mhurhangee/ep-ind-claims huggingface dataset:
A hearing aid system comprising an ear-mould for a child and comprising an input transducer, a forward path, an output transducer and an electrical feedback path, the forward path comprising a signal processing unit for modifying an electrical input signal to a specific hearing profile over a predefined frequency range, wherein the predefined frequency range comprises a number of frequency bands, for which maximum forward gain values IG max for each band are stored in a memory, the maximum forward gain values IG max being used to restrict loop gain to a predetermined value in each band, the electrical feedback path comprising an adaptive filter for estimating acoustical feedback from the output to the input transducer in each band, wherein the hearing aid system further comprises a relatively slow online feedback manager unit adapted to reduce the risk of howling by decreasing the max forward gain values IG max in said ear-mould for a child in accordance with a predefined scheme comprising a) identifying current maximum feedback gain in each frequency band of the feedback path, b) calculating the loop gain in each of the frequency bands based on previously stored values of maximum forward gain and said current maximum feedback gain, c) checking whether the loop gain is above a certain maximum loop gain value in each frequency band, d1) if yes, decreasing the maximum forward gain values IG max in that frequency band, d2) if no, continue without changing the maximum forward gain in that frequency band, e) storing in a memory the new values of the maximum forward gain in each frequency band, f) repeating the algorithm a) - e) with a predefined update frequency, wherein the predefined update frequency is smaller than or equal to 0.01 Hz. a) identifying current maximum feedback gain in each frequency band of the feedback path, b) calculating the loop gain in each of the frequency bands based on previously stored values of maximum forward gain and said current maximum feedback gain, c) checking whether the loop gain is above a certain maximum loop gain value in each frequency band, d1) if yes, decreasing the maximum forward gain values IG max in that frequency band, d2) if no, continue without changing the maximum forward gain in that frequency band, e) storing in a memory the new values of the maximum forward gain in each frequency band, f) repeating the algorithm a) - e) with a predefined update frequency, wherein the predefined update frequency is smaller than or equal to 0.01 Hz.
A transmission control method, applied to a master node device, which controls data duplication transmission through a Radio Resource Control, RRC, message, the method comprises: controlling, by the master node device, an on-off state of a data duplication transmission mode; characterized in that the method further comprises: sending, by the master node device, a notification message to a secondary node device, wherein the notification message indicates that the data duplication transmission mode is in the on state or the data duplication transmission mode is in the off state; wherein the controlling, by the master node device, an on-off state of a data duplication transmission mode, comprises: sending an RRC message to a UE to control the on-off state of the data duplication transmission mode. sending, by the master node device, a notification message to a secondary node device, wherein the notification message indicates that the data duplication transmission mode is in the on state or the data duplication transmission mode is in the off state; wherein the controlling, by the master node device, an on-off state of a data duplication transmission mode, comprises: sending an RRC message to a UE to control the on-off state of the data duplication transmission mode.
A link aggregation method, comprising: receiving, by a Software Defined Network, SDN, controller, Link Aggregation Control Protocol, LCAP, packets belonging to a same aggregation group from a network device outside of an SDN via an SDN edge device; selecting, by the SDN controller, ports from among ports on the SDN edge device that have received LACP packets as selected ports of the aggregation group according to an aggregation strategy; informing the network device of the SDN edge device at which the selected ports are located, so as to cause the network device to negotiate with the SDN edge device to complete a link aggregation; wherein said informing comprises the SDN controller sending LACP packets to the network device via an SDN edge device. receiving, by a Software Defined Network, SDN, controller, Link Aggregation Control Protocol, LCAP, packets belonging to a same aggregation group from a network device outside of an SDN via an SDN edge device; selecting, by the SDN controller, ports from among ports on the SDN edge device that have received LACP packets as selected ports of the aggregation group according to an aggregation strategy; informing the network device of the SDN edge device at which the selected ports are located, so as to cause the network device to negotiate with the SDN edge device to complete a link aggregation; wherein said informing comprises the SDN controller sending LACP packets to the network device via an SDN edge device.
A circular touch sensor comprising: a substrate; and a first sensor and a plurality of second sensors provided on the substrate, and configured to sense a location and a force of a touch, wherein the first sensor is disposed in a central area of one surface of the substrate, the plurality of second sensors are arranged to surround the first sensor, and a width of the plurality of second sensors increases as a distance from the central area increases, wherein the plurality of second sensors are provided on another surface facing the one surface of the substrate, and wherein the plurality of second sensors are capacitive sensors, characterized in that the first sensor is a force sensing sensor, and the circular touch sensor further comprises a sensor controller adapted to compute an azimuth of the location of the touch using sensing signals obtained from the plurality of second sensors, a radius of the location of the touch using a time difference between the touch being sensed by the first sensor and the touch being sensed by the second sensor, and an intensity of the force of the touch using sensing signals obtained from the first sensor. a substrate; and a first sensor and a plurality of second sensors provided on the substrate, and configured to sense a location and a force of a touch, wherein the first sensor is disposed in a central area of one surface of the substrate, the plurality of second sensors are arranged to surround the first sensor, and a width of the plurality of second sensors increases as a distance from the central area increases, wherein the plurality of second sensors are provided on another surface facing the one surface of the substrate, and wherein the plurality of second sensors are capacitive sensors, characterized in that the first sensor is a force sensing sensor, and the circular touch sensor further comprises a sensor controller adapted to compute an azimuth of the location of the touch using sensing signals obtained from the plurality of second sensors, a radius of the location of the touch using a time difference between the touch being sensed by the first sensor and the touch being sensed by the second sensor, and an intensity of the force of the touch using sensing signals obtained from the first sensor.
Method for exposing a photo polymerizable material for solidification of material layer by layer to build a 3D object, comprising the following steps: - dividing the image to be exposed into a number of sub images with an internal distance of at least one pixel, - increasing resolution of the solidificated material by utilizing sub-pixelation methods that divides each pixel of the sub images into sub pixels, and - exposing the sub images with increased resolution sequentially onto the photo polymerizable material by means of an electronic light projector by using image scrolling while the light projector is in motion relative to the exposed material. - dividing the image to be exposed into a number of sub images with an internal distance of at least one pixel, - increasing resolution of the solidificated material by utilizing sub-pixelation methods that divides each pixel of the sub images into sub pixels, and - exposing the sub images with increased resolution sequentially onto the photo polymerizable material by means of an electronic light projector by using image scrolling while the light projector is in motion relative to the exposed material.
Process for the hydrocyanation of a hydrocarbon compound comprising at least one ethylenic unsaturation by reaction, in a liquid medium, with hydrogen cyanide in the presence of a catalyst comprising a metal element chosen from transition metals and an organophosphorus ligand, characterized in that the organophosphorus ligand comprises a compound corresponding to the general formula: in which: R 1 and R 2, which are identical or different, represent a linear or branched alkyl radical having from 1 to 12 carbon atoms which can comprise heteroatoms, or a radical comprising a substituted or unsubstituted aromatic or cycloaliphatic radical which can comprise heteroatoms, the covalent bond between P and R 1, on the one hand, and that between P and R 2, on the other hand, are P-C bonds. R 1 and R 2, which are identical or different, represent a linear or branched alkyl radical having from 1 to 12 carbon atoms which can comprise heteroatoms, or a radical comprising a substituted or unsubstituted aromatic or cycloaliphatic radical which can comprise heteroatoms, the covalent bond between P and R 1, on the one hand, and that between P and R 2, on the other hand, are P-C bonds.
A system comprising: - a DC power grid comprising a plurality of DC power lines; - an AC signal generator switchably connected to at least one of said plurality of DC grid power lines, said AC signal generator configured to transmit a locator signal along said at least one of the plurality of DC grid power lines; and - a plurality of luminaires disposed upon said DC power grid, each of said luminaires comprising a receiver configured to receive said locator signal, logic circuitry configured to calculate a distance between said luminaire and said AC signal generator based on said locator signal, memory configured to store said distance, and means for transmitting said distance to a room controller; wherein the locator signal is a periodic wave and wherein the distance between said luminaire and said AC signal generator is calculated based on phase differences of the locator signal at the plurality of luminaires; or wherein the locator signal is a standing wave and wherein the distance between said luminaire and said AC signal generator is calculated based on amplitude differences of the locator signal at the plurality of luminaires; or wherein the locator signal is a swept frequency waveform and wherein the distance between said luminaire and said AC signal generator is calculated based on frequency differences of the locator signal at the plurality of luminaires; or wherein the locator signal is a pulse and wherein the distance between said luminaire and said AC signal generator is calculated based on a propagation time differences of said locator signal at the plurality of luminaires. - a DC power grid comprising a plurality of DC power lines; - an AC signal generator switchably connected to at least one of said plurality of DC grid power lines, said AC signal generator configured to transmit a locator signal along said at least one of the plurality of DC grid power lines; and - a plurality of luminaires disposed upon said DC power grid, each of said luminaires comprising a receiver configured to receive said locator signal, logic circuitry configured to calculate a distance between said luminaire and said AC signal generator based on said locator signal, memory configured to store said distance, and means for transmitting said distance to a room controller;
Purifier for the purification of a fluid such as wastewater, the purifier comprising: - a reaction vessel for a fluid, the reaction vessel having a reaction chamber and a bottom; - a downer having a top end and a bottom end, wherein the top end of the downer is connected to a fluid collector to collect fluid from the reaction vessel, and the downer is arranged to transport the fluid towards the bottom of the reaction vessel; - a solids separation device arranged to separate solids from liquid, the solids separation device comprising a fluid inlet arranged to introduce fluid into the solids separation device and a liquid discharge arranged to remove separated liquid from the solids separation device; characterized in, that the fluid inlet of the solids separation device is connected to the bottom end of the downer, the solids separation device is located inside the reaction vessel, on or near the bottom of the reaction vessel, and the solids separation device comprises a solids collection chamber arranged to receive separated solids, said solids collection chamber comprising at least one exit for bringing fluid from the collection chamber to the reaction chamber. - a reaction vessel for a fluid, the reaction vessel having a reaction chamber and a bottom; - a downer having a top end and a bottom end, wherein the top end of the downer is connected to a fluid collector to collect fluid from the reaction vessel, and the downer is arranged to transport the fluid towards the bottom of the reaction vessel; - a solids separation device arranged to separate solids from liquid, the solids separation device comprising a fluid inlet arranged to introduce fluid into the solids separation device and a liquid discharge arranged to remove separated liquid from the solids separation device; characterized in, that the fluid inlet of the solids separation device is connected to the bottom end of the downer, the solids separation device is located inside the reaction vessel, on or near the bottom of the reaction vessel, and the solids separation device comprises a solids collection chamber arranged to receive separated solids, said solids collection chamber comprising at least one exit for bringing fluid from the collection chamber to the reaction chamber.
An operation control system for a hybrid vehicle which comprises an internal combustion engine mounted on the vehicle to drive drive-wheels of the vehicle, a generator driven by the internal combustion engine to generate electricity, a traction battery chargeable by electricity supply from the generator, and an electric motor (4, 6) supplied with electricity from the generator or the traction battery to drive drive-wheels (3, 5) of the vehicle, and a clutch to break or complete a power transmission line between the internal combustion engine and the drive wheels, and which is capable of causing the vehicle to travel in parallel mode in which the drive wheels (3, 5) are driven by the internal combustion engine and the electric motor (4, 6), capable of fuel cut control to stop fuel supply to the internal combustion engine during deceleration of the vehicle, and capable of regenerative braking using the electric motor (4, 6), the operation control system further comprising an SOC detecting section to detect SOC of the traction battery, and a charging promotion control section (20, 10b) to perform, when the vehicle traveling in parallel mode is to be decelerated and the SOC is lower than or equal to a predetermined first reference value, first charging promotion control to brake the vehicle by regenerative braking while causing the internal combustion engine to continue operating by continuing fuel supply by staying in parallel mode with the clutch engaged to complete the power transmission line, wherein in the first charging promotion control, the charging promotion control section (20, 10b) keeps the clutch engaged to complete the power transmission line and causes the internal combustion engine to continue operating to produce an output torque cancelling out a friction torque occurring in the internal combustion engine.
A method for calibrating sensor data generated by a continuous analyte sensor comprising a membrane, the method comprising: • generating sensor data using a continuous analyte sensor; • iteratively determining, with an electronic device, a sensitivity value of the continuous analyte sensor as a function of time by applying a priori information comprising sensor sensitivity information, including information relating to the thickness of the sensor membrane; and • calibrating the sensor data based at least in part on the determined sensitivity value. • generating sensor data using a continuous analyte sensor; • iteratively determining, with an electronic device, a sensitivity value of the continuous analyte sensor as a function of time by applying a priori information comprising sensor sensitivity information, including information relating to the thickness of the sensor membrane; and • calibrating the sensor data based at least in part on the determined sensitivity value.
A hydroelectric turbine generator comprising: a) an inlet; b) a plurality of wicket gates; c) a wicket gate angle adjustment mechanism; d) a plurality of runner blades; e) a runner blade pitch adjustment mechanism; f) a means for transferring torque and angular velocity to a power generator; g) a water sensor level to determine an actual water source height; h) an integrated self-contained computer based control system having closed looped control software stored thereon and executed thereby including (i) a power optimization algorithm capable of optimizing peak operational efficiency based on a runner blade angle and a power output; and (ii) a parallel Proportional-Integral-Derivative control loop capable of calculating a difference between a target water source height and an actual water source height, and to calculate the total necessary correction to the system to obtain the target water height, and (iii) modules (48, 50, 52) to determine the adjustment to the wicket gate by multiplying said correction by a scaling factor and adding an offset factor to bring the correction into an appropriate range for the wicket gate angles; i) a first controller for instructing the wicket gate angle adjustment mechanism to make the wicket gate angle adjustment; and j) a second controller for instructing the runner blade pitch adjustment mechanism to make the runner blade pitch adjustment. a) an inlet; b) a plurality of wicket gates; c) a wicket gate angle adjustment mechanism; d) a plurality of runner blades; e) a runner blade pitch adjustment mechanism; f) a means for transferring torque and angular velocity to a power generator; g) a water sensor level to determine an actual water source height; h) an integrated self-contained computer based control system having closed looped control software stored thereon and executed thereby including (i) a power optimization algorithm capable of optimizing peak operational efficiency based on a runner blade angle and a power output; and (ii) a parallel Proportional-Integral-Derivative control loop capable of calculating a difference between a target water source height and an actual water source height, and to calculate the total necessary correction to the system to obtain the target water height, and (iii) modules (48, 50, 52) to determine the adjustment to the wicket gate by multiplying said correction by a scaling factor and adding an offset factor to bring the correction into an appropriate range for the wicket gate angles; i) a first controller for instructing the wicket gate angle adjustment mechanism to make the wicket gate angle adjustment; and j) a second controller for instructing the runner blade pitch adjustment mechanism to make the runner blade pitch adjustment.
Single-rail track system, in particular a suspended electric track or floor-mounted electric track, having at least one path region which can be changed in terms of its guidance and which comprises at least two rail portions (12, 14) which follow one another along a travelway and each face one another at corresponding end sides (30, 60), which rail portions are rail parts (12, 14) which are physically separated from one another and are pivotable relative to one another about a pivot axle, wherein the rail portions (12, 14) have, along the travelway, mutually adjoining lateral running or sliding surfaces (24, 26, 80, 82) on which rolling or sliding means of a wagon can roll or slide, wherein at least one end face (50, 52) of a first end side of one of the rail portions is designed as part of a surface of rotation about the pivot axle; a second end side of the other rail portion that adjoins the end face (50, 52) of the first end side is formed in such a way that it bears in each pivoting position against the end face (50, 52) of the first end side at least by way of its edges which adjoin the lateral running or sliding surfaces (24, 26, 80, 82), characterized in that a transition body, in particular a transition plate (84, 86), which overlaps the two rail parts (12, 14) in the region of their end sides (30, 60) is arranged pivotably relative to the rail parts (12, 14) in such a way that, when the two rail parts (12, 14) are pivoted relative to one another, a lateral running or sliding surface of the transition body (84, 86) produces a contour-adapted transition between the lateral running or sliding surfaces (24, 26, 80, 82) of the two rail parts (12, 14).
A method of changing from a polymerization using a first catalyst to a polymerization using a second catalyst which is incompatible with the first catalyst in a gas-phase reactor, which comprises the steps a) stopping of the polymerization reaction using the first catalyst, b) flushing of the reactor under polymerization conditions with at least one deactivating agent comprising a volatile constituent, which is an organic compound or a mixture of organic compounds comprising at least one functional group selected from among -OR, -NR 2, -SR, =O, =S, where R is hydrogen or C 1 -C 6 -alkyl, and a nonvolatile constituent in a weight ratio V/N of from 1 to 300, c) introduction of the second catalyst into the reactor and d) continuation of the polymerization using the second catalyst. a) stopping of the polymerization reaction using the first catalyst, b) flushing of the reactor under polymerization conditions with at least one deactivating agent comprising a volatile constituent, which is an organic compound or a mixture of organic compounds comprising at least one functional group selected from among -OR, -NR 2, -SR, =O, =S, where R is hydrogen or C 1 -C 6 -alkyl, and a nonvolatile constituent in a weight ratio V/N of from 1 to 300, c) introduction of the second catalyst into the reactor and d) continuation of the polymerization using the second catalyst.
Cosmetic composition comprising, in a physiologically acceptable medium, an aqueous phase, spiculisporic acid and/or one of its salts, and at least one ester of fatty acid and (poly)glycerol which may be polyoxyalkylenated wherein the spiculisporic acid and/or one of its salts are present in an amount ranging from 0.1% to 15% by mass relative to the total mass of the composition and the quantity by mass of ester of fatty acid and optionally polyoxyalkylenated (poly)glycerol ranges from 0.1% to 20% relative to the total mass of the composition, said composition further comprising at least one organic or mineral base.
A method for producing a deodorized goat/sheep milk product, wherein the method comprises purifying a fresh goat/sheep milk or goat/sheep full cream, wherein the material is subjected to a carbon dioxide treatment during the purification, and the carbon dioxide treatment comprises: introducing carbon dioxide into the material, then refrigerating the material for 2 to 8 hours, and removing carbon dioxide; wherein the amount of carbon dioxide introduced into the material during the carbon dioxide treatment is 1000-5000 ppm; and wherein the purifying comprises steps of clarifying, homogenizing and sterilizing.