mhurhangee/ep-ind-claims huggingface dataset:
A virtual broadcast server adapted to determine routing of each of a plurality of segments of digital content to a plurality of destination client nodes of an underlying network, the virtual broadcast server comprising: (a) an overlay network database adapted to store an overlay network topology representing a current state of an overlay network built on top of the underlying network, wherein the overlay network topology includes: (i) each of the plurality of destination client nodes, each destination client node being a node of both the overlay network and the underlying network, and (ii) a set of routing paths each segment traverses as it is relayed among the plurality of destination client nodes via shared links interconnecting components of the underlying network; and (b) a performance tracker adapted to monitor metrics from network traffic among the plurality of destination client nodes along the overlay network; wherein the virtual broadcast server further comprises: (c) a deep learning engine adapted to predict based upon the metrics monitored by the performance tracker, congestion levels reflecting changing capacity of the shared links over time; and (d) an overlay network creator adapted to: (i) determine whether one or more of the predicted congestion levels meet a predefined congestion threshold and, if so, (ii) reconfigure the overlay network topology by modifying one or more of the routing paths. (a) an overlay network database adapted to store an overlay network topology representing a current state of an overlay network built on top of the underlying network, wherein the overlay network topology includes: (i) each of the plurality of destination client nodes, each destination client node being a node of both the overlay network and the underlying network, and (ii) a set of routing paths each segment traverses as it is relayed among the plurality of destination client nodes via shared links interconnecting components of the underlying network; and (i) each of the plurality of destination client nodes, each destination client node being a node of both the overlay network and the underlying network, and (ii) a set of routing paths each segment traverses as it is relayed among the plurality of destination client nodes via shared links interconnecting components of the underlying network; (b) a performance tracker adapted to monitor metrics from network traffic among the plurality of destination client nodes along the overlay network; (c) a deep learning engine adapted to predict based upon the metrics monitored by the performance tracker, congestion levels reflecting changing capacity of the shared links over time; and (d) an overlay network creator adapted to: (i) determine whether one or more of the predicted congestion levels meet a predefined congestion threshold and, if so, (ii) reconfigure the overlay network topology by modifying one or more of the routing paths. (i) determine whether one or more of the predicted congestion levels meet a predefined congestion threshold and, if so, (ii) reconfigure the overlay network topology by modifying one or more of the routing paths.
Profile frame, in particular for special vehicles, with a plurality of profiled components fastened to each other, wherein at least a first profile component and a second profile component are connected by means of a corner connector, wherein the corner connector has a first leg having a first longitudinal axis (x) and a second leg having a second longitudinal axis (y), which are respectively inserted into one of the profile components (2, 3), wherein the longitudinal axes (x, y) are arranged at an angle (α) to each other, characterized in that the first leg has a spreading portion which is spread by means of a spreading device which extends substantially along the first longitudinal axis (x), whereby the first leg is connected to the first profile component, and that the second leg by means of a connecting device with the second profile component is connected, wherein the connecting means substantially transversely is arranged to the second longitudinal axis (y).
A control system for milking members in a milking parlour comprising a plurality of milking stalls (3, 4), wherein each milking stall (3, 4) comprises a milking member to be attached to an animal in the milking stall (3, 4), a storage device (25, 29) arranged to hold the milking member in a storage position when it is not in use, and a cleaning unit arranged to clean the milking member, wherein the control system comprises a local control unit in each milking stall (3, 4) arranged to automatically prepare the milking member for a milking operation by setting a vacuum valve, which controls application of vacuum pressure to the milking member, in an open position when the milking member is moved from the storage position, characterized in that the control system comprises control means (11, 12) able to set at least two milking stalls (3, 4) in the milking parlour in a pre-cleaning mode when a milking operation is still in progress in at least one of these milking stalls (3, 4), wherein the local control units (23, 26) are arranged to prepare the milking members in said at least two milking stalls (3, 4) for a cleaning operation instead of a milking operation by maintaining the vacuum valve in a closed position when the milking member is moved from the storage position, until the cleaning operation of the milking member is started.
Method to produce a chromatography medium, starting with a chromatography medium comprising porous beads coupled with dextran inside the pores and on the bead surface, comprising a step of subjecting the chromatography medium to dextranase treatment, wherein the dextranase is coupled to a support particle, and wherein the support particle is magnetic.
A plastic leaching chamber having an arch shaped cross section, for receiving and dispersing water when buried, which chamber comprising: opposing side base flanges (24L, 24R), for providing bearing area to support the chamber during use; opposing sidewalls (28L, 28R), each sidewall running upwardly and inwardly from a base flange; a top, connecting the upper ends of the sidewalls (28L, 28R); the interconnected combination of opposing sidewalls (28L, 28R) and top forming an arch-curve wall which defines a concave chamber interior; a plurality of alternating peak corrugations and valley corrugations running in said arch-curve wall, transverse to the length of the chamber, from proximity of one base flange to proximity of the opposing side base flange; and characterised by, one or more pillars, each pillar having a pillar wall extending downwardly into the chamber interior from the top of the arch-curve wall of the chamber, and each pillar comprising a pillar base, a portion of which base in combination with the base flanges (24L, 24R) at least provides bearing area and has an elevation which is proximate the elevation of a base plane of said base flanges (24L, 24R). opposing side base flanges (24L, 24R), for providing bearing area to support the chamber during use; opposing sidewalls (28L, 28R), each sidewall running upwardly and inwardly from a base flange; a top, connecting the upper ends of the sidewalls (28L, 28R); the interconnected combination of opposing sidewalls (28L, 28R) and top forming an arch-curve wall which defines a concave chamber interior; a plurality of alternating peak corrugations and valley corrugations running in said arch-curve wall, transverse to the length of the chamber, from proximity of one base flange to proximity of the opposing side base flange; and characterised by, the interconnected combination of opposing sidewalls (28L, 28R) and top forming an arch-curve wall which defines a concave chamber interior; a plurality of alternating peak corrugations and valley corrugations running in said arch-curve wall, transverse to the length of the chamber, from proximity of one base flange to proximity of the opposing side base flange; and characterised by, one or more pillars, each pillar having a pillar wall extending downwardly into the chamber interior from the top of the arch-curve wall of the chamber, and each pillar comprising a pillar base, a portion of which base in combination with the base flanges (24L, 24R) at least provides bearing area and has an elevation which is proximate the elevation of a base plane of said base flanges (24L, 24R).
A drug delivery composition comprising: a particulate material comprising rough mesoporous hollow silica nanoparticles having a size from 100 nm to 3000 nm; wherein the rough mesoporous hollow silica nanoparticles comprise a mesoporous shell, the external surface of which has projections thereon, wherein the size of the projections ranges from 5 nm to 1000 nm, wherein the projections are spaced apart from each other, and wherein the projections comprise strands or cylinders or fibres extending outwardly from the mesoporous shell of the rough mesoporous hollow silica nanoparticles; the rough mesoporous hollow silica nanoparticles having one or more active molecules or compounds thereon, wherein the compounds are selected from: a hydrophobic protein, a hydrophobic drug or a hydrophobic therapeutic agent. wherein the rough mesoporous hollow silica nanoparticles comprise a mesoporous shell, the external surface of which has projections thereon, wherein the size of the projections ranges from 5 nm to 1000 nm, wherein the projections are spaced apart from each other, and wherein the projections comprise strands or cylinders or fibres extending outwardly from the mesoporous shell of the rough mesoporous hollow silica nanoparticles; the rough mesoporous hollow silica nanoparticles having one or more active molecules or compounds thereon, wherein the compounds are selected from: a hydrophobic protein, a hydrophobic drug or a hydrophobic therapeutic agent.
A method for performing a thermal melt analysis within a thermal melt analysis module, comprising the steps of: (a) maintaining a thermal block within the thermal melt analysis module at a steady-state temperature; (b) placing a receptacle within the module in thermal contact with the thermal block, wherein the receptacle has contents that are at an initial temperature that is lower than the steady-state temperature of the thermal block; (c) allowing the receptacle to dwell in thermal contact with the thermal block for a predetermined dwell period so that the temperature of the contents of the receptacle increases from the initial temperature toward a temperature that is higher than the initial temperature; (d) while the temperature of the contents of the receptacle is increasing from the initial temperature toward the temperature that is higher than the initial temperature, measuring a first optical signal emitted from the contents of the receptacle against temperature or time; and (e) detecting a change in the measured optical signal as the temperature of the contents of the receptacle increases from the initial temperature toward the temperature that is higher than the initial temperature. (a) maintaining a thermal block within the thermal melt analysis module at a steady-state temperature; (b) placing a receptacle within the module in thermal contact with the thermal block, wherein the receptacle has contents that are at an initial temperature that is lower than the steady-state temperature of the thermal block; (c) allowing the receptacle to dwell in thermal contact with the thermal block for a predetermined dwell period so that the temperature of the contents of the receptacle increases from the initial temperature toward a temperature that is higher than the initial temperature; (d) while the temperature of the contents of the receptacle is increasing from the initial temperature toward the temperature that is higher than the initial temperature, measuring a first optical signal emitted from the contents of the receptacle against temperature or time; and (e) detecting a change in the measured optical signal as the temperature of the contents of the receptacle increases from the initial temperature toward the temperature that is higher than the initial temperature.
A process for preparing a meat and carbohydrate based feline food composition consisting essentially of a solid and homogeneous mass that substantially conforms to the shape of its container comprising contacting a meat component, a grain component, and a heated gravy component for a time and at a temperature sufficient to prepare a food composition consisting essentially of a solid and homogeneous mass, wherein the composition comprises at least 65% by weight meat, and wherein the meat component is not heated prior to contacting the heated gravy.
Management and control method for at least one operation parameter of a pressurization system comprising a pump having an impeller and operated by an electric motor, the method comprising a preliminary step of storing, in test bench conditions, nominal operation parameters of the pressurization system in a memory portion of a control electronic unit of the pressurization system, said nominal operation parameters including a nominal maximum delivery pressure (Hmaxnom) and a nominal suction pressure (Hinnom), the method further comprising, in operating conditions, the steps of: - detection of an operating pressure value at a delivery duct of said pressurization system, by means of a single pressure sensor; - estimation of a motor rotation speed of said pressurization system based on said operating pressure value and on the number of blades of the impeller of the pump; - estimation of a hydraulic flow rate and a hydraulic head by means of an algorithm which is implemented in a control software based on said operating pressure value detected by means of said single pressure sensor, wherein, for the estimation of the hydraulic head, a suction pressure (Hinfr) is estimated using the delivery pressure (Hmaxf) in operating conditions and in conditions of zero flow rate, the nominal maximum delivery pressure (Hmaxnom), and the nominal suction pressure (Hinnom); - processing of an on/off signal of said pressurization system as a -result of said estimations. - detection of an operating pressure value at a delivery duct of said pressurization system, by means of a single pressure sensor; - estimation of a motor rotation speed of said pressurization system based on said operating pressure value and on the number of blades of the impeller of the pump; - estimation of a hydraulic flow rate and a hydraulic head by means of an algorithm which is implemented in a control software based on said operating pressure value detected by means of said single pressure sensor, wherein, for the estimation of the hydraulic head, a suction pressure (Hinfr) is estimated using the delivery pressure (Hmaxf) in operating conditions and in conditions of zero flow rate, the nominal maximum delivery pressure (Hmaxnom), and the nominal suction pressure (Hinnom); - processing of an on/off signal of said pressurization system as a -result of said estimations.
A method of providing combustion-related information related to a combustion of solid fuel, such as wood, in a wood-burning stove, the wood-burning stove comprising a combustion chamber defined by an inner stove, the inner stove having an outside, the wood-burning stove further comprising a combustion monitoring system, the combustion monitoring system comprising a temperature sensor arranged substantially at said outside of the inner stove, and a processing and communication arrangement being coupled to said temperature sensor and further providing a communicative coupling for enabling connection to an output device, wherein the temperature sensor, during combustion of said solid fuel, provides a temperature sensor output, wherein the processing and communication arrangement accepts a connection from the output device and transmits temperature representations relating to the combustion of solid fuel inside said combustion chamber, the temperature representations being derived from the temperature sensor output, wherein the output device processes said temperature representations to provide an output based on said temperature representations, and wherein said output device presents combustion-related information to a user of said output device, characterized in that said combustion-related information comprises an estimated time for optimally refilling the combustion chamber with solid fuel such as wood. a temperature sensor arranged substantially at said outside of the inner stove, and a processing and communication arrangement being coupled to said temperature sensor and further providing a communicative coupling for enabling connection to an output device,
A metal-cored welding wire electrode (40; 50; 154; 254) for high deposition rate welding comprising: a metallic sheath (42; 52) encapsulating a granular core (44; 54), wherein the granular core comprises between 20 and 30 wt. % of the metal-cored welding wire electrode; wherein the metal-cored welding wire electrode comprises, by weight of the metal-cored welding wire electrode: 0.01 to 0.03 wt. % sulfur, 0 to 0.12 wt. % carbon, and 0 to 1 wt. % nickel; characterized in that the metal-cored welding wire electrode comprises, by weight of the metal-cored welding wire electrode, 0.01 to 0.15 wt. % of a bead wetting agent; wherein the bead wetting agent consists of one or more of selenium, tellurium, arsenic, gallium, and tin. a metallic sheath (42; 52) encapsulating a granular core (44; 54), wherein the granular core comprises between 20 and 30 wt. % of the metal-cored welding wire electrode; wherein the metal-cored welding wire electrode comprises, by weight of the metal-cored welding wire electrode: 0.01 to 0.03 wt. % sulfur, 0 to 0.12 wt. % carbon, and 0 to 1 wt. % nickel; 0.01 to 0.03 wt. % sulfur, 0 to 0.12 wt. % carbon, and 0 to 1 wt. % nickel; characterized in that the metal-cored welding wire electrode comprises, by weight of the metal-cored welding wire electrode, 0.01 to 0.15 wt. % of a bead wetting agent; wherein the bead wetting agent consists of one or more of selenium, tellurium, arsenic, gallium, and tin.
An underwater hydrocarbon extraction facility characterized by including a plurality of actuators (3, 4, 5), wherein each of the actuators comprises: an electric motor arranged to operate the actuator; communication means (6, 7, 8) configured to receive communication signals; and a controller connected to the communication means and the electric motor, said controller being operable to activate the electric motor in response to a received communication signal, wherein the communication means (6, 7, 8) of at least one of the plurality of actuators (3, 4, 5) is configured to communicate with the communication means (6, 7, 8) of another of the plurality of actuators (3, 4, 5). an electric motor arranged to operate the actuator; communication means (6, 7, 8) configured to receive communication signals; and a controller connected to the communication means and the electric motor, said controller being operable to activate the electric motor in response to a received communication signal, wherein the communication means (6, 7, 8) of at least one of the plurality of actuators (3, 4, 5) is configured to communicate with the communication means (6, 7, 8) of another of the plurality of actuators (3, 4, 5).
A method implemented in a computerized environment in which a carousel widget is displayed to a user, the method comprising: causing the carousel widget to display a first content card for a duration of a first time period, wherein the first content card is associated to a first functionality, wherein the first functionality is configured to be executed in response to a user interaction with the first content card; after the first time period expires, causing the carousel widget to perform a content switch, wherein the content switch comprises an operation of displaying a second content card instead of displaying the first content card, wherein the second content card is associated to a second functionality; wherein the method is characterized in: measuring an elapsed time since the content switch of the carousel widget; comparing the elapsed time to a time threshold, wherein said comparing is configured to classify an intention of a potential user interaction with the carousel widget after the content switch; and based on said comparing, determining whether or not to perform a responsive action, wherein the responsive action comprises blocking the second functionality or releasing a previously set blockage of the second functionality. causing the carousel widget to display a first content card for a duration of a first time period, wherein the first content card is associated to a first functionality, wherein the first functionality is configured to be executed in response to a user interaction with the first content card; after the first time period expires, causing the carousel widget to perform a content switch, wherein the content switch comprises an operation of displaying a second content card instead of displaying the first content card, wherein the second content card is associated to a second functionality; wherein the method is characterized in: measuring an elapsed time since the content switch of the carousel widget; comparing the elapsed time to a time threshold, wherein said comparing is configured to classify an intention of a potential user interaction with the carousel widget after the content switch; and based on said comparing, determining whether or not to perform a responsive action, wherein the responsive action comprises blocking the second functionality or releasing a previously set blockage of the second functionality. measuring an elapsed time since the content switch of the carousel widget; comparing the elapsed time to a time threshold, wherein said comparing is configured to classify an intention of a potential user interaction with the carousel widget after the content switch; and based on said comparing, determining whether or not to perform a responsive action, wherein the responsive action comprises blocking the second functionality or releasing a previously set blockage of the second functionality.
A bi-directional resonant DC to DC power converter comprising: a bridge circuit comprising a first transistor having a gate, a collector, and an emitter, and a second transistor having a gate, a collector, and an emitter, the collector of the second transistor being coupled to the emitter of the first transistor; a resonant circuit coupled to a node between the first transistor and the second transistor, the resonant circuit having a first inductor and a first capacitor, characterized in that the first inductor is coupled to the node between the first transistor and the second transistor; and a filtering circuit is coupled to a node between the first inductor and the first capacitor, the filtering circuit comprising a second inductor and a second capacitor, wherein the first transistor is coupled in parallel with a first diode and the second transistor is coupled in parallel with a second diode. a bridge circuit comprising a first transistor having a gate, a collector, and an emitter, and a second transistor having a gate, a collector, and an emitter, the collector of the second transistor being coupled to the emitter of the first transistor; a resonant circuit coupled to a node between the first transistor and the second transistor, the resonant circuit having a first inductor and a first capacitor, characterized in that the first inductor is coupled to the node between the first transistor and the second transistor; and