mhurhangee/ep-ind-claims huggingface dataset:
A micro-battery comprising a silicon secondary battery, wherein the silicon secondary battery includes: a first silicon multilayer thin film part in which a plurality of silicon positive electrode thin film layers each formed of a silicon carbide compound, which generates silicon cations when the silicon secondary battery is charged and generates silicon anions when the silicon secondary battery is discharged, are stacked; a second silicon multilayer thin film part in which a plurality of silicon negative electrode thin film layers each formed of a silicon nitride compound, which generates silicon anions when the silicon secondary battery is charged and generates silicon cations when the silicon secondary battery is discharged, are stacked; and a solid electrolyte layer located between the first silicon multilayer thin film part and the second silicon multilayer thin film part and configured to deliver silicon ions between the first silicon multilayer thin film part and the second silicon multilayer thin film part when the silicon secondary battery is charged and discharged; characterized in that the positive electrode thin film layer and/or the negative electrode thin film layer are formed in a mesh shape. a first silicon multilayer thin film part in which a plurality of silicon positive electrode thin film layers each formed of a silicon carbide compound, which generates silicon cations when the silicon secondary battery is charged and generates silicon anions when the silicon secondary battery is discharged, are stacked; a second silicon multilayer thin film part in which a plurality of silicon negative electrode thin film layers each formed of a silicon nitride compound, which generates silicon anions when the silicon secondary battery is charged and generates silicon cations when the silicon secondary battery is discharged, are stacked; and a solid electrolyte layer located between the first silicon multilayer thin film part and the second silicon multilayer thin film part and configured to deliver silicon ions between the first silicon multilayer thin film part and the second silicon multilayer thin film part when the silicon secondary battery is charged and discharged; characterized in that the positive electrode thin film layer and/or the negative electrode thin film layer are formed in a mesh shape.
Strip of vials for fluid products, particularly for medical, pharmaceutical, cosmetic, food products or the like, comprising a plurality of vials, each of which comprises: - at least a containment body for at least an injectable fluid product having an elongated direction; - a first end able to define a dispensing mouth of said fluid product; and - a second end opposite said first end; wherein said containment bodies are made in a single monolithic body made of a first material and are joined together along the weakened-section connection lines; characterized in that said dispensing mouths consist of a stopper made of a second penetrable material suitable for being penetrated by a drawing element for drawing said fluid product, each of said vials comprises a covering body made in a single monolithic body together with said containment bodies and able to cover said stopper, wherein each of said covering bodies is defined by a respective door element associated with said first end by means of a foldable joining strap, and wherein said door element is movable around said foldable joining strap between a closed configuration, wherein said door element is fitted interlocking on one of said dispensing mouths to protect said stopper, and an open configuration, wherein said door element is moved away from said dispensing mouth making said stopper accessible from the outside. - at least a containment body for at least an injectable fluid product having an elongated direction; - a first end able to define a dispensing mouth of said fluid product; and - a second end opposite said first end;
A method for reducing the effect of interferent in a test for analyte concentration, comprising: (a) introducing a sample having an analyte into an electrochemical cell to initiate a reaction with a reagent in the cell, the electrochemical cell comprising first and second electrodes in a spaced apart relationship, and a first reagent layer, the first reagent layer comprising an enzyme and a mediator; (b) applying to the cell a first test potential having a first polarity, measuring a first current transient, and determining a first peak current value from the first current transient; (c) applying to the cell a second test potential having a second polarity, wherein the first polarity is opposite to the second polarity, measuring a second current transient, determining a second peak current value from the second current transient and determining a first current value based on an integral of current values over a time interval of the second current transient; (d) calculating a corrected current value based on the first peak current value and the second peak current value by removing an interferent current value from the first current value, the corrected current value being proportional to the analyte concentration within the sample; (e) calculating an analyte concentration based on the corrected current value. (a) introducing a sample having an analyte into an electrochemical cell to initiate a reaction with a reagent in the cell, the electrochemical cell comprising first and second electrodes in a spaced apart relationship, and a first reagent layer, the first reagent layer comprising an enzyme and a mediator; (b) applying to the cell a first test potential having a first polarity, measuring a first current transient, and determining a first peak current value from the first current transient; (c) applying to the cell a second test potential having a second polarity, wherein the first polarity is opposite to the second polarity, measuring a second current transient, determining a second peak current value from the second current transient and determining a first current value based on an integral of current values over a time interval of the second current transient; (d) calculating a corrected current value based on the first peak current value and the second peak current value by removing an interferent current value from the first current value, the corrected current value being proportional to the analyte concentration within the sample; (e) calculating an analyte concentration based on the corrected current value.
An electro-mechanical actuator (100; 200) with wide operating range load, comprising: a shaft (102; 202); a speed summed differential (110; 210) coupled to rotate the shaft; and a prime mover (120; 220) coupled to the speed summed differential and configured to drive an output torque of the shaft; characterised by a torsional spring (130; 230) coupled to the speed summed differential by way of a rotary position sensor (132; 232) for detecting the rotation of the shaft thereby measuring the output torque of the shaft for control of the prime mover. a shaft (102; 202); a speed summed differential (110; 210) coupled to rotate the shaft; and a prime mover (120; 220) coupled to the speed summed differential and configured to drive an output torque of the shaft; characterised by a torsional spring (130; 230) coupled to the speed summed differential by way of a rotary position sensor (132; 232) for detecting the rotation of the shaft thereby measuring the output torque of the shaft for control of the prime mover.
A method of forming a metallic appearance of a sports equipment wherein a decorative layer including a metallic material is formed three-dimensionally on a surface of a base member of the sports equipment, the method comprising the steps of: forming the decorative layer including a plurality of ultraviolet-curable adhesive layers on the surface of the base member by ink-jet printing such that an underlying adhesive layer is partially exposed; and forming metallic material layers on the surfaces of the plurality of adhesive layers. forming the decorative layer including a plurality of ultraviolet-curable adhesive layers on the surface of the base member by ink-jet printing such that an underlying adhesive layer is partially exposed; and forming metallic material layers on the surfaces of the plurality of adhesive layers.
SWEEPER AND FILTER ASSEMBLY FOR BEVERAGE PREPARATION MACHINES in the form of juicing machines that is cleaned automatically, preventing the pulp and fruit remains from clogging the machine and rendering it unusable of the type that comprises a flexible carrier band used as a filter mounted on at least two shafts (2, 3) n the form of a tank tread characterised by comprising: A carrier and filtering area that comprises: 1. At least one flexible carrier band wherein the upper part of the flexible carrier and is inclined 2. A support casing on which the shafts are mounted which comprises additional auxiliary elements. 3. At least one main scraper. 4. At least one filter. A drive and motion management element comprising: 1. A motor. 2. An electronic device for managing the motor. 3. A transmission between the motor and the shafts. A carrier and filtering area that comprises: 1. At least one flexible carrier band wherein the upper part of the flexible carrier and is inclined 2. A support casing on which the shafts are mounted which comprises additional auxiliary elements. 3. At least one main scraper. 4. At least one filter. 1. At least one flexible carrier band wherein the upper part of the flexible carrier and is inclined 2. A support casing on which the shafts are mounted which comprises additional auxiliary elements. 3. At least one main scraper. 4. At least one filter. A drive and motion management element comprising: 1. A motor. 2. An electronic device for managing the motor. 3. A transmission between the motor and the shafts. 1. A motor. 2. An electronic device for managing the motor. 3. A transmission between the motor and the shafts.
A controller component (200, 400, 500) comprising: a resistance-based bridge circuit; characterized by a signal conditioning circuit (401, 501) configured to condition an output of the resistance-based bridge circuit; a first diagnostic circuit coupled to the signal conditioning circuit (401, 501) configured to monitor an output of a first branch of the resistance-based bridge circuit; and a second diagnostic circuit coupled to the signal conditioning circuit (401, 501) configured to monitor an output of a second branch of the resistance-based bridge circuit. a resistance-based bridge circuit; characterized by a signal conditioning circuit (401, 501) configured to condition an output of the resistance-based bridge circuit; a first diagnostic circuit coupled to the signal conditioning circuit (401, 501) configured to monitor an output of a first branch of the resistance-based bridge circuit; and a second diagnostic circuit coupled to the signal conditioning circuit (401, 501) configured to monitor an output of a second branch of the resistance-based bridge circuit.
A method for sender node operation, the method comprising: reserving path states for a traffic engineered label switched path, TE LSP, wherein resource reservation protocol with traffic engineering, RSVP-TE, is used to establish the TE LSP, and wherein the TE LSP is established within a single network topology in an environment of multiple network topologies, and wherein reserving path states comprises sending a first RSVP-TE message, RSVP-TE Path message, containing multi-topology information used to indicate the network topology which the TE LSP is traversing, and the first RSVP-TE message containing an indication that indicates if a network element is capable of supporting multi-topology; and once the TE LSP is no longer needed, releasing the reserved path states. reserving path states for a traffic engineered label switched path, TE LSP, wherein resource reservation protocol with traffic engineering, RSVP-TE, is used to establish the TE LSP, and wherein the TE LSP is established within a single network topology in an environment of multiple network topologies, and wherein reserving path states comprises sending a first RSVP-TE message, RSVP-TE Path message, containing multi-topology information used to indicate the network topology which the TE LSP is traversing, and the first RSVP-TE message containing an indication that indicates if a network element is capable of supporting multi-topology; and once the TE LSP is no longer needed, releasing the reserved path states.
A method of making a light weight component, comprising: forming a metallic foam core (11; 70; 72) into a configuration that allows a pre-machined component (42; 78) to be inserted therein; inserting the pre-machined component (42; 78) into an opening (40; 74; 76) formed in the metallic foam core; applying an external metallic shell to an exterior surface of the metallic foam core after it has been formed into the configuration and after the pre-machined component has been inserted into the metallic foam core; introducing an acid into an internal cavity (56; 80) defined by the external metallic shell; dissolving the metallic foam core; and removing the dissolved metallic foam core from the internal cavity, wherein the component and the external metallic shell are resistant to the acid. forming a metallic foam core (11; 70; 72) into a configuration that allows a pre-machined component (42; 78) to be inserted therein; inserting the pre-machined component (42; 78) into an opening (40; 74; 76) formed in the metallic foam core; applying an external metallic shell to an exterior surface of the metallic foam core after it has been formed into the configuration and after the pre-machined component has been inserted into the metallic foam core; introducing an acid into an internal cavity (56; 80) defined by the external metallic shell; dissolving the metallic foam core; and removing the dissolved metallic foam core from the internal cavity, wherein the component and the external metallic shell are resistant to the acid.
A computer-implemented method performed by data processing apparatus, the method comprising: instantiating an application instance that generates environment instances for display on a user device within the application instance, wherein the application is designed to run on a particular user device operating system and machine firmware, and wherein an environment instance is a display environment within the application, in which content is displayed; in response to the instantiation of the application instance: monitoring for occurrences of activity lifecycle events of the application instance, wherein said activity lifecycle events correspond to transitions between different states in an application lifecycle; monitoring for changes in a memory footprint of the application instance; and generating, in response to the monitoring of the lifecycle events and monitoring of the changes in the memory footprint indicating the application instance is sufficiently instantiated to be subject to a crawling operation, a load signal indicating the application instance is sufficiently instantiated to be subject to the crawling operation. instantiating an application instance that generates environment instances for display on a user device within the application instance, wherein the application is designed to run on a particular user device operating system and machine firmware, and wherein an environment instance is a display environment within the application, in which content is displayed; in response to the instantiation of the application instance: monitoring for occurrences of activity lifecycle events of the application instance, wherein said activity lifecycle events correspond to transitions between different states in an application lifecycle; monitoring for changes in a memory footprint of the application instance; and generating, in response to the monitoring of the lifecycle events and monitoring of the changes in the memory footprint indicating the application instance is sufficiently instantiated to be subject to a crawling operation, a load signal indicating the application instance is sufficiently instantiated to be subject to the crawling operation. monitoring for occurrences of activity lifecycle events of the application instance, wherein said activity lifecycle events correspond to transitions between different states in an application lifecycle; monitoring for changes in a memory footprint of the application instance; and generating, in response to the monitoring of the lifecycle events and monitoring of the changes in the memory footprint indicating the application instance is sufficiently instantiated to be subject to a crawling operation, a load signal indicating the application instance is sufficiently instantiated to be subject to the crawling operation.
A signal status diagnosing device of an external control means which operates with driving power supplied by an ON/OFF signal transmitted via an insulation means, characterized in that the signal status diagnosing device comprises an insulation transformer having an intermediate tap at a midpoint of its primary winding as said insulation means, to the secondary side of which being connected said external control means, a signal generating means for generating a periodically vibrating voltage including a rectangular pulse voltage and alternating voltage connected to the primary side of the insulation transformer, a switch circuit connected to the intermediate tap of the primary winding of the insulation transformer and operated by an ON/OFF signal to send a driving electric power to the external control means to drive the same, and a current measuring means comprising a resistance connected to the switch circuit in parallel, the current measuring means connected to the intermediate tap to measure a current which flows in the resistance, the current corresponding to a current which flows in the secondary side of the insulation transformer to be supplied to the external control means to drive the same, whereby signal status of the external control means is diagnosed based on the measurement result of the current measuring means.
A movable machine, comprising: a chassis; a tool coupled to said chassis; an operator control carried by said chassis; and a controller communicatively coupled to said operator control, said controller configured to send at least one of a force feedback and a vibration feedback to said operator control thereby conveying information to the operator, said information not being related to a load encountered by the tool; and further characterized in that the at least one of said force feedback and said vibration feedback is altered by said controller dependent upon to at least one of a detection of a shake bucket command, a fault code, a communication message for the operator. a chassis; a tool coupled to said chassis; an operator control carried by said chassis; and a controller communicatively coupled to said operator control, said controller configured to send at least one of a force feedback and a vibration feedback to said operator control thereby conveying information to the operator, said information not being related to a load encountered by the tool; and further characterized in that the at least one of said force feedback and said vibration feedback is altered by said controller dependent upon to at least one of a detection of a shake bucket command, a fault code, a communication message for the operator.
Stranded conductor comprising a number of single wires (4, 6), wherein several similarly formed single wires are arranged as outer wires around a central inner wire, and wherein the single wires (4, 6) form a composite that is encased by insulation, characterised in that outer wires having a non-circular cross-section are used as outer wires so that the expansion of the outer wires starting from the inner wire increases radially outwards when viewed in cross-section, and that the composite of single wires (4, 6) is not compacted.
Steer-by-wire steering system for motor vehicles, comprising • a primary steering level with a steering transmission device, which is set up so as to subject the wheels to be steered of the motor vehicle to a desired setpoint steering effect, and • a secondary steering level with a safety device that provides predefined functions, such that in the case of a malfunction of the primary steering level, steering the wheels remains possible during an emergency mode, characterized in that the steer-by-wire steering system comprises an authentication system with a communications interface for communication with the safety device, wherein the authentication system is set up such that it can be used to bypass safety functions and such that in the case of a successful authorization the secondary steering level of the steer-by-wire steering system is also available following the emergency mode. • a primary steering level with a steering transmission device, which is set up so as to subject the wheels to be steered of the motor vehicle to a desired setpoint steering effect, and • a secondary steering level with a safety device that provides predefined functions, such that in the case of a malfunction of the primary steering level, steering the wheels remains possible during an emergency mode, characterized in that the steer-by-wire steering system comprises an authentication system with a communications interface for communication with the safety device, wherein the authentication system is set up such that it can be used to bypass safety functions and such that in the case of a successful authorization the secondary steering level of the steer-by-wire steering system is also available following the emergency mode.
A method for treating wastewater comprising: treating an amount of wastewater in a powdered activated carbon treatment (PACT) system comprising a first stage and at least a second stage, each stage (104, 106) comprising an amount of powdered activated carbon therein, wherein the treating removes at least one contaminant from the wastewater and produces a spent carbon material; directing an amount of the spent carbon material to a wet air regeneration system for regeneration of the spent carbon material; separating an effluent from the WAR system into a cleaned carbon solids fraction and a waste liquor; directing the cleaned carbon solids fraction to the second stage; and directing the waste liquor to the first stage for use in treating additional wastewater in the first stage, thereby relieving the second stage from gross pollutant removal and allowing the second stage to serve as a polishing step to remove first stage effluent contaminants. treating an amount of wastewater in a powdered activated carbon treatment (PACT) system comprising a first stage and at least a second stage, each stage (104, 106) comprising an amount of powdered activated carbon therein, wherein the treating removes at least one contaminant from the wastewater and produces a spent carbon material; directing an amount of the spent carbon material to a wet air regeneration system for regeneration of the spent carbon material; separating an effluent from the WAR system into a cleaned carbon solids fraction and a waste liquor; directing the cleaned carbon solids fraction to the second stage; and directing the waste liquor to the first stage for use in treating additional wastewater in the first stage, thereby relieving the second stage from gross pollutant removal and allowing the second stage to serve as a polishing step to remove first stage effluent contaminants.