mhurhangee/ep-ind-claims huggingface dataset:
A blood vessel pressure difference correction method, wherein a blood vessel involved in the method comprises a first blood vessel and a second blood vessel, the first blood vessel and the second blood vessel intersect and are connected, and a distal demarcation point of the first blood vessel and the second blood vessel is a carina, and the method comprises: Obtaining, by using images of an image imaging probe, a plurality of blood vessel cross sections between a first end point and a second end point along a direction of a centerline of the first blood vessel; characterized by taking a proximal demarcation point of the first blood vessel and the second blood vessel as the second end point, and taking the carina as the first end point; forming, by the blood vessel cross sections, contour lines on a first blood vessel wall and a second blood vessel wall; enclosing, by the contour lines formed on the first blood vessel wall by the blood vessel cross sections, a plurality of first blood vessel convex surfaces; enclosing, by the contour lines formed on the second blood vessel wall by the blood vessel cross sections, a plurality of second blood vessel convex surfaces; intersecting, by the first blood vessel convex surfaces and the second blood vessel convex surfaces, to form a plurality of intersection lines (601, 602, 603); fitting the plurality of intersection lines into an intersection plane; calculating an area of a cutting plane according to the intersection plane, wherein the cutting plane is a second blood vessel cross section perpendicular to a centerline of the second blood vessel cross the carina; and correcting a blood vessel pressure difference by using the area of the cutting plane. Obtaining, by using images of an image imaging probe, a plurality of blood vessel cross sections between a first end point and a second end point along a direction of a centerline of the first blood vessel; characterized by taking a proximal demarcation point of the first blood vessel and the second blood vessel as the second end point, and taking the carina as the first end point; forming, by the blood vessel cross sections, contour lines on a first blood vessel wall and a second blood vessel wall; enclosing, by the contour lines formed on the first blood vessel wall by the blood vessel cross sections, a plurality of first blood vessel convex surfaces; enclosing, by the contour lines formed on the second blood vessel wall by the blood vessel cross sections, a plurality of second blood vessel convex surfaces; intersecting, by the first blood vessel convex surfaces and the second blood vessel convex surfaces, to form a plurality of intersection lines (601, 602, 603); fitting the plurality of intersection lines into an intersection plane; calculating an area of a cutting plane according to the intersection plane, wherein the cutting plane is a second blood vessel cross section perpendicular to a centerline of the second blood vessel cross the carina; and correcting a blood vessel pressure difference by using the area of the cutting plane.
A phase change ink comprising (a) a carbon black pigment, (b) a bis-urethane, and (c) a phase change ink carrier, said carrier comprising (i) a branched triamide and (ii) a Fischer-Tropsch wax having an average peak molecular weight as measured by high temperature gel permeation chromatography of from 300 to 800 and a polydispersity of from 1.001 to 3, wherein the branched triamide is of the formula wherein x, y, and z each independently represent the number of propyleneoxy repeat units and x+y+z is from 5 to 6, and wherein p, q, and r each, independently of the others, are integers representing the number of repeat (CH 2) units.
A method of manufacturing a gastric resistant protein or polysaccharide gelled composition comprising: (a) a gastric resistant natural polymer in an amount of 2% to 4% by weight of the composition; (b) a film-forming natural polymer in an amount of 25% to 40% by weight of the composition; (c) one or more plasticizers in an amount of 8% to 30% by weight of the composition; (d) a gelling agent in an amount of less than 1% by weight of the composition and (e) water, the method comprising the steps of: (i) preparing a solution comprising the film-forming natural polymer, the gastric-resistant natural polymer, a gelling agent which is CaCl 2 and the one or more plasticizers to form a gel mass; (ii) casting the gel mass into films or ribbons; and (iii) forming a capsule shell using rotary die encapsulation. (a) a gastric resistant natural polymer in an amount of 2% to 4% by weight of the composition; (b) a film-forming natural polymer in an amount of 25% to 40% by weight of the composition; (c) one or more plasticizers in an amount of 8% to 30% by weight of the composition; (d) a gelling agent in an amount of less than 1% by weight of the composition and (e) water, (i) preparing a solution comprising the film-forming natural polymer, the gastric-resistant natural polymer, a gelling agent which is CaCl 2 and the one or more plasticizers to form a gel mass; (ii) casting the gel mass into films or ribbons; and (iii) forming a capsule shell using rotary die encapsulation.
Torsion box for an aircraft stabilizing surface, said torsion box comprising a front spar, a rear spar, ribs and upper and lower stiffened skins, wherein at least one of said skins is stiffened with a plurality of stringers (33, 43) each of which extends along the skin span, characterized in that said plurality of stringers (33, 43) extends along the full skin span while having a decreasing cross section towards the skin outer edge and in that all the stringers (33, 43) are located along the skin span such that the proportions between the skin chord and the chord-wise distances between the location of each stringer (33, 43) and the front and rear spars remain substantially constant.
A method of injecting an offset into an iterative determination of a filter coefficient, c i (n), of a plurality of filter coefficients, {c i (n)}, of an adaptive filter using resources sharing, wherein only a subset of filter coefficients of the plurality of filter coefficients, {c i (n)}, is adjusted in one cycle, said method comprising: adjusting the filter coefficient, c i (n), in an iterative procedure according to an adaptive convergence algorithm (120, 120.1 to 120.L/k); during the iterative procedure: monitoring (S120, S200) the development of the determined filter coefficient, c i (n); determining (S130, S300) an offset, Off i, based on a monitored change of the filter coefficient, c i (n); and injecting (S130, S340) the determined offset, Off i, into the iterative procedure at each first time period, T 1, if the determined filter coefficient, c i (n), has not reached the steady state. adjusting the filter coefficient, c i (n), in an iterative procedure according to an adaptive convergence algorithm (120, 120.1 to 120.L/k); during the iterative procedure: monitoring (S120, S200) the development of the determined filter coefficient, c i (n); determining (S130, S300) an offset, Off i, based on a monitored change of the filter coefficient, c i (n); and injecting (S130, S340) the determined offset, Off i, into the iterative procedure at each first time period, T 1, if the determined filter coefficient, c i (n), has not reached the steady state. monitoring (S120, S200) the development of the determined filter coefficient, c i (n); determining (S130, S300) an offset, Off i, based on a monitored change of the filter coefficient, c i (n); and injecting (S130, S340) the determined offset, Off i, into the iterative procedure at each first time period, T 1, if the determined filter coefficient, c i (n), has not reached the steady state.
Window device for a motor vehicle, comprising: - a laminated glass pane having • a transparent first pane including a first structure for coupling out light; • a transparent second pane which is connected in parallel with the first pane, a film being glued between the two panes (3,); and - a lighting device (8, 10) for coupling a first light into the first pane, characterised in that - the second pane comprises a second structure (12, 13) for coupling out light, and - using the lighting device (8, 10), a second light can be coupled into the second pane independently of the first light. - a laminated glass pane having • a transparent first pane including a first structure for coupling out light; • a transparent second pane which is connected in parallel with the first pane, a film being glued between the two panes (3,); and • a transparent first pane including a first structure for coupling out light; • a transparent second pane which is connected in parallel with the first pane, a film being glued between the two panes (3,); and - a lighting device (8, 10) for coupling a first light into the first pane, characterised in that - the second pane comprises a second structure (12, 13) for coupling out light, and - using the lighting device (8, 10), a second light can be coupled into the second pane independently of the first light.
A vehicle body side structure in which a center pillar outer member of a center pillar supporting a roof of a vehicle body is halved into a center pillar outer member upper portion and a center pillar outer member lower portion, and a front door opening seal and a rear door opening seal, corresponding respectively to a front door and a rear door, are mounted to a roof side rail continuous from the center pillar and the roof and extending in a front-back direction of the vehicle body, the vehicle body side structure comprising: at coupling recessed portion where the center pillar outer member lower portion is coupled to the center pillar outer member upper portion; and a seal member for covering the coupling recessed portion, characterized in that the seal member is continuous with a front upper seal and a rear upper seal, along the roof side rail, of the front door opening seal and the rear door opening seal. at coupling recessed portion where the center pillar outer member lower portion is coupled to the center pillar outer member upper portion; and a seal member for covering the coupling recessed portion,
A method implemented by a radio network node configured to communicate with user equipments, UEs, over a radio interface, the method comprising: - estimating one or more quality factors, associated with each of a first and second network, that depend on a load, an expected UE behavior, or an uplink channel quality for one or both of first and second networks; - determining one or more network selection parameters based on the estimated one or more quality factors; and - communicating the one or more network selection parameters to at least one UE for enabling the UE to select one of the first and second networks for subsequent access by the at least one UE. - estimating one or more quality factors, associated with each of a first and second network, that depend on a load, an expected UE behavior, or an uplink channel quality for one or both of first and second networks; - determining one or more network selection parameters based on the estimated one or more quality factors; and - communicating the one or more network selection parameters to at least one UE for enabling the UE to select one of the first and second networks for subsequent access by the at least one UE.
An electronic device comprising: a touch screen display configured to comprise a touch panel; a processor configured to be electrically connected to the touch screen display; and a memory configured to be electrically connected to the processor, wherein the memory is configured to store instructions that, when executed, enable the processor to: receive, from the touch panel, data about touch or proximity of a stylus brush on or to the touch screen display; identify a first area of the touch panel related to the touch or the proximity of the stylus brush relative to the touch panel based at least partially on the data; identify a second area corresponding to a relatively high signal strength in the first area; identify a third area corresponding to a relatively low signal strength in the first area; and display at least one image on the touch screen display based on positions and/or sizes of the first area, the second area and the third area. a touch screen display configured to comprise a touch panel; a processor configured to be electrically connected to the touch screen display; and a memory configured to be electrically connected to the processor, wherein the memory is configured to store instructions that, when executed, enable the processor to: receive, from the touch panel, data about touch or proximity of a stylus brush on or to the touch screen display; identify a first area of the touch panel related to the touch or the proximity of the stylus brush relative to the touch panel based at least partially on the data; identify a second area corresponding to a relatively high signal strength in the first area; identify a third area corresponding to a relatively low signal strength in the first area; and display at least one image on the touch screen display based on positions and/or sizes of the first area, the second area and the third area. receive, from the touch panel, data about touch or proximity of a stylus brush on or to the touch screen display; identify a first area of the touch panel related to the touch or the proximity of the stylus brush relative to the touch panel based at least partially on the data; identify a second area corresponding to a relatively high signal strength in the first area; identify a third area corresponding to a relatively low signal strength in the first area; and display at least one image on the touch screen display based on positions and/or sizes of the first area, the second area and the third area.
A printing apparatus for inkjet printing on a medium, comprising: a head unit having a plurality of nozzles for ejecting ink drops onto the medium; a main scan driver configured to drive the head unit to perform main scan operations of ejecting ink drops from the nozzles while moving in a main scan direction which is predetermined; and a controller configured to control operations of printing on the medium by controlling the main scan operations of the head unit and the main scan driver, wherein, when the main scan operations are performed, the controller performs control with respect to each area of the medium such that the head unit ejects ink drops of one selected color onto a plurality of first selection pixels selected on a basis of a first mask data set and a plurality of second selection pixels selected on a basis of a second mask data set that differs from the first mask data set with regard to an arrangement of a plurality of pixels to be selected, the printing apparatus being characterized in that in a first pattern of the first mask data set and a second pattern of the second mask data set, a spatial frequency characteristic of one of the first and the second pattern is one-sided on the high frequency side, and a spatial frequency characteristic of the other one of the first and the second pattern is one-sided on the low frequency side. a head unit having a plurality of nozzles for ejecting ink drops onto the medium; a main scan driver configured to drive the head unit to perform main scan operations of ejecting ink drops from the nozzles while moving in a main scan direction which is predetermined; and a controller configured to control operations of printing on the medium by controlling the main scan operations of the head unit and the main scan driver, wherein, when the main scan operations are performed, the controller performs control with respect to each area of the medium such that the head unit ejects ink drops of one selected color onto a plurality of first selection pixels selected on a basis of a first mask data set and a plurality of second selection pixels selected on a basis of a second mask data set that differs from the first mask data set with regard to an arrangement of a plurality of pixels to be selected, the printing apparatus being characterized in that in a first pattern of the first mask data set and a second pattern of the second mask data set, a spatial frequency characteristic of one of the first and the second pattern is one-sided on the high frequency side, and a spatial frequency characteristic of the other one of the first and the second pattern is one-sided on the low frequency side.
An electronic component, comprising: a housing made of a first metallic material; a heat-generating component disposed in the housing; a heat sink configured to dissipate heat from the heat-generating component, characterized by the heatsink being disposed immediately adjacent the heat-generating component, the heat sink being made of a second metallic material different from the first metallic material; and by a sealing element being disposed between the housing and the heat sink, the sealing element insulating the second metallic material from the first metallic material. a housing made of a first metallic material; a heat-generating component disposed in the housing; a heat sink configured to dissipate heat from the heat-generating component, characterized by the heatsink being disposed immediately adjacent the heat-generating component, the heat sink being made of a second metallic material different from the first metallic material; and by a sealing element being disposed between the housing and the heat sink, the sealing element insulating the second metallic material from the first metallic material.
A curable coating composition comprising: (a) a binder comprising: (i) a film-forming resin comprising at least two functional groups, wherein the film-forming resin is selected from (meth)acrylate resins, polyurethanes, polyesters, polyamides, polyethers, polysiloxanes, epoxy resins, vinyl resins, copolymers thereof, and combinations thereof; and (ii) a curing agent reactive with the functional groups of (i); and (b) solid vulcanized rubber particles unreactive with the binder and having an average particle size of up to 85 microns, wherein the curable coating composition is a solid particulate powder coating composition which contains less than 1000 parts per million by weight (ppm) of fiberglass or is completely free of fiberglass and which is prepared by a process comprising mixing the binder (a) and the solid vulcanized rubber particles (b). (a) a binder comprising: (i) a film-forming resin comprising at least two functional groups, wherein the film-forming resin is selected from (meth)acrylate resins, polyurethanes, polyesters, polyamides, polyethers, polysiloxanes, epoxy resins, vinyl resins, copolymers thereof, and combinations thereof; and (ii) a curing agent reactive with the functional groups of (i); and (i) a film-forming resin comprising at least two functional groups, wherein the film-forming resin is selected from (meth)acrylate resins, polyurethanes, polyesters, polyamides, polyethers, polysiloxanes, epoxy resins, vinyl resins, copolymers thereof, and combinations thereof; and (ii) a curing agent reactive with the functional groups of (i); and (b) solid vulcanized rubber particles unreactive with the binder and having an average particle size of up to 85 microns,
An (Al,In,Ga)N substrate including a (Al,In,Ga)N surface offcut from the direction at an angle in a range of from 0.2 to 10 degrees, and a (Al,In,Ga)N (000 1) surface offcut from the [000 1] direction at an angle in a range of from 0.2 to 10 degrees, wherein the offcut (Al,In,Ga)N surface and the offcut (Al,In,Ga)N (000 1) surface are substantially parallel to each other and have the same magnitude offcut.
A composition comprising: a fluorinated or perfluorinated organic solvent; and a fluorinated surfactant of the general formula: where Rf is a perfluoroalkyl group having 1-6 carbon atoms; each occurrence of R 1 and R 2 is independently H or CH 3; n is 1-3; and x is 1-3. a fluorinated or perfluorinated organic solvent; and a fluorinated surfactant of the general formula: where Rf is a perfluoroalkyl group having 1-6 carbon atoms; each occurrence of R 1 and R 2 is independently H or CH 3; n is 1-3; and x is 1-3.
A method to dynamically respond to changes in device configurations, comprising: using a portable computing device to execute a first application while in a first device configuration of portrait view; displaying a first number of ribbon controls associated with an application UI associated with a first application while in the first device configuration; in response to a user actuation of a popover trigger, displaying a first number of popover controls associated with the first application while in the first device configuration; displaying a second number of ribbon controls associated with the first application while in a second device configuration of landscape view; and in response to a user actuation of the popover trigger, displaying a second number of popover controls associated with the first application while in the second device configuration; wherein a priority value of a ribbon control is used when determining whether to display the ribbon control in a ribbon or spillover the ribbon control into a popover. using a portable computing device to execute a first application while in a first device configuration of portrait view; displaying a first number of ribbon controls associated with an application UI associated with a first application while in the first device configuration; in response to a user actuation of a popover trigger, displaying a first number of popover controls associated with the first application while in the first device configuration; displaying a second number of ribbon controls associated with the first application while in a second device configuration of landscape view; and in response to a user actuation of the popover trigger, displaying a second number of popover controls associated with the first application while in the second device configuration; wherein a priority value of a ribbon control is used when determining whether to display the ribbon control in a ribbon or spillover the ribbon control into a popover.
A dental handpiece comprising (a) an adjustable bearing assembly; (b) a drive motor; and (c) a rotating spindle having a working end and an oppositely positioned drive end; characterized in that the adjustable bearing assembly comprises: (i) a ball connector affixed to the drive end of the spindle, (ii) a linear bearing adjustably affixed to the spindle so that the position of the spindle is adjustable and affixable in a direction parallel to the linear axis of the spindle by using bolts provided through holes in a linear bearing race such that the bolts physically contact the linear bearing and (iii) a spherical bearing assembly wherein said spherical bearing assembly is affixed to said ball connector at one end and affixed to the drive motor at an opposite end thereof; said drive motor having an axis of rotation and a drive bar eccentrically offset from said axis of rotation; said drive bar having a drive bar ball at an end opposite said drive motor; said spherical bearing assembly having a first ball receiving sphere configured to receive said drive bar ball, and a second ball receiving sphere adapted to receive said ball connector affixed to the drive end of the spindle, and a connecting rod positioned between and connecting said first and said second ball receiving spheres (71, 72) in a spaced opposing relation. (a) an adjustable bearing assembly; (b) a drive motor; and (c) a rotating spindle having a working end and an oppositely positioned drive end; (i) a ball connector affixed to the drive end of the spindle, (ii) a linear bearing adjustably affixed to the spindle so that the position of the spindle is adjustable and affixable in a direction parallel to the linear axis of the spindle by using bolts provided through holes in a linear bearing race such that the bolts physically contact the linear bearing and (iii) a spherical bearing assembly wherein said spherical bearing assembly is affixed to said ball connector at one end and affixed to the drive motor at an opposite end thereof;