mhurhangee/ep-ind-claims huggingface dataset:
A method for reducing the appearance of visual artifacts caused by pixel-by-pixel energy emission variations exhibited in a portion of a display panel comprising a plurality of pixels, the method comprising: sensing, via a camera sensor, the light emitted by each of sub-pixels in the portion of the display panel, wherein sensing the light emitted by each of the sub-pixels comprises sensing the light emitted by each of the sub-pixels of the single color in the central region of the display panel; estimating energy emitted for each of the sub-pixels based on the sensing of the light emitted by each of the sub-pixels; computing a set of global and per-pixel correction factors based on a correction model and the estimated energy emitted for each of the sub-pixels, wherein computing a set of per-pixel correction factors comprises computing a set of per-pixel correction factors for the pixels in the central region, and smoothly blending the per-pixel correction factors to provide no correction towards the periphery of the display panel; and applying said global and per-pixel correction factors in real-time to image data being transmitted to said portion of said display panel. sensing, via a camera sensor, the light emitted by each of sub-pixels in the portion of the display panel, wherein sensing the light emitted by each of the sub-pixels comprises sensing the light emitted by each of the sub-pixels of the single color in the central region of the display panel; estimating energy emitted for each of the sub-pixels based on the sensing of the light emitted by each of the sub-pixels; computing a set of global and per-pixel correction factors based on a correction model and the estimated energy emitted for each of the sub-pixels, wherein computing a set of per-pixel correction factors comprises computing a set of per-pixel correction factors for the pixels in the central region, and smoothly blending the per-pixel correction factors to provide no correction towards the periphery of the display panel; and applying said global and per-pixel correction factors in real-time to image data being transmitted to said portion of said display panel.
Electric toothbrush having a brush head with a bristle support, which vibrates in two directions S1, S2 transversely with respect to the longitudinal direction L of the brush head, wherein bristles anchored in the bristle support are accordingly set in motion during the operation of the electric toothbrush, wherein the bristle support has a bristle zone having tapered bristles with narrowing tips, which are arranged in tufts, wherein the tufts comprise a multiplicity of tapered bristles, wherein the tapered bristles have a maximum diameter (nominal diameter) of 0.15 to 0.25 mm and a length of 7 to 13 mm measured from the point of emergence on the bristle support, wherein the diameter up to a distance of 5 to 6 mm from the tip is greater than 75% of the nominal diameter and decreases at a smaller distance, and wherein their tips, during the operation of the electric toothbrush, cover at most a predetermined maximum path dmax of 3 mm.
A method of manufacturing a composite structure, the method comprising: providing a curing tool; providing a plurality of composite modules comprising ramped module edges; inspecting said composite modules with an inspection system; placing the composite modules on the curing tool such that: each one of the composite modules is adjacent to at least another one of the composite modules such that edges of adjacent composite modules are disposed in overlapping relationship with respect to each other on the curing tool, and adjacent composite modules are bondable together; and curing the composite modules on the curing tool to form the composite structure; comprising compacting each composite module against a generally convex module forming surface of a module engaging member by raising a module forming platform against the module forming surface of the module engaging member such that a selected contour is imparted to each of said composite modules, and then the said inspecting, before each composite module is placed on a module placement surface of said curing tool; wherein the inspection system is an inspection scanner system having a scanner attached to the module engaging member and adapted to traverse the module forming surface. providing a curing tool; providing a plurality of composite modules comprising ramped module edges; inspecting said composite modules with an inspection system; placing the composite modules on the curing tool such that: each one of the composite modules is adjacent to at least another one of the composite modules such that edges of adjacent composite modules are disposed in overlapping relationship with respect to each other on the curing tool, and adjacent composite modules are bondable together; and each one of the composite modules is adjacent to at least another one of the composite modules such that edges of adjacent composite modules are disposed in overlapping relationship with respect to each other on the curing tool, and adjacent composite modules are bondable together; and curing the composite modules on the curing tool to form the composite structure; comprising compacting each composite module against a generally convex module forming surface of a module engaging member by raising a module forming platform against the module forming surface of the module engaging member such that a selected contour is imparted to each of said composite modules, and then the said inspecting, before each composite module is placed on a module placement surface of said curing tool; wherein the inspection system is an inspection scanner system having a scanner attached to the module engaging member and adapted to traverse the module forming surface.
An imaging system comprising: an analysis substrate comprising: a localization layer to be provided with a sample comprising a nucleotide provided with a fluorescent dye; and a sensor layer, the localization layer being on-chip relative to the sensor layer; and imaging circuitry to image the sample, the imaging circuitry comprising: an array of sensor pixels (208A-E) at the sensor layer, one or more of the array of sensor pixels (208A-E) to receive a propagation of fluorescence from the fluorescent dye; and characterised by fitting circuitry to identify, using a signal of the sensor layer, a pixel intensity distribution due to a point spread function, and determine a centroid of the pixel intensity distribution by fitting a function to the pixel intensity distribution. an analysis substrate comprising: a localization layer to be provided with a sample comprising a nucleotide provided with a fluorescent dye; and a sensor layer, the localization layer being on-chip relative to the sensor layer; and a localization layer to be provided with a sample comprising a nucleotide provided with a fluorescent dye; and a sensor layer, the localization layer being on-chip relative to the sensor layer; and imaging circuitry to image the sample, the imaging circuitry comprising: an array of sensor pixels (208A-E) at the sensor layer, one or more of the array of sensor pixels (208A-E) to receive a propagation of fluorescence from the fluorescent dye; and characterised by fitting circuitry to identify, using a signal of the sensor layer, a pixel intensity distribution due to a point spread function, and determine a centroid of the pixel intensity distribution by fitting a function to the pixel intensity distribution. an array of sensor pixels (208A-E) at the sensor layer, one or more of the array of sensor pixels (208A-E) to receive a propagation of fluorescence from the fluorescent dye; and characterised by fitting circuitry to identify, using a signal of the sensor layer, a pixel intensity distribution due to a point spread function, and determine a centroid of the pixel intensity distribution by fitting a function to the pixel intensity distribution.
A hair treatment composition comprising: i) an oligosaccharide which is maltotetraose syrup; and ii) an acrylic pressure sensitive adhesive which is a water-born random copolymer of 98% butylacrylate, 2% methylacrylic acid. i) an oligosaccharide which is maltotetraose syrup; and ii) an acrylic pressure sensitive adhesive which is a water-born random copolymer of 98% butylacrylate, 2% methylacrylic acid.
Method for opening a door of a motor vehicle, the vehicle being equipped with a device for detecting a predetermined movement of a part of the body of a user, the method being characterized in that it comprises the following steps: • equipping the device beforehand with two doppler radars, a first radar being configured to transmit waves towards the rear of the vehicle, a second radar being configured to transmit waves towards the ground, each radar comprising an antenna, means for transmitting and receiving radar waves, and means for processing reflected radar waves configured to detect the predetermined movement; • measuring, at set frequency, for each radar (R1, R2), a phase component (I1, I2) and a phase-offset component (Q1, Q2) of the reflected waves; • determining a characteristic parameter (A1, A2, F1, F2) of at least one of the two components for each radar (R1, R2); • comparing, for each radar (R1, R2), the characteristic parameter (A1, A2, F1, F2) with a predetermined form, comprising a predetermined number of peaks a characteristic value (Per) of which is greater than a predetermined persistence threshold; • if the characteristic parameter (A1, A2, F1, F2) has for the first and second radars (R1, R2) the predetermined form in a given interval of interest (Δt), • and if, in said interval of interest (Δt), the first radar also has a predetermined number of phase changes between the phase component and the phase-offset component, • then detecting the predetermined movement and opening the door, • otherwise not opening the door. • equipping the device beforehand with two doppler radars, a first radar being configured to transmit waves towards the rear of the vehicle, a second radar being configured to transmit waves towards the ground, each radar comprising an antenna, means for transmitting and receiving radar waves, and means for processing reflected radar waves configured to detect the predetermined movement; • measuring, at set frequency, for each radar (R1, R2), a phase component (I1, I2) and a phase-offset component (Q1, Q2) of the reflected waves; • determining a characteristic parameter (A1, A2, F1, F2) of at least one of the two components for each radar (R1, R2); • comparing, for each radar (R1, R2), the characteristic parameter (A1, A2, F1, F2) with a predetermined form, comprising a predetermined number of peaks a characteristic value (Per) of which is greater than a predetermined persistence threshold; • if the characteristic parameter (A1, A2, F1, F2) has for the first and second radars (R1, R2) the predetermined form in a given interval of interest (Δt), • and if, in said interval of interest (Δt), the first radar also has a predetermined number of phase changes between the phase component and the phase-offset component, • then detecting the predetermined movement and opening the door, • otherwise not opening the door.
Method for removing impurities out of taurine mother liquor and taurine mother liquor recovery, which is used for the taurine production process in the ethylene oxide process to treat the last mother liquor of taurine, comprising the following steps: (a) the last mother liquor of taurine is ion-exchanged through anion exchange resin, and the effective components are adsorbed on the anion exchange resin; then the anion exchange resin is eluted and regenerated with alkali solution, and the outlet liquor is collected; (b) ammonia mixing treatment is performed on the outlet material liquor collected in step (a), and solid-liquor separation is performed to generate mother liquor after removing impurities; (c) the mother liquor generated in step (b) enters the ammonolysis step. (a) the last mother liquor of taurine is ion-exchanged through anion exchange resin, and the effective components are adsorbed on the anion exchange resin; then the anion exchange resin is eluted and regenerated with alkali solution, and the outlet liquor is collected; (b) ammonia mixing treatment is performed on the outlet material liquor collected in step (a), and solid-liquor separation is performed to generate mother liquor after removing impurities; (c) the mother liquor generated in step (b) enters the ammonolysis step.
A synergistic fungicide composition, comprising two active components A and B, wherein the active component A is benzisothiazolinone, the active component B is dimethomorph and the weight ratio of the two components is 1:50 to 50:1.
A method, comprising: by a first wireless device: establishing a wireless link with a cellular base station; determining to coordinate channel state information reporting with a second wireless device; exchanging information with the second wireless device via a sidelink wireless link; and providing channel state information for the first wireless device to the cellular base station in a channel state information report, wherein the channel state information for the first wireless device includes a first part and a second part, wherein the first part is determined independently of the information exchanged with the second wireless device via the sidelink wireless link, and the second part is determined based at least in part on the information exchanged with the second wireless device via the sidelink wireless link. establishing a wireless link with a cellular base station; determining to coordinate channel state information reporting with a second wireless device; exchanging information with the second wireless device via a sidelink wireless link; and providing channel state information for the first wireless device to the cellular base station in a channel state information report, wherein the channel state information for the first wireless device includes a first part and a second part, wherein the first part is determined independently of the information exchanged with the second wireless device via the sidelink wireless link, and the second part is determined based at least in part on the information exchanged with the second wireless device via the sidelink wireless link.
A gateway system, comprising a control plane entity and at least one user plane entity, wherein the control plane entity is configured to allocate an internet protocol, IP, address to a user equipment, UE, generate configuration information of a data path according to the IP address and send the configuration information of the data path to the user plane entity, wherein the data path is used for connecting the user plane entity with a radio access network, RAN, a packet data network, PDN, or another network element; and the user plane entity is located between the PDN and the RAN, connected with the control plane entity and configured to receive the configuration information of the data path sent by the control plane entity and forward uplink and downlink data of the UE on the data path according to the configuration information of the data path.
Polystyrene composition or styrene copolymer composition comprising a Fischer-Tropsch derived white oil, wherein the Fischer-Tropsch derived white oil has a kinematic viscosity at 100 °C of in between more than 2 mm 2 /s and less than 7 mm 2 /s, as determined according to ISO 3014 and wherein the composition comprises from 1 to 3 wt% of the Fischer-Tropsch derived white oil.
Mounting rail for an insert assembly provided for fixing in an installation cage of a computer, wherein the mounting rail comprises at least - one bearing surface for fixing in a guide rail of the installation cage and - one fastening for the insert assembly, whereby the mounting rail can be fixed laterally on the insert assembly, and wherein the mounting rail comprises a lever at a first end, characterized in that the lever is mounted on a shaft such that an eccentric is formed and, by actuating the lever in the installed state, the mounting rail is lifted in the direction of the insert assembly. - one bearing surface for fixing in a guide rail of the installation cage and - one fastening for the insert assembly, whereby the mounting rail can be fixed laterally on the insert assembly, and wherein
A roof system comprising, in sequence: a support structure; a mineral wool insulation panel comprising mineral fibres and a non-woven veil secured to its upper surface by a binder; and an overlying weatherproof membrane secured to the mineral wool insulation panel by an adhesive, characterised in that the adhesive penetrates through securing portions of the non-woven veil to provide an adhesive connection between the mineral fibres of the insulating panel and the weatherproof membrane, and in which the securing portions make up between 5% and 95% of the surface area of the non-woven veil, notably in which the securing portions make up between 15% and 85% of the surface area of the non-woven veil.
A method for estimating the temperature of the exhaust gases produced by an internal combustion engine including a combustion chamber, in which a total quantity of fuel (Qtot_carb) is injected, the method including the steps of: - determining the admission temperature of the gases entering into the combustion chamber, - determining the total quantity of fuel (Qtot_carb) injected in the combustion chamber, - estimating the temperature of the exhaust gases from the admission temperature and the total injected quantity of fuel (Qtot_carb), characterized in that the temperature of the exhaust gases is estimated from a logarithmic relation between the ratio of the temperature of the exhaust gases by the admission temperature and the total injected quantity of fuel (Qtot_carb). - determining the admission temperature of the gases entering into the combustion chamber, - determining the total quantity of fuel (Qtot_carb) injected in the combustion chamber, - estimating the temperature of the exhaust gases from the admission temperature and the total injected quantity of fuel (Qtot_carb),
A method, operable on a wireless user equipment UE device, for generating an outgoing cellular call as an enterprise call, wherein said outgoing cellular call is originated towards a called party and where the UE device has an enterprise address when attached to a VoIP enterprise network and a non-enterprise address when attached to a cellular telephony network, the method comprising: upon blocking all incoming calls to the UE device, sending a request comprising said enterprise address over a data channel to a network node in the VoIP enterprise network for initiating an outgoing call leg from the network node via the cellular telephony network to the UE device that is to be patched with an outgoing call leg from the network node via the cellular telephony network to the called party; starting a timer to determine if the outgoing call leg to the UE device is received as an incoming call within a time window after the request has been sent; when receiving said incoming call from said network node before expiry of the timer, determining that said incoming call is related to the request by identifying that the incoming call contains said enterprise address as a calling line identity; in response to this determination, suppressing generation of an alert to the enterprise user and stopping the timer; and upon establishment of the call leg to the UE device, providing an indication to said network node that the call leg to the UE device has been established such that the network node establishes the call leg to the called party. upon blocking all incoming calls to the UE device, sending a request comprising said enterprise address over a data channel to a network node in the VoIP enterprise network for initiating an outgoing call leg from the network node via the cellular telephony network to the UE device that is to be patched with an outgoing call leg from the network node via the cellular telephony network to the called party; starting a timer to determine if the outgoing call leg to the UE device is received as an incoming call within a time window after the request has been sent; when receiving said incoming call from said network node before expiry of the timer, determining that said incoming call is related to the request by identifying that the incoming call contains said enterprise address as a calling line identity; in response to this determination, suppressing generation of an alert to the enterprise user and stopping the timer; and upon establishment of the call leg to the UE device, providing an indication to said network node that the call leg to the UE device has been established such that the network node establishes the call leg to the called party.
A turbofan engine comprising: a fan section including a plurality of fan blades rotatable about an engine axis generating an airflow; a bypass passage through which the airflow passes; and a fan exit guide vane assembly including a plurality of airfoils disposed between an inner platform wall and an outer platform wall, wherein at least one of the inner platform wall and the outer platform wall includes a contoured surface between adjacent ones of the plurality of airfoils, and wherein the contoured surface includes at least one concave region and at least one convex region, characterized in that the at least one convex region includes first and second convex regions (82a, 182a) adjacent to first and second airfoils of the plurality of airfoils, respectively; wherein convex portions (82a, 182a) are adjacent to the vanes trailing edges and extend toward a midchord region of the vane. a fan section including a plurality of fan blades rotatable about an engine axis generating an airflow; a bypass passage through which the airflow passes; and a fan exit guide vane assembly including a plurality of airfoils disposed between an inner platform wall and an outer platform wall, wherein at least one of the inner platform wall and the outer platform wall includes a contoured surface between adjacent ones of the plurality of airfoils, and wherein the contoured surface includes at least one concave region and at least one convex region, characterized in that the at least one convex region includes first and second convex regions (82a, 182a) adjacent to first and second airfoils of the plurality of airfoils, respectively; wherein convex portions (82a, 182a) are adjacent to the vanes trailing edges and extend toward a midchord region of the vane.