanning image information of paper using light reflected by the paper; and a processor to control the lighting unit to irradiate light on each unit pixel by a predetermined duty of a line exposure time during a movement process of the paper in a sub-scan direction characterized in that the processor is configured to control the lighting unit to irradiate light continuously on each unit pixel at a predetermined time point and not irradiate the light after a time corresponding to the predetermined duty for the remainder of the line exposure time. a lighting unit to irradiate light onto paper using an LED light source; a scan unit to generate a scan image by scanning image information of paper using light reflected by the paper; and a processor to control the lighting unit to irradiate light on each unit pixel by a predetermined duty of a line exposure time during a movement process of the paper in a sub-scan direction characterized in that the processor is configured to control the lighting unit to irradiate light continuously on each unit pixel at a predetermined time point and not irradiate the light after a time corresponding to the predetermined duty for the remainder of the line exposure time.
Use of an aluminium composite material consisting of at least one aluminium core alloy and at least one outer brazing layer consisting of an aluminium brazing alloy provided on one or both sides of the aluminium core alloy, wherein the aluminium brazing layer has an alkaline pickled surface, characterised in that the pickled surface of the aluminium brazing layer comprises at least partially exposed or exposed silicon particles and the aluminium composite material is used in a fluxless, thermal joining process and the joining process is carried out in the presence of a protective gas.
A system for enhancing data acquired from a medical system, the system comprising the following: an electronic control unit configured to: receive a first signal for a static 3D reconstruction of an organ; co-register the static 3D reconstruction to a 3D tracking space for a tracked tool; receive a second signal for enhancement data generated by the tracked tool operating within a region of interest of the organ; and add real-time features of the area of interest to the static 3D reconstruction using the enhancement data, wherein the real-time features comprise an extension of a boundary of the static 3D reconstruction, wherein the 3D tracking space is disposed in a medical positioning system coordinate system and the static 3D reconstruction is disposed in a 3D coordinate system, and the extension of the boundary comprises appending portions to the static 3D reconstruction. an electronic control unit configured to: receive a first signal for a static 3D reconstruction of an organ; co-register the static 3D reconstruction to a 3D tracking space for a tracked tool; receive a second signal for enhancement data generated by the tracked tool operating within a region of interest of the organ; and add real-time features of the area of interest to the static 3D reconstruction using the enhancement data, wherein the real-time features comprise an extension of a boundary of the static 3D reconstruction, receive a first signal for a static 3D reconstruction of an organ; co-register the static 3D reconstruction to a 3D tracking space for a tracked tool; receive a second signal for enhancement data generated by the tracked tool operating within a region of interest of the organ; and add real-time features of the area of interest to the static 3D reconstruction using the enhancement data, wherein the real-time features comprise an extension of a boundary of the static 3D reconstruction, wherein the 3D tracking space is disposed in a medical positioning system coordinate system and the static 3D reconstruction is disposed in a 3D coordinate system, and the extension of the boundary comprises appending portions to the static 3D reconstruction.