mhurhangee/ep-ind-claims huggingface dataset:
In synchronized emulation of programs for a target system on a host system, in which the target system has slower clock speeds or system component response times than the host system, and one or more emulated program assets for the target system is synchronized with one or more host outputs of the host system, a method for selective acceleration of processing of emulated program assets on the host system, the method comprising: a) processing the synchronized emulated program assets on the host system; b) detecting a need for synchronization between the emulated program assets and a host output; c) when the need for synchronization is not detected, unlocking synchronization of processing of the one or more emulated program assets and the one or more host outputs; d) accelerating processing on the host system of those of the one or more emulated program assets for which synchronization has been unlocked by processing those of the one or more emulated program assets for which synchronization has been unlocked at a clock speed that is higher than the clock speed of the target system. a) processing the synchronized emulated program assets on the host system; b) detecting a need for synchronization between the emulated program assets and a host output; c) when the need for synchronization is not detected, unlocking synchronization of processing of the one or more emulated program assets and the one or more host outputs; d) accelerating processing on the host system of those of the one or more emulated program assets for which synchronization has been unlocked by processing those of the one or more emulated program assets for which synchronization has been unlocked at a clock speed that is higher than the clock speed of the target system.
An illumination system comprising: - an LED driver for generating a controllable output voltage (Vi), the LED driver having two output terminals (131, 132) coupled to two input terminals (121, 122) of an LED system, wherein the LED driver is a voltage source or a current source; and - the LED system comprising: - a first group of LEDs having a first group threshold voltage; - a second group of LEDs having a second group threshold voltage; - passive current distribution means in the form of a passive impedance, coupled only in series with the first LED group; and - two input terminals (121, 122), wherein the first group of LEDs in series with the passive current distribution means is coupled between the two input terminals (121, 122); wherein the first group threshold voltage is smaller than the second group threshold voltage, and wherein the passive impedance is sufficiently large such that a current of the first group of LEDs is determined by the passive impedance, wherein the second group of LEDs is coupled to a node of a voltage divider formed by two resistors (431, 432) connected in series between the input terminals (121, 122). - an LED driver for generating a controllable output voltage (Vi), the LED driver having two output terminals (131, 132) coupled to two input terminals (121, 122) of an LED system, wherein the LED driver is a voltage source or a current source; and - the LED system comprising: - a first group of LEDs having a first group threshold voltage; - a second group of LEDs having a second group threshold voltage; - passive current distribution means in the form of a passive impedance, coupled only in series with the first LED group; and - two input terminals (121, 122), wherein the first group of LEDs in series with the passive current distribution means is coupled between the two input terminals (121, 122); - a first group of LEDs having a first group threshold voltage; - a second group of LEDs having a second group threshold voltage; - passive current distribution means in the form of a passive impedance, coupled only in series with the first LED group; and - two input terminals (121, 122), wherein the first group of LEDs in series with the passive current distribution means is coupled between the two input terminals (121, 122); wherein the first group threshold voltage is smaller than the second group threshold voltage, and wherein the passive impedance is sufficiently large such that a current of the first group of LEDs is determined by the passive impedance, wherein the second group of LEDs is coupled to a node of a voltage divider formed by two resistors (431, 432) connected in series between the input terminals (121, 122).
A method for controlling a mobile terminal, the method comprising: displaying a first image and a second image, the first and second images reflecting a binocular disparity to form a three dimensional image; identifying at least one editing target from the three dimensional image according to a user input; determining 3D position information of the editing target, the 3D position information comprising an x-axis rotation value, a y-axis rotation value and a z-axis depth value corresponding to a first observation angle at which the user views the editing target; transforming the editing target to correspond to a second observation angle at which a user views the front side of the editing target; synthesizing a 3D object into the transformed editing target of the first image; synthesizing the 3D object, into the transformed editing target of the second image in consideration of the binocular disparity; retransforming the transformed editing target including the 3D object such that it corresponds to the first observation angle; and synthesizing the retransformed editing target into the first and second images. displaying a first image and a second image, the first and second images reflecting a binocular disparity to form a three dimensional image; identifying at least one editing target from the three dimensional image according to a user input; determining 3D position information of the editing target, the 3D position information comprising an x-axis rotation value, a y-axis rotation value and a z-axis depth value corresponding to a first observation angle at which the user views the editing target; transforming the editing target to correspond to a second observation angle at which a user views the front side of the editing target; synthesizing a 3D object into the transformed editing target of the first image; synthesizing the 3D object, into the transformed editing target of the second image in consideration of the binocular disparity; retransforming the transformed editing target including the 3D object such that it corresponds to the first observation angle; and synthesizing the retransformed editing target into the first and second images.
A method being performed by a User Equipment, UE, said method comprising: generating a physical random access channel PRACH transmission according to a format that specifies a cyclic prefix duration equal to an integer multiple of a time period, the time period being equal to 1/30.72 μs, the integer multiple being divisible by 48; and transmitting the PRACH transmission. generating a physical random access channel PRACH transmission according to a format that specifies a cyclic prefix duration equal to an integer multiple of a time period, the time period being equal to 1/30.72 μs, the integer multiple being divisible by 48; and transmitting the PRACH transmission.
A method, comprising: determining a weather forecast that predicts a weather condition proximate to a Low Powered and Lossy Network, "LLN"; selecting link and network layer network parameters of the LLN to adjust based on the predicted weather condition; and adjusting the link and network layer network parameters to improve performance of the LLN in response to the predicted weather condition, wherein the improved performance comprises prioritising power outage notifications and power restoration notifications. determining a weather forecast that predicts a weather condition proximate to a Low Powered and Lossy Network, "LLN"; selecting link and network layer network parameters of the LLN to adjust based on the predicted weather condition; and adjusting the link and network layer network parameters to improve performance of the LLN in response to the predicted weather condition, wherein the improved performance comprises prioritising power outage notifications and power restoration notifications.
A device for radiation detection, comprising: an adjustable filter (200, 400), configured to perform filtering; a rate counter configured to estimate, based on a signal which is filtered by the adjustable filter (200, 400), a count rate of events detected by a radiation detector; a controller configured to generate a filtering control signal based on an estimated count rate which is the count rate estimated by the rate counter, and to output the filtering control signal to the filter (200, 400), the filtering control signal causing the filter (200, 400) to adjust the filtering to optimize an energy resolution; and an analog-to-digital converter configured to convert the signal from an analog signal to a digital signal, and having an adjustable sampling rate at which the analog signal is sampled; characterized in that the controller is further configured to generate a sampling control signal based on the estimated count rate, and output the sampling control signal to the analog-to-digital converter, the sampling control signal being adapted to cause the analog-to-digital converter to adjust the sampling rate based on the estimated count rate. an adjustable filter (200, 400), configured to perform filtering; a rate counter configured to estimate, based on a signal which is filtered by the adjustable filter (200, 400), a count rate of events detected by a radiation detector; a controller configured to generate a filtering control signal based on an estimated count rate which is the count rate estimated by the rate counter, and to output the filtering control signal to the filter (200, 400), the filtering control signal causing the filter (200, 400) to adjust the filtering to optimize an energy resolution; and an analog-to-digital converter configured to convert the signal from an analog signal to a digital signal, and having an adjustable sampling rate at which the analog signal is sampled; characterized in that the controller is further configured to generate a sampling control signal based on the estimated count rate, and output the sampling control signal to the analog-to-digital converter, the sampling control signal being adapted to cause the analog-to-digital converter to adjust the sampling rate based on the estimated count rate.
A sterile pharmaceutical formulation comprising an aqueous solution of phenylephrine and ketorolac in a quantity sufficient for a single injection into intraocular ophthalmic irrigation solution for use in intraocular surgery, wherein the formulation is contained in a container and the container facilitates single use and does not facilitate multiple use of the solution, wherein the solution further comprises a buffer system and is preservative free, antioxidant free and free of solubilizing agents and is free of visible precipitation and crystallization for six months at 60°C, and wherein the buffer system is selected from a sodium phosphate buffer system and a sodium citrate buffer system, and the solution is overlain by an inert gas in the container.
A pharmaceutical composition in the form of a tablet comprising: i) a core composition comprising a compound A: or a pharmaceutically acceptable salt thereof in an amount of 5% to 25% by weight of the total core composition; a filler; a disintegrant; and a lubricant, wherein the filler comprises lactose monohydrate in an amount of 50% to 65% by weight of the total core composition; and ii) a coating formulation. i) a core composition comprising a compound A: or a pharmaceutically acceptable salt thereof in an amount of 5% to 25% by weight of the total core composition; a filler; a disintegrant; and a lubricant, wherein the filler comprises lactose monohydrate in an amount of 50% to 65% by weight of the total core composition; and ii) a coating formulation.
A machine for the continuous removal of labels from the surface of plastic containers, comprising: - a fixed treatment chamber having an inlet for the containers to be treated, at least one outlet for said containers with the labels removed and at least one portion of perforated wall for the expulsion of the removed labels; - at least one agitator rotating inside said treatment chamber and having a plurality of vanes distributed along the rotor of said agitator and provided with at least two opposite flat surfaces, - and means for making cuts to the labels adhering to the surface of said containers during transit thereof inside said chamber, characterized in that said means for making cuts to the labels comprise one or more toothed plates (40, 50, 60) mounted in a removable way on at least one of the flat surfaces of each of said vanes. - a fixed treatment chamber having an inlet for the containers to be treated, at least one outlet for said containers with the labels removed and at least one portion of perforated wall for the expulsion of the removed labels; - at least one agitator rotating inside said treatment chamber and having a plurality of vanes distributed along the rotor of said agitator and provided with at least two opposite flat surfaces, - and means for making cuts to the labels adhering to the surface of said containers during transit thereof inside said chamber,
Lignin derivative comprising a unit having the general formula: in which: R 1, R 2, R 3 and R 4, which may identical or different, each represent a hydrogen atom, an -OMe methoxy group, a hydroxyl group, optionally protected by a hydroxyl-protecting group, or a motif, R 5 represents a hydrogen atom, a hydroxyl-protecting group or a motif, A represents an oxygen atom, a sulfur atom or an -NR' group, where R' represents a hydrogen atom or a substituent not including any mesomeric-effect electron-withdrawing group conjugated to the aromatic ring, R' 1, R' 2, R' 3 and R' 4, which may be identical or different, each represent a hydrogen atom or a substituent not including any mesomeric-effect electron-withdrawing group conjugated to the aromatic ring, one substituent among R' 1, R' 2, R' 3 and R' 4 representing the covalent bond with the benzylic carbon, or one of the salts thereof. R 1, R 2, R 3 and R 4, which may identical or different, each represent a hydrogen atom, an -OMe methoxy group, a hydroxyl group, optionally protected by a hydroxyl-protecting group, or a motif, R 5 represents a hydrogen atom, a hydroxyl-protecting group or a motif, A represents an oxygen atom, a sulfur atom or an -NR' group, where R' represents a hydrogen atom or a substituent not including any mesomeric-effect electron-withdrawing group conjugated to the aromatic ring, R' 1, R' 2, R' 3 and R' 4, which may be identical or different, each represent a hydrogen atom or a substituent not including any mesomeric-effect electron-withdrawing group conjugated to the aromatic ring,
Inhaler component for forming a vapour/air mixture or/and condensation aerosol by evaporation of a liquid material and, if appropriate, condensation of the formed vapour, comprising: a) an electric heating element for evaporating a portion of the liquid material, b) a wick with a capillary structure, which wick forms a composite with the heating element and supplies the heating element automatically with the liquid material, c) a carrier plate which carries the composite, d) a capillary gap formed at least partially by the carrier plate and automatically supplying the composite with the liquid material, by means of an end portion of the wick extending into the capillary gap, and e) a liquid container which contains the liquid material and from which the capillary gap draws the liquid material, characterized in that the carrier plate bears at least in part on the liquid container. a) an electric heating element for evaporating a portion of the liquid material, b) a wick with a capillary structure, which wick forms a composite with the heating element and supplies the heating element automatically with the liquid material, c) a carrier plate which carries the composite, d) a capillary gap formed at least partially by the carrier plate and automatically supplying the composite with the liquid material, by means of an end portion of the wick extending into the capillary gap, and e) a liquid container which contains the liquid material and from which the capillary gap draws the liquid material,
A coating composition comprising: at least one alkyd binder having an oil content of at least 45 wt% and at most 85 wt%, a modified alkyd binder, or a combination thereof; at least one amine or imine component selected from the group comprising: polyaspartic acids and esters thereof, (meth)acrylate/aspartate amines, aldimines, ketimines, and combinations thereof; and at least one isocyanate compound. at least one alkyd binder having an oil content of at least 45 wt% and at most 85 wt%, a modified alkyd binder, or a combination thereof; at least one amine or imine component selected from the group comprising: polyaspartic acids and esters thereof, (meth)acrylate/aspartate amines, aldimines, ketimines, and combinations thereof; and at least one isocyanate compound.
A coating material comprising an aqueous emulsion obtainable by polymerizing (b) a polymerizable unsaturated monomer in the presence of a copolymer having a carboxyl group, wherein the copolymer having a carboxyl group has a chemical structure derived from a (meth)acrylic resin, the polymerizable unsaturated monomer (b) is composed only of a (meth)acrylic acid ester, and the copolymer having a carboxyl group is blended in an amount of 10 to 50 parts by mass based on 100 parts by mass of the total mass of the polymerizable unsaturated monomer (b). the copolymer having a carboxyl group has a chemical structure derived from a (meth)acrylic resin, the polymerizable unsaturated monomer (b) is composed only of a (meth)acrylic acid ester, and the copolymer having a carboxyl group is blended in an amount of 10 to 50 parts by mass based on 100 parts by mass of the total mass of the polymerizable unsaturated monomer (b).
A cylindrical rotor for the treatment of turf, the rotor being adapted to be driven in rotation about a horizontal axis, and provided with wear-resistant teeth adapted to penetrate the turf and be driven below turf level, the teeth extending along two helical tracks on the rotor so as to be capable of selectively removing thatch from the turf to a desired depth below the turf level, the teeth being individually attached to the rotor so as to be capable of individual removal for replacement or refurbishing or for reconfiguring the rotor, characterised in that the teeth are connected to adjacent teeth.
Method for determining the elevation angle (α) of a signal received by an ultrasound sensor, the method comprising the steps of: - providing an ultrasound sensor with a frequency-dependent radiation pattern (2.1); - transmitting at least a first ultrasound wave at a first frequency; - transmitting at least a second ultrasound wave at a second frequency different to the first frequency; - receiving reflections of the first and second ultrasound wave, said reflections being caused by a certain object; - determining the elevation angle (α) of the first and second reflected ultrasound wave based on the amplitudes of the reflections of the first and second ultrasound wave. wherein determining the elevation angle (α) is performed by calculating a ratio between the amplitudes of received reflections of first and second ultrasound wave and mapping the calculated ratio to an elevation angle (α), wherein said mapping is performed based on a predetermined ratio curve or ratio dataset which associates a certain amplitude ratio to an elevation angle, characterized in that determining the elevation angle (α) comprises removing ambiguities of the radiation pattern (2.1) in vertical direction, wherein ambiguities of the radiation pattern in vertical direction are removed by using at least one ultrasound sensor providing an asymmetric radiation pattern in vertical direction. - providing an ultrasound sensor with a frequency-dependent radiation pattern (2.1); - transmitting at least a first ultrasound wave at a first frequency; - transmitting at least a second ultrasound wave at a second frequency different to the first frequency; - receiving reflections of the first and second ultrasound wave, said reflections being caused by a certain object; - determining the elevation angle (α) of the first and second reflected ultrasound wave based on the amplitudes of the reflections of the first and second ultrasound wave. wherein determining the elevation angle (α) is performed by calculating a ratio between the amplitudes of received reflections of first and second ultrasound wave and mapping the calculated ratio to an elevation angle (α), wherein said mapping is performed based on a predetermined ratio curve or ratio dataset which associates a certain amplitude ratio to an elevation angle, characterized in that determining the elevation angle (α) comprises removing ambiguities of the radiation pattern (2.1) in vertical direction, wherein ambiguities of the radiation pattern in vertical direction are removed by using at least one ultrasound sensor providing an asymmetric radiation pattern in vertical direction.
Armrest for a vehicle seat, comprising an armrest body which forms a pivot joint with a base and can be pivoted through a pivot angle (α) between a non-use position and a use position, wherein at least one damping device (17a, 17b) is provided for damping the movement of the armrest body, characterised in that the armrest has a control device (18a, 18b) which actuates the damping device (17a, 17b) in at least one first sub-range (β, γ) of the pivot angle, and in that the control device (18a, 18b) comprises a control cam (29, 32) having a control surface (30, 33), wherein the control surface (30, 33) is in contact with the damping device (17a, 17b) and moves relative to the damping device.
A waterborne curable film-forming composition comprising: a) an aqueous dispersion of polymeric acrylic particles, wherein the particles have a Z average particle size less than 80 nm as measured using dynamic light scattering and have reactive functional groups; wherein the particles are prepared from a monomer mixture comprising ethylenically unsaturated monomers that are polymerized in the presence of a branched polymer having an acid value of 40-200, wherein the branched polymer is prepared from ethylenically unsaturated monomers; b) a crosslinking agent having functional groups reactive with functional groups on the polymeric acrylic particles; and c) an aqueous dispersion of at least one additional polymer having hydroxyl and/or acid functional groups and having a Z average particle size greater than 100 nm as measured using dynamic light scattering. a) an aqueous dispersion of polymeric acrylic particles, wherein the particles have a Z average particle size less than 80 nm as measured using dynamic light scattering and have reactive functional groups; wherein the particles are prepared from a monomer mixture comprising ethylenically unsaturated monomers that are polymerized in the presence of a branched polymer having an acid value of 40-200, wherein the branched polymer is prepared from ethylenically unsaturated monomers; b) a crosslinking agent having functional groups reactive with functional groups on the polymeric acrylic particles; and c) an aqueous dispersion of at least one additional polymer having hydroxyl and/or acid functional groups and having a Z average particle size greater than 100 nm as measured using dynamic light scattering.