mhurhangee/ep-ind-claims huggingface dataset:
A method for color correction of an image in a processing device, the method comprising: obtaining an image; determining a Laplacian matrix of the image; obtaining a first region of the image, the first region being indicative of a part of the image to be color corrected; obtaining a second region of the image, wherein the second region corresponds to a background of the image; obtaining a first recoloring image based on the second region by adjusting a color value of at least a portion of the background; determining a first corrected image based on the Laplacian matrix and the first recoloring image, the first corrected image having the first region corrected; and obtaining and outputting an output image based on the first corrected image. obtaining an image; determining a Laplacian matrix of the image; obtaining a first region of the image, the first region being indicative of a part of the image to be color corrected; obtaining a second region of the image, wherein the second region corresponds to a background of the image; obtaining a first recoloring image based on the second region by adjusting a color value of at least a portion of the background; determining a first corrected image based on the Laplacian matrix and the first recoloring image, the first corrected image having the first region corrected; and obtaining and outputting an output image based on the first corrected image.
A system, comprising: a monitor; and a processor, configured to: assign, to first voxels in a model of tissue of a chamber of a heart, respective first values of a parameter at respective locations on the tissue, the first voxels representing the locations, respectively, and some of the locations being on an endocardial surface of the tissue, and others of the locations being on an epicardial surface of the tissue, assign respective second values to second voxels in the model, a subset of which represent a portion of the tissue between the endocardial surface and the epicardial surface, by interpolating the first values, and display the model on the monitor. a monitor; and a processor, configured to: assign, to first voxels in a model of tissue of a chamber of a heart, respective first values of a parameter at respective locations on the tissue, the first voxels representing the locations, respectively, and some of the locations being on an endocardial surface of the tissue, and others of the locations being on an epicardial surface of the tissue, assign respective second values to second voxels in the model, a subset of which represent a portion of the tissue between the endocardial surface and the epicardial surface, by interpolating the first values, and display the model on the monitor. assign, to first voxels in a model of tissue of a chamber of a heart, respective first values of a parameter at respective locations on the tissue, the first voxels representing the locations, respectively, and some of the locations being on an endocardial surface of the tissue, and others of the locations being on an epicardial surface of the tissue, the first voxels representing the locations, respectively, and some of the locations being on an endocardial surface of the tissue, and others of the locations being on an epicardial surface of the tissue, assign respective second values to second voxels in the model, a subset of which represent a portion of the tissue between the endocardial surface and the epicardial surface, by interpolating the first values, and display the model on the monitor.
A structure comprising at least two unfoldable panels (11, 12, 13) and a shock absorber device intended to prevent said panels (11, 12, 13) from striking each other when they are folded against each other, characterised in that said shock absorber device comprises a support fixed to the first panel, a cover forming a stop, against which the second panel comes to bear in a bearing direction, and a damper disposed in a space formed between said support and said cover, in that said cover and said support form two elements, in that a first of said two elements comprises at least one catch (26, 27; 46, 47), in that the second of said two elements comprises at least one receptacle (28, 29) intended to receive said catch (26, 27; 46, 47), and in that said cover is configured so that said catch (26, 27; 46, 47) enters said receptacle (28, 29) through the elastic deformation of said cover.
A transgenic mouse having a polynucleotide encoding an STXBP1 (Syntaxin binding protein 1) polypeptide, which polynucleotide is operably linked to an EAAT3 (Excitatory amino-acid transporter 3) promoter, wherein said transgenic mouse has greater than wild-type expression of the STXBP1 polypeptide in at least one brain region selected from: cortex, striatum, hippocampus and cerebellum.
Cutting tool, having a cutting edge and a protective bevel that adjoins the latter and merges into a rake face, and also having a flank that adjoins the cutting edge, wherein the protective bevel has a plurality of mutually separate, geometrically defined depressions which are arranged in a single row parallel to the cutting edge, characterized in that the greatest extent (e), measured in the plane of the protective bevel, of each depression is smaller than the greatest distance (m) of the contour of a depression from the cutting edge.
A process of making a liquid detergent composition, the process comprising the steps of: providing a manufacturing line comprising, in series and in fluid communication, an upstream region, a confluence region, and a downstream region; providing a liquid base composition at the upstream region, the liquid base composition comprising at least one surfactant and at least one detergent adjunct; and combining the liquid base composition with an alkoxylated polyethyleneimine polymer in the confluence region, thereby resulting in a detergent composition at the downstream region, wherein the alkoxylated PEI polymer comprises, on an average molar basis, from 5 to 50 ethoxy groups per alkoxylated nitrogen, and from 1 to 20 propoxy groups per alkoxylated nitrogen, wherein alkoxylated PEI polymer has a degree of quaternization of 0. providing a manufacturing line comprising, in series and in fluid communication, an upstream region, a confluence region, and a downstream region; providing a liquid base composition at the upstream region, the liquid base composition comprising at least one surfactant and at least one detergent adjunct; and combining the liquid base composition with an alkoxylated polyethyleneimine polymer in the confluence region, thereby resulting in a detergent composition at the downstream region, wherein the alkoxylated PEI polymer comprises, on an average molar basis, from 5 to 50 ethoxy groups per alkoxylated nitrogen, and from 1 to 20 propoxy groups per alkoxylated nitrogen, wherein alkoxylated PEI polymer has a degree of quaternization of 0.
A method of removing paraffin-based embedding medium from a paraffin-embedded biological sample comprising: contacting the paraffin-embedded biological sample with a deparaffinizing microemulsion comprising surfactant, nonpolar organic solvent and water, wherein the surfactant is soluble in both the water and the nonpolar organic solvent, thereby transferring the paraffin to the microemulsion; and removing the microemulsion. contacting the paraffin-embedded biological sample with a deparaffinizing microemulsion comprising surfactant, nonpolar organic solvent and water, wherein the surfactant is soluble in both the water and the nonpolar organic solvent, thereby transferring the paraffin to the microemulsion; and removing the microemulsion.
A method for setting a curvature of a display panel, the method comprising: calculating, for each of a plurality of viewing locations, a difference value between a right side viewing angle of that viewing location and a left side viewing angle of that viewing location, the calculating being performed for each of a plurality of curvatures; and setting, from among the plurality of curvatures, a curvature of the display panel based on the calculated difference values, wherein the right side viewing angle is an angle between a first viewing direction of a user viewing a right end of the display panel from the viewing location and a second viewing direction the user viewing the right end of the display panel from a predetermined standard location, and the left side viewing angle is an angle between a third viewing direction the user viewing a left end of the display panel from the viewing location and a forth viewing direction the user viewing the left end of the display panel from the predetermined standard location, characterized in that the setting of the curvature of the display panel comprises: calculating, for each of the plurality of curvatures, a sum of calculated difference values regarding the plurality of viewing locations; and setting the curvature of the display panel to correspond to a curvature resulting in a smallest sum of the differences values. calculating, for each of a plurality of viewing locations, a difference value between a right side viewing angle of that viewing location and a left side viewing angle of that viewing location, the calculating being performed for each of a plurality of curvatures; and setting, from among the plurality of curvatures, a curvature of the display panel based on the calculated difference values, wherein the right side viewing angle is an angle between a first viewing direction of a user viewing a right end of the display panel from the viewing location and a second viewing direction the user viewing the right end of the display panel from a predetermined standard location, and the left side viewing angle is an angle between a third viewing direction the user viewing a left end of the display panel from the viewing location and a forth viewing direction the user viewing the left end of the display panel from the predetermined standard location, calculating, for each of the plurality of curvatures, a sum of calculated difference values regarding the plurality of viewing locations; and setting the curvature of the display panel to correspond to a curvature resulting in a smallest sum of the differences values.
A steering system comprising: a steering shaft that is telescopic in a column axial direction; a column jacket that includes a lower jacket and an upper jacket fitted with the lower jacket, that rotatably supports the steering shaft, and that is telescopic in the column axial direction during a telescopic adjustment; a fastening mechanism that makes the upper jacket fastened to be held by the lower jacket; an impact absorbing member that is supported by the lower jacket and absorbs an impact by being deformed; a first tooth member that moves in the column axial direction integrally with the upper jacket; a second tooth member that is placed in a meshed state with the first tooth member at time of fastening by the fastening mechanism, and that is placed in an unmeshed state of releasing the meshing at time of unfastening by the fastening mechanism; and a connecting member that connects the second tooth member to the lower jacket, and that is fracturable during a secondary collision; characterized by a driving member that is movable in the column axial direction integrally with the upper jacket, and that abuts on the second tooth member in the unmeshed state to fracture the connecting member and deforms the impact absorbing member via the second tooth member during the secondary collision in the unfastened state of the fastening mechanism, wherein the second tooth member in the meshed state is configured to fracture the connecting member and deform the impact absorbing member during the secondary collision in the fastened state of the fastening mechanism. a steering shaft that is telescopic in a column axial direction; a column jacket that includes a lower jacket and an upper jacket fitted with the lower jacket, that rotatably supports the steering shaft, and that is telescopic in the column axial direction during a telescopic adjustment; a fastening mechanism that makes the upper jacket fastened to be held by the lower jacket; an impact absorbing member that is supported by the lower jacket and absorbs an impact by being deformed; a first tooth member that moves in the column axial direction integrally with the upper jacket; a second tooth member that is placed in a meshed state with the first tooth member at time of fastening by the fastening mechanism, and that is placed in an unmeshed state of releasing the meshing at time of unfastening by the fastening mechanism; and a connecting member that connects the second tooth member to the lower jacket, and that is fracturable during a secondary collision; characterized by a driving member that is movable in the column axial direction integrally with the upper jacket, and that abuts on the second tooth member in the unmeshed state to fracture the connecting member and deforms the impact absorbing member via the second tooth member during the secondary collision in the unfastened state of the fastening mechanism, wherein the second tooth member in the meshed state is configured to fracture the connecting member and deform the impact absorbing member during the secondary collision in the fastened state of the fastening mechanism.
Separation apparatus for separating a mixture of oil and water, the apparatus comprising a separation chamber, an inlet into the chamber for a mixture to be separated, a plurality of separation vessels located in the chamber, each separation vessel having an upper part providing a weir to permit material to pass thereover, a connection from the chamber inlet to inlets in a lower part of each separation vessel to enable the mixture to be urged into each vessel, the chamber having an outlet for water below the weirs for water having passed thereover, the chamber having an outlet for oil and/or gas at an upper part thereof.
A footwear assembly comprising: an actuator assembly; an upper portion configured to secure a foot within the footwear assembly; a mid-sole portion coupled to the upper portion and adapted to receive a mid-sole plate to house a lacing engine, the mid-sole plate including a plurality of apertures to receive a plurality of actuators (910, 920) in the actuator assembly, the plurality of actuators (910, 920) provide access to control functions of the lacing engine; and an out-sole portion coupled to at least an inferior portion of the mid-sole portion, wherein each actuator (910, 920) of the plurality of actuators (910, 920) includes an actuator head (915, 925) and a button interface and wherein each button interface of the plurality of actuators (910, 920) extends from a central portion of the backside of the respective actuator head (915, 925), wherein the plurality of apertures in the mid-sole plate are circular and dimensioned to receive a respective actuator plate interface of the actuator assembly, wherein each of the actuator plate interfaces is a reduced cross-section cylindrical neck portion between a respective one of the actuator heads (915, 925) and an actuator frame of the actuator assembly. an actuator assembly; an upper portion configured to secure a foot within the footwear assembly; a mid-sole portion coupled to the upper portion and adapted to receive a mid-sole plate to house a lacing engine, the mid-sole plate including a plurality of apertures to receive a plurality of actuators (910, 920) in the actuator assembly, the plurality of actuators (910, 920) provide access to control functions of the lacing engine; and an out-sole portion coupled to at least an inferior portion of the mid-sole portion, wherein each actuator (910, 920) of the plurality of actuators (910, 920) includes an actuator head (915, 925) and a button interface and wherein each button interface of the plurality of actuators (910, 920) extends from a central portion of the backside of the respective actuator head (915, 925), wherein the plurality of apertures in the mid-sole plate are circular and dimensioned to receive a respective actuator plate interface of the actuator assembly, wherein each of the actuator plate interfaces is a reduced cross-section cylindrical neck portion between a respective one of the actuator heads (915, 925) and an actuator frame of the actuator assembly.
A wastewater treatment process comprising the steps of: a) providing a membrane bioreactor comprising a biological process section having one or more process tanks (44, 46) and a membrane tank, wherein hollow fiber membranes comprising a membrane film surrounding a tubular support made of braided filaments are immersed in said membrane tank; b) feeding an influent wastewater at an average feed flow rate to the process tank or tanks (44, 46) of the membrane bioreactor wherein a mixed liquor is formed in said process tank or tanks (44, 46), and directing said mixed liquor to the membrane tank; c) filtering the mixed liquor with the hollow fiber membranes immersed in the membrane tank to remove a filtered permeate from the mixed liquor and to produce a remaining concentrated mixed liquor; d) removing a portion of the remaining concentrated mixed liquor from the membrane bioreactor as waste activated sludge and returning another portion of the remaining concentrated mixed liquor to the process tank or tanks (44, 46), thus defining between the process tank or tanks (44, 46) and the membrane tank a mixed liquor recirculation loop, said loop being operated at a flow rate that is at least twice the average feed flow rate, e) maintaining a concentration of sorbent powdered activated carbon particles in the range from more than 600 mg/L to 2000 mg/L in the membrane bioreactor, wherein the powdered activated carbon particles have a particle size smaller than 0.297 mm, travel in the recirculating flow, and contact the hollow fiber membranes. a) providing a membrane bioreactor comprising a biological process section having one or more process tanks (44, 46) and a membrane tank, wherein hollow fiber membranes comprising a membrane film surrounding a tubular support made of braided filaments are immersed in said membrane tank; b) feeding an influent wastewater at an average feed flow rate to the process tank or tanks (44, 46) of the membrane bioreactor wherein a mixed liquor is formed in said process tank or tanks (44, 46), and directing said mixed liquor to the membrane tank; c) filtering the mixed liquor with the hollow fiber membranes immersed in the membrane tank to remove a filtered permeate from the mixed liquor and to produce a remaining concentrated mixed liquor; d) removing a portion of the remaining concentrated mixed liquor from the membrane bioreactor as waste activated sludge and returning another portion of the remaining concentrated mixed liquor to the process tank or tanks (44, 46), thus defining between the process tank or tanks (44, 46) and the membrane tank a mixed liquor recirculation loop, said loop being operated at a flow rate that is at least twice the average feed flow rate, e) maintaining a concentration of sorbent powdered activated carbon particles in the range from more than 600 mg/L to 2000 mg/L in the membrane bioreactor, wherein the powdered activated carbon particles have a particle size smaller than 0.297 mm, travel in the recirculating flow, and contact the hollow fiber membranes.
A light system for use in a rearview mirror assembly, comprising: light sources; a first optical element having: an elongated collection optic configured to direct light received from the light sources which are spaced along the length of the collection optic; a reflector optic in optical communication with the collection optic and configured to reflect light received from the collection optic; and light steering areas (112a, 112b, 112c) configured to steer light propagating in the first optical element, wherein light steered from each of the light steering areas (112a, 112b, 112c) exits the first optical element via an output surface located adjacent to the collection optic, wherein the light steering areas (112a, 112b, 112c) are parallel with each other and each of the light steering areas (112a, 112b, 112c) is positioned to face the light of an associated one of the light sources after said light is reflected at the reflector optic; and a second optical element in optical communication with the first optical element. light sources; a first optical element having: an elongated collection optic configured to direct light received from the light sources which are spaced along the length of the collection optic; a reflector optic in optical communication with the collection optic and configured to reflect light received from the collection optic; and light steering areas (112a, 112b, 112c) configured to steer light propagating in the first optical element, wherein light steered from each of the light steering areas (112a, 112b, 112c) exits the first optical element via an output surface located adjacent to the collection optic, wherein the light steering areas (112a, 112b, 112c) are parallel with each other and each of the light steering areas (112a, 112b, 112c) is positioned to face the light of an associated one of the light sources after said light is reflected at the reflector optic; and an elongated collection optic configured to direct light received from the light sources which are spaced along the length of the collection optic; a reflector optic in optical communication with the collection optic and configured to reflect light received from the collection optic; and light steering areas (112a, 112b, 112c) configured to steer light propagating in the first optical element, wherein light steered from each of the light steering areas (112a, 112b, 112c) exits the first optical element via an output surface located adjacent to the collection optic, wherein the light steering areas (112a, 112b, 112c) are parallel with each other and each of the light steering areas (112a, 112b, 112c) is positioned to face the light of an associated one of the light sources after said light is reflected at the reflector optic; and a second optical element in optical communication with the first optical element.
A flutter damper for a gas turbine engine, comprising: an acoustic liner configured for peak acoustical energy absorption at a frequency range that is greater than a frequency range associated with fan flutter; a chamber (118; 202); and a piezoelectric element disposed within a first surface of the chamber, wherein the first surface is one or more of a side surface and a top surface of the chamber and the chamber being configured for peak acoustical energy absorption at a frequency range that is associated with one or more fan flutter modes, and wherein the piezoelectric element is operatively connected to an electronic engine control communicating with engine sensors, characterized in that: the chamber is connected to the acoustic liner through a perforated face sheet, and in that the electronic engine control is configured to manipulate the piezoelectric element to adjust stiffness of the wall or walls of the chamber (118; 202). an acoustic liner configured for peak acoustical energy absorption at a frequency range that is greater than a frequency range associated with fan flutter; a chamber (118; 202); and a piezoelectric element disposed within a first surface of the chamber, wherein the first surface is one or more of a side surface and a top surface of the chamber and the chamber being configured for peak acoustical energy absorption at a frequency range that is associated with one or more fan flutter modes, and wherein the piezoelectric element is operatively connected to an electronic engine control communicating with engine sensors, characterized in that: the chamber is connected to the acoustic liner through a perforated face sheet, and in that the electronic engine control is configured to manipulate the piezoelectric element to adjust stiffness of the wall or walls of the chamber (118; 202). the chamber is connected to the acoustic liner through a perforated face sheet, and in that the electronic engine control is configured to manipulate the piezoelectric element to adjust stiffness of the wall or walls of the chamber (118; 202).