mhurhangee/ep-ind-claims huggingface dataset:
An airplane wingtip device, comprising a transition part and a wingtip part, the inner end of the transition part being connected to the far end of an airplane wing, and the outer end of the transition part being connected to the wingtip part, wherein the wingtip part comprises a wingtip and a wing root, the wing root of the wingtip part being connected to the outer end surface of the transition part, characterized in that the wingtip part comprises at least one wingtip section, each wingtip section comprising a wingtip and a wing root respectively, the wing root of the first wingtip section being connected to the outer end of the transition part, the chord length of the wing root being smaller than the chord length of the outer end surface of the transition part if the wingtip part comprises only one wingtip section, and the wing root of the (n+1) th wingtip section being located on the wingtip of the n th wingtip section, and the chord length of the wing root of the (n+1) th wingtip section being smaller than or equal to the chord length of the wingtip of the n th wingtip section, wherein n>0.
Vehicle wheel which is provided with photovoltaic solar cells (25, 25a, 25b, 30), characterised in that it comprises: • a plurality of circuits (51, 52, 53, 54) which each comprise a plurality of photovoltaic solar cells (25, 25a, 25b, 30) and a module (MPPT) for tracking a maximum power point of the photovoltaic solar cells (25, 25a, 25b, 30) of the circuit, the photovoltaic solar cells (25, 25a, 25b, 30) of each of the circuits (51, 52, 53, 54) being arranged on a radial angular sector (26, 27, 28, 29; 31, 32, 33, 34, 35, 36) of the wheel, the different sectors being separate from each other, the photovoltaic solar cells (25, 25a, 25b, 30) of each of the circuits (51, 52, 53, 54) being connected in series, • a module (65, 80) for collecting the energy supplied by the different tracking modules (MPPT). • a plurality of circuits (51, 52, 53, 54) which each comprise a plurality of photovoltaic solar cells (25, 25a, 25b, 30) and a module (MPPT) for tracking a maximum power point of the photovoltaic solar cells (25, 25a, 25b, 30) of the circuit, the photovoltaic solar cells (25, 25a, 25b, 30) of each of the circuits (51, 52, 53, 54) being arranged on a radial angular sector (26, 27, 28, 29; 31, 32, 33, 34, 35, 36) of the wheel, the different sectors being separate from each other, the photovoltaic solar cells (25, 25a, 25b, 30) of each of the circuits (51, 52, 53, 54) being connected in series, • a module (65, 80) for collecting the energy supplied by the different tracking modules (MPPT).
An oil supply structure (1A, 1B) for a planetary gear device, the oil supply structure comprising: a planetary gear device including planetary gears, and a tubular body that rotates together with a carrier that holds said planetary gears, the tubular body including a lubricating oil introduction port formed therein; an annular body that slides against the tubular body, the annular body including a lubricating oil supply passage that communicates with the lubricating oil introduction port; a pair of seal rings attached to the tubular body or the annular body at both sides of the lubricating oil introduction port in an axial direction of the planetary gear device; bypass passages bypassing the pair of respective seal rings; and a pair of pressure reduction mechanisms disposed between the lubricating oil introduction port and the pair of seal rings or disposed outside the pair of seal rings, the pair of pressure reduction mechanisms each limiting a flow of lubricating oil between the tubular body and the annular body, characterized in that either each of the pair of pressure reduction mechanisms is a labyrinth seal; or each of the pair of pressure reduction mechanisms includes: a secondary seal ring attached to the tubular body or the annular body; and a bypass passage bypassing the secondary seal ring. a planetary gear device including planetary gears, and a tubular body that rotates together with a carrier that holds said planetary gears, the tubular body including a lubricating oil introduction port formed therein; an annular body that slides against the tubular body, the annular body including a lubricating oil supply passage that communicates with the lubricating oil introduction port; a pair of seal rings attached to the tubular body or the annular body at both sides of the lubricating oil introduction port in an axial direction of the planetary gear device; bypass passages bypassing the pair of respective seal rings; and a pair of pressure reduction mechanisms disposed between the lubricating oil introduction port and the pair of seal rings or disposed outside the pair of seal rings, the pair of pressure reduction mechanisms each limiting a flow of lubricating oil between the tubular body and the annular body, characterized in that either each of the pair of pressure reduction mechanisms is a labyrinth seal; or each of the pair of pressure reduction mechanisms includes: a secondary seal ring attached to the tubular body or the annular body; and a bypass passage bypassing the secondary seal ring. a secondary seal ring attached to the tubular body or the annular body; and a bypass passage bypassing the secondary seal ring.
A method of rendering an image of a plurality of objects of the same shape, comprising the steps of: a first rendering process of performing a first rendering process on at least one first object (102, 104) to render an image of the first object in an image memory, the first rendering process being performed in every image display processing; and a second, texture, rendering process of mapping the rendered image of the first object as a texture onto each of a plurality of second objects within the image memory, a second object being composed of fewer polygons than a first object, and rendering the second objects as the plurality of objects of the same shape in an area to be displayed of the image memory, the second rendering process being performed in respect of the display processing of each image. a first rendering process of performing a first rendering process on at least one first object (102, 104) to render an image of the first object in an image memory, the first rendering process being performed in every image display processing; and a second, texture, rendering process of mapping the rendered image of the first object as a texture onto each of a plurality of second objects within the image memory, a second object being composed of fewer polygons than a first object, and rendering the second objects as the plurality of objects of the same shape in an area to be displayed of the image memory, the second rendering process being performed in respect of the display processing of each image.
A method for determining within a software productivity system a reuse metric based on a code base, the method comprising: executing the following steps by at least one processor capable of executing instructions encoded on a computer-readable medium, determining a lines of code measure of a code base by programmatically determining the number of lines of code in the code base; creating a call graph for the code base by creating an in-memory representation of a structure of code units of the code base and calls between the code units, representing dependencies of the code units within the code base; determining a reuse percentage of the code base based on the call graph; determining an effective lines of code measure by modifying the lines of code measure using the reuse percentage of the code base, the modification comprising a scaling of the lines of code measure by the reuse percentage and one minus the reuse percentage, wherein the effective lines of code is determined with the equation: Created_Source_LOC ∗ Reuse_Ratio / 1 − Reuse_Ratio, wherein the Created_Source_Code represents the lines of source code measure and the Reuse_Ratio represents the ratio percentage; computing a reuse metric based on the effective lines of code measure; and reporting or validating the reuse metric.
An organic light-emitting display apparatus comprising: a lower substrate comprising a display area and a peripheral area situated outside the display area; a first insulating layer on the display area and the peripheral area of the lower substrate, wherein a plurality of penetration holes (ILHS) are formed in the first insulating layer in the peripheral area; a conductive layer located in the peripheral region, between the lower substrate and the first insulating layer or located in the first insulating layer, wherein a plurality of penetration openings are formed in the conductive layer;an upper substrate on the lower substrate; and a sealant in the plurality of penetration holes (ILHS) and in the plurality of penetration openings bonding the lower substrate to the upper substrate, characterized in that the first insulating layer comprises a plurality of penetration hole sets (ILHS), each of the plurality of penetration hole sets (ILHS) comprises two or more of the penetration holes (ILH1,ILH2,ILH3), and each of the plurality of penetration hole sets (ILHS) corresponds to one of the plurality of penetration openings in the conductive layer.
A battery comprising a plurality of electrochemical cells connected in series or parallel; each electrochemical cell comprising a series of primary laminates each including a negative electrode, a positive electrode, an electrolyte interposed between the negative and positive electrodes, a positive current collector extending from one side of the primary laminates and a negative current collector extending from an opposite side of the primary laminates; each electrochemical cell having a current collecting terminal connecting the positive current collectors together and a current collecting terminal connecting the negative current collectors together; the current collecting terminals each having a pair of spaced-apart arms forming a recess in which either the positive or negative current collectors are crimped together, and a folded extension arm for electrically connecting two adjacent electrochemical cells together, the folded extension arm bent backward to induce a shape memory such that two adjacent folded extension arms remain spaced apart from each other when not mechanically connected together; the electrochemical cells being electrically and mechanically connected together with a weld between the folded extension arms of adjacent current collecting terminals with a welding metal having a fusion temperature T f of less than 180oC, wherein the welded connection melts when a temperature of an electrochemical cell rises above the fusion temperature T f and the folded extension arms of the current collecting terminals spring back to their initial bent backward position thereby severing the electrical connection between the electrochemical cell having a temperature above the fusion temperature T f of the welding metal and adjacent electrochemical cells.
A method for enriching hematopoietic stem cells ("HSCs") in a sample, the method comprising: removing PTPσ + cells from a sample comprising hematopoietic stem cells, such as by sorting the cells in the sample based, at least in part, on their expression of PTPσ; and collecting the PTPσ - cells.
A robotic system for use in an environment, the robotic system comprising a multi-sectional show robot, wherein the multi-sectional show robot comprises: a primary robot comprising a controller and one or more sensors, wherein the one or more sensors are configured to acquire feedback indicative of a first environment surrounding the primary robot; and a secondary robot configured to removably couple to the primary robot to transition the multi-sectional show robot between a disengaged configuration, in which the primary robot is decoupled from the secondary robot, and an engaged configuration, in which the primary robot is coupled to the secondary robot, wherein the controller is configured to operate the primary robot based on the feedback and a first control scheme with the multi-sectional show robot in the disengaged configuration and to operate the primary robot based on a second control scheme with the multi-sectional show robot in the engaged configuration. a primary robot comprising a controller and one or more sensors, wherein the one or more sensors are configured to acquire feedback indicative of a first environment surrounding the primary robot; and a secondary robot configured to removably couple to the primary robot to transition the multi-sectional show robot between a disengaged configuration, in which the primary robot is decoupled from the secondary robot, and an engaged configuration, in which the primary robot is coupled to the secondary robot, wherein the controller is configured to operate the primary robot based on the feedback and a first control scheme with the multi-sectional show robot in the disengaged configuration and to operate the primary robot based on a second control scheme with the multi-sectional show robot in the engaged configuration.
A processor for an ultrasound imaging system comprising an array of acoustic elements configured to transmit ultrasound energy into an anatomy and to receive ultrasound echoes associated with the anatomy, the processor for communication with the array and configured to: control the array to activate a plurality of apertures (310, 320, 330) in a scan sequence, each aperture of the plurality of apertures associated with a scan line and comprising a plurality of subapertures associated with one or more acoustic elements of the array; generate a full-aperture image comprising a plurality of pixels, wherein each pixel is associated with signal values acquired by an aperture of the plurality of apertures; identify, for one or more pixels of the full-aperture image, at least one subaperture of the plurality of subapertures corresponding to a minimum signal response or to a signal response below a threshold for the one or more pixels; generate a minimized image based on the identified at least one subaperture for the one or more pixels; generate a weighting mask based on the minimized image and the full-aperture image; generate and output to a display in communication with the processor, a grating lobe minimized image based on the weighting mask and the full-aperture image. control the array to activate a plurality of apertures (310, 320, 330) in a scan sequence, each aperture of the plurality of apertures associated with a scan line and comprising a plurality of subapertures associated with one or more acoustic elements of the array; generate a full-aperture image comprising a plurality of pixels, wherein each pixel is associated with signal values acquired by an aperture of the plurality of apertures; identify, for one or more pixels of the full-aperture image, at least one subaperture of the plurality of subapertures corresponding to a minimum signal response or to a signal response below a threshold for the one or more pixels; generate a minimized image based on the identified at least one subaperture for the one or more pixels; generate a weighting mask based on the minimized image and the full-aperture image; generate and output to a display in communication with the processor, a grating lobe minimized image based on the weighting mask and the full-aperture image.
A method for obtaining a film or film-forming article, said method comprising: a) the provision of a solvent system comprising at least a molecule carrying a sulfoxide function, wherein said solvent system has a water content strictly less than 1000 ppm by weight and has a pH greater than or equal to 6; wherein said pH is measured using a pH meter at 20°C of a solution containing 25% by weight of the solvent system and 75% by weight of distilled water; b) the preparation of a polymer solution, either by dissolving the polymers in the solvent system of step a) or by synthesizing the polymers in the solvent system of step a); c) the elimination of the solvent system by coagulation of the polymers from the polymer solution of step b) to obtain the film or film-forming article and solvent effluents; wherein said elimination of the solvent system from the polymer solution of step b) is carried out in a non-solvent medium for said polymers and solvent for said solvent system, wherein said polymer solution obtained at the end of step b) contains less than 1% water, relative to the total weight of the polymer solution; wherein said polymer solution obtained at the end of step b) has a pH strictly greater than 6; and wherein the polymer solution comprises from 1% to 50% by weight of polymer(s), relative to the total weight of the polymer solution. a) the provision of a solvent system comprising at least a molecule carrying a sulfoxide function, wherein said solvent system has a water content strictly less than 1000 ppm by weight and has a pH greater than or equal to 6; wherein said pH is measured using a pH meter at 20°C of a solution containing 25% by weight of the solvent system and 75% by weight of distilled water; b) the preparation of a polymer solution, either by dissolving the polymers in the solvent system of step a) or by synthesizing the polymers in the solvent system of step a); c) the elimination of the solvent system by coagulation of the polymers from the polymer solution of step b) to obtain the film or film-forming article and solvent effluents; wherein said elimination of the solvent system from the polymer solution of step b) is carried out in a non-solvent medium for said polymers and solvent for said solvent system, wherein said polymer solution obtained at the end of step b) contains less than 1% water, relative to the total weight of the polymer solution; wherein said polymer solution obtained at the end of step b) has a pH strictly greater than 6; and wherein the polymer solution comprises from 1% to 50% by weight of polymer(s), relative to the total weight of the polymer solution.
A masterbatch for polypropylene, comprising: (a) polypropylene carrier, (b) epoxy functionalized polysiloxane, (c) functionalized polyolefin, and (d) optionally, other additives; wherein the functionalized polyolefin contains a maleic anhydride group and is a grafting agent for the epoxy functionalized polysiloxane. (a) polypropylene carrier, (b) epoxy functionalized polysiloxane, (c) functionalized polyolefin, and (d) optionally, other additives;
A method, comprising: receiving, by one or more processors, power measurements for a plurality of machines in a datacenter, the plurality of machines executing one or more tasks; identifying power limitations for the plurality of machines; detecting, by the one or more processors, a triggering event for shedding power consumed by the plurality of machines; commanding, by the one or more processors when the triggering event is detected, the plurality of machines to operate in accordance with one or more restrictions to reduce power consumption; proactively capping power to the plurality of machines during a period of time following the detected event, the proactive capping based on one or more predictions related to power or load, characterized in that the triggering event comprises detecting that power measurements are no longer available. receiving, by one or more processors, power measurements for a plurality of machines in a datacenter, the plurality of machines executing one or more tasks; identifying power limitations for the plurality of machines; detecting, by the one or more processors, a triggering event for shedding power consumed by the plurality of machines; commanding, by the one or more processors when the triggering event is detected, the plurality of machines to operate in accordance with one or more restrictions to reduce power consumption; proactively capping power to the plurality of machines during a period of time following the detected event, the proactive capping based on one or more predictions related to power or load, characterized in that the triggering event comprises detecting that power measurements are no longer available.
A glow plug comprising: a tubular metal shell extending in an axis direction; a heater including a metal tube with a closed front end and a coil housed in the tube, the tube being filled with an insulating powder and attached to the metal shell; and a center wire with a front end side connected to the coil in the tube, and with a rear end side protruding from a rear end of the tube, wherein the coil includes a heating coil of an Ni-Cr alloy disposed on the front end side in the tube, and a control coil connected to a rear end side of the heating coil, and has a normal temperature resistance value obtained by measuring the resistance value of the glow plug at 25°C of 300 mΩ to 500 mΩ, the accumulated amount of heat generation by the heating coil for two seconds from the start of an energization by an application of a voltage of 11V is 400 W or less, the ratio of an inrush current value at the start of the energization and a current value two seconds after the start of the energization (inrush current value/current value two seconds after the start of energization) is 1.2 or higher, the control coil has a temperature resistance coefficient of five or higher, and the control coil has a resistance value of 25 mΩ or higher at a portion between a front end of the control coil and L/2, where L is the length of the control coil in the axis direction. a tubular metal shell extending in an axis direction; a heater including a metal tube with a closed front end and a coil housed in the tube, the tube being filled with an insulating powder and attached to the metal shell; and a center wire with a front end side connected to the coil in the tube, and with a rear end side protruding from a rear end of the tube, wherein the coil includes a heating coil of an Ni-Cr alloy disposed on the front end side in the tube, and a control coil connected to a rear end side of the heating coil, and has a normal temperature resistance value obtained by measuring the resistance value of the glow plug at 25°C of 300 mΩ to 500 mΩ, the accumulated amount of heat generation by the heating coil for two seconds from the start of an energization by an application of a voltage of 11V is 400 W or less, the ratio of an inrush current value at the start of the energization and a current value two seconds after the start of the energization (inrush current value/current value two seconds after the start of energization) is 1.2 or higher, the control coil has a temperature resistance coefficient of five or higher, and the control coil has a resistance value of 25 mΩ or higher at a portion between a front end of the control coil and L/2, where L is the length of the control coil in the axis direction.